Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR

Information

Package Content

Name	Description
Generic	Generic data record for chiller ElectricReformulatedEIR
ReformEIRChiller_McQuay_WSC_471kW_5_89COP_Vanes	ReformEIRChiller McQuay WSC 471kW/5.89COP/Vanes
ReformEIRChiller_York_YT_563kW_10_61COP_Vanes	ReformEIRChiller York YT 563kW/10.61COP/Vanes
ReformEIRChiller_McQuay_PEH_703kW_7_03COP_Vanes	ReformEIRChiller McQuay PEH 703kW/7.03COP/Vanes
ReformEIRChiller_Carrier_23XL_724kW_6_04COP_Vanes	ReformEIRChiller Carrier 23XL 724kW/6.04COP/Vanes
ReformEIRChiller_Carrier_19XR_742kW_5_42COP_VSD	ReformEIRChiller Carrier 19XR 742kW/5.42COP/VSD
ReformEIRChiller_McQuay_WSC_816kW_6_74COP_Vanes	ReformEIRChiller McQuay WSC 816kW/6.74COP/Vanes
ReformEIRChiller_McQuay_PEH_819kW_8_11COP_Vanes	ReformEIRChiller McQuay PEH 819kW/8.11COP/Vanes
ReformEIRChiller_Carrier_19XR_823kW_6_28COP_Vanes	ReformEIRChiller Carrier 19XR 823kW/6.28COP/Vanes
ReformEIRChiller_Carrier_19XR_869kW_5_57COP_VSD	ReformEIRChiller Carrier 19XR 869kW/5.57COP/VSD
ReformEIRChiller_Carrier_19XR_897kW_7_23COP_VSD	ReformEIRChiller Carrier 19XR 897kW/7.23COP/VSD
ReformEIRChiller_Carrier_19XR_897kW_6_50COP_Vanes	ReformEIRChiller Carrier 19XR 897kW/6.50COP/Vanes
ReformEIRChiller_York_YT_897kW_7_60COP_VSD	ReformEIRChiller York YT 897kW/7.60COP/VSD
ReformEIRChiller_York_YT_897kW_6_27COP_VSD	ReformEIRChiller York YT 897kW/6.27COP/VSD
ReformEIRChiller_Carrier_19XR_897kW_6_23COP_VSD	ReformEIRChiller Carrier 19XR 897kW/6.23COP/VSD
ReformEIRChiller_McQuay_PFH_932kW_5_09COP_Vanes	ReformEIRChiller McQuay PFH 932kW/5.09COP/Vanes
ReformEIRChiller_York_YT_960kW_4_64COP_Vanes	ReformEIRChiller York YT 960kW/4.64COP/Vanes
ReformEIRChiller_York_YT_1023kW_5_81COP_Vanes	ReformEIRChiller York YT 1023kW/5.81COP/Vanes
ReformEIRChiller_McQuay_PEH_1030kW_8_58COP_Vanes	ReformEIRChiller McQuay PEH 1030kW/8.58COP/Vanes
ReformEIRChiller_York_YT_1048kW_6_06COP_Vanes	ReformEIRChiller York YT 1048kW/6.06COP/Vanes
ReformEIRChiller_York_YT_1055kW_5_96COP_Vanes	ReformEIRChiller York YT 1055kW/5.96COP/Vanes
ReformEIRChiller_Carrier_19XR_1076kW_5_52COP_Vanes	ReformEIRChiller Carrier 19XR 1076kW/5.52COP/Vanes
ReformEIRChiller_Trane_CVHE_1080kW_7_39COP_Vanes	ReformEIRChiller Trane CVHE 1080kW/7.39COP/Vanes
ReformEIRChiller_York_YT_1090kW_7_57COP_VSD	ReformEIRChiller York YT 1090kW/7.57COP/VSD
ReformEIRChiller_McQuay_PEH_1104kW_8_00COP_Vanes	ReformEIRChiller McQuay PEH 1104kW/8.00COP/Vanes
ReformEIRChiller_Trane_CVHE_1125kW_4_89COP_Vanes	ReformEIRChiller Trane CVHE 1125kW/4.89COP/Vanes
ReformEIRChiller_York_YT_1125kW_7_92COP_VSD	ReformEIRChiller York YT 1125kW/7.92COP/VSD
ReformEIRChiller_Trane_CVHE_1129kW_7_19COP_Vanes	ReformEIRChiller Trane CVHE 1129kW/7.19COP/Vanes
ReformEIRChiller_Carrier_19XR_1143kW_6_57COP_VSD	ReformEIRChiller Carrier 19XR 1143kW/6.57COP/VSD
ReformEIRChiller_Carrier_19XR_1157kW_5_62COP_VSD	ReformEIRChiller Carrier 19XR 1157kW/5.62COP/VSD
ReformEIRChiller_Carrier_19XR_1196kW_6_50COP_Vanes	ReformEIRChiller Carrier 19XR 1196kW/6.50COP/Vanes
ReformEIRChiller_Carrier_19XR_1213kW_7_78COP_Vanes	ReformEIRChiller Carrier 19XR 1213kW/7.78COP/Vanes
ReformEIRChiller_McQuay_PEH_1231kW_6_18COP_Vanes	ReformEIRChiller McQuay PEH 1231kW/6.18COP/Vanes
ReformEIRChiller_Carrier_19XR_1234kW_5_39COP_VSD	ReformEIRChiller Carrier 19XR 1234kW/5.39COP/VSD
ReformEIRChiller_Carrier_19XR_1259kW_6_26COP_Vanes	ReformEIRChiller Carrier 19XR 1259kW/6.26COP/Vanes
ReformEIRChiller_York_YK_1259kW_6_45COP_Vanes	ReformEIRChiller York YK 1259kW/6.45COP/Vanes
ReformEIRChiller_York_YT_1266kW_4_39COP_Vanes	ReformEIRChiller York YT 1266kW/4.39COP/Vanes
ReformEIRChiller_Carrier_19XR_1284kW_6_20COP_Vanes	ReformEIRChiller Carrier 19XR 1284kW/6.20COP/Vanes
ReformEIRChiller_Carrier_19XR_1294kW_7_61COP_Vanes	ReformEIRChiller Carrier 19XR 1294kW/7.61COP/Vanes
ReformEIRChiller_Trane_CVHE_1329kW_5_38COP_Vanes	ReformEIRChiller Trane CVHE 1329kW/5.38COP/Vanes
ReformEIRChiller_Carrier_19XR_1350kW_7_90COP_VSD	ReformEIRChiller Carrier 19XR 1350kW/7.90COP/VSD
ReformEIRChiller_York_YT_1368kW_7_35COP_VSD	ReformEIRChiller York YT 1368kW/7.35COP/VSD
ReformEIRChiller_Trane_CVHE_1372kW_7_49COP_Vanes	ReformEIRChiller Trane CVHE 1372kW/7.49COP/Vanes
ReformEIRChiller_York_YT_1396kW_7_35COP_Vanes	ReformEIRChiller York YT 1396kW/7.35COP/Vanes
ReformEIRChiller_Carrier_19XR_1403kW_7_09COP_VSD	ReformEIRChiller Carrier 19XR 1403kW/7.09COP/VSD
ReformEIRChiller_York_YT_1403kW_6_94COP_VSD	ReformEIRChiller York YT 1403kW/6.94COP/VSD
ReformEIRChiller_Trane_CVHE_1407kW_7_14COP_VSD	ReformEIRChiller Trane CVHE 1407kW/7.14COP/VSD
ReformEIRChiller_McQuay_PFH_1407kW_6_60COP_Vanes	ReformEIRChiller McQuay PFH 1407kW/6.60COP/Vanes
ReformEIRChiller_Carrier_19XR_1407kW_6_04COP_VSD	ReformEIRChiller Carrier 19XR 1407kW/6.04COP/VSD
ReformEIRChiller_Carrier_19XR_1410kW_8_54COP_VSD	ReformEIRChiller Carrier 19XR 1410kW/8.54COP/VSD
ReformEIRChiller_Trane_CVHE_1442kW_6_61COP_VSD	ReformEIRChiller Trane CVHE 1442kW/6.61COP/VSD
ReformEIRChiller_York_YT_1459kW_6_40COP_VSD	ReformEIRChiller York YT 1459kW/6.40COP/VSD
ReformEIRChiller_Trane_CVHE_1484kW_9_96COP_VSD	ReformEIRChiller Trane CVHE 1484kW/9.96COP/VSD
ReformEIRChiller_York_YT_1495kW_7_51COP_VSD	ReformEIRChiller York YT 1495kW/7.51COP/VSD
ReformEIRChiller_McQuay_WSC_1519kW_7_10COP_Vanes	ReformEIRChiller McQuay WSC 1519kW/7.10COP/Vanes
ReformEIRChiller_Carrier_19XR_1558kW_5_81COP_VSD	ReformEIRChiller Carrier 19XR 1558kW/5.81COP/VSD
ReformEIRChiller_Carrier_19XR_1586kW_5_53COP_VSD	ReformEIRChiller Carrier 19XR 1586kW/5.53COP/VSD
ReformEIRChiller_McQuay_PEH_1635kW_7_47COP_Vanes	ReformEIRChiller McQuay PEH 1635kW/7.47COP/Vanes
ReformEIRChiller_Carrier_19XR_1635kW_6_36COP_Vanes	ReformEIRChiller Carrier 19XR 1635kW/6.36COP/Vanes
ReformEIRChiller_Carrier_19XR_1656kW_8_24COP_VSD	ReformEIRChiller Carrier 19XR 1656kW/8.24COP/VSD
ReformEIRChiller_York_YT_1663kW_9_34COP_Vanes	ReformEIRChiller York YT 1663kW/9.34COP/Vanes
ReformEIRChiller_Carrier_19XL_1674kW_7_89COP_Vanes	ReformEIRChiller Carrier 19XL 1674kW/7.89COP/Vanes
ReformEIRChiller_Trane_CVHF_1681kW_6_59COP_Vanes	ReformEIRChiller Trane CVHF 1681kW/6.59COP/Vanes
ReformEIRChiller_Carrier_19XR_1723kW_8_32COP_VSD	ReformEIRChiller Carrier 19XR 1723kW/8.32COP/VSD
ReformEIRChiller_Carrier_19XR_1727kW_9_04COP_Vanes	ReformEIRChiller Carrier 19XR 1727kW/9.04COP/Vanes
ReformEIRChiller_McQuay_WSC_1751kW_6_73COP_Vanes	ReformEIRChiller McQuay WSC 1751kW/6.73COP/Vanes
ReformEIRChiller_Trane_CVHF_1758kW_5_96COP_Vanes	ReformEIRChiller Trane CVHF 1758kW/5.96COP/Vanes
ReformEIRChiller_York_YT_1758kW_5_76COP_VSD	ReformEIRChiller York YT 1758kW/5.76COP/VSD
ReformEIRChiller_York_YT_1758kW_6_26COP_Vanes	ReformEIRChiller York YT 1758kW/6.26COP/Vanes
ReformEIRChiller_York_YT_1758kW_5_96COP_Vanes	ReformEIRChiller York YT 1758kW/5.96COP/Vanes
ReformEIRChiller_Trane_CVHE_1758kW_5_96COP_Vanes	ReformEIRChiller Trane CVHE 1758kW/5.96COP/Vanes
ReformEIRChiller_York_YT_1758kW_6_28COP_Vanes	ReformEIRChiller York YT 1758kW/6.28COP/Vanes
ReformEIRChiller_Carrier_19XR_1758kW_5_86COP_VSD	ReformEIRChiller Carrier 19XR 1758kW/5.86COP/VSD
ReformEIRChiller_Trane_CVHF_1758kW_6_46COP_VSD	ReformEIRChiller Trane CVHF 1758kW/6.46COP/VSD
ReformEIRChiller_Trane_CVHF_1758kW_6_87COP_Vanes	ReformEIRChiller Trane CVHF 1758kW/6.87COP/Vanes
ReformEIRChiller_Carrier_19XR_1776kW_8_00COP_Vanes	ReformEIRChiller Carrier 19XR 1776kW/8.00COP/Vanes
ReformEIRChiller_Carrier_19XL_1779kW_6_18COP_Vanes	ReformEIRChiller Carrier 19XL 1779kW/6.18COP/Vanes
ReformEIRChiller_Trane_CVHF_1779kW_6_18COP_Vanes	ReformEIRChiller Trane CVHF 1779kW/6.18COP/Vanes
ReformEIRChiller_York_YT_1794kW_8_11COP_Vanes	ReformEIRChiller York YT 1794kW/8.11COP/Vanes
ReformEIRChiller_York_YT_1794kW_7_90COP_VSD	ReformEIRChiller York YT 1794kW/7.90COP/VSD
ReformEIRChiller_Carrier_19XL_1797kW_5_69COP_Vanes	ReformEIRChiller Carrier 19XL 1797kW/5.69COP/Vanes
ReformEIRChiller_Carrier_19XR_1801kW_6_34COP_VSD	ReformEIRChiller Carrier 19XR 1801kW/6.34COP/VSD
ReformEIRChiller_York_YT_1867kW_10_09COP_Vanes	ReformEIRChiller York YT 1867kW/10.09COP/Vanes
ReformEIRChiller_Carrier_19XL_1871kW_6_49COP_Vanes	ReformEIRChiller Carrier 19XL 1871kW/6.49COP/Vanes
ReformEIRChiller_York_YT_1881kW_6_77COP_VSD	ReformEIRChiller York YT 1881kW/6.77COP/VSD
ReformEIRChiller_York_YK_1881kW_6_53COP_Vanes	ReformEIRChiller York YK 1881kW/6.53COP/Vanes
ReformEIRChiller_McQuay_PEH_1895kW_6_42COP_Vanes	ReformEIRChiller McQuay PEH 1895kW/6.42COP/Vanes
ReformEIRChiller_York_YT_1934kW_7_55COP_Vanes	ReformEIRChiller York YT 1934kW/7.55COP/Vanes
ReformEIRChiller_McQuay_PEH_1934kW_6_01COP_Vanes	ReformEIRChiller McQuay PEH 1934kW/6.01COP/Vanes
ReformEIRChiller_McQuay_WDC_1973kW_6_28COP_Vanes	ReformEIRChiller McQuay WDC 1973kW/6.28COP/Vanes
ReformEIRChiller_York_YK_1997kW_7_24COP_Vanes	ReformEIRChiller York YK 1997kW/7.24COP/Vanes
ReformEIRChiller_McQuay_PFH_2043kW_8_44COP_Vanes	ReformEIRChiller McQuay PFH 2043kW/8.44COP/Vanes
ReformEIRChiller_Trane_CVHF_2043kW_9_08COP_Vanes	ReformEIRChiller Trane CVHF 2043kW/9.08COP/Vanes
ReformEIRChiller_Carrier_19XL_2057kW_6_05COP_Vanes	ReformEIRChiller Carrier 19XL 2057kW/6.05COP/Vanes
ReformEIRChiller_York_YT_2110kW_7_15COP_Vanes	ReformEIRChiller York YT 2110kW/7.15COP/Vanes
ReformEIRChiller_McQuay_PFH_2124kW_6_03COP_Vanes	ReformEIRChiller McQuay PFH 2124kW/6.03COP/Vanes
ReformEIRChiller_York_YK_2159kW_6_85COP_Vanes	ReformEIRChiller York YK 2159kW/6.85COP/Vanes
ReformEIRChiller_Trane_CVHF_2184kW_6_78COP_Vanes	ReformEIRChiller Trane CVHF 2184kW/6.78COP/Vanes
ReformEIRChiller_York_YK_2201kW_6_69COP_Vanes	ReformEIRChiller York YK 2201kW/6.69COP/Vanes
ReformEIRChiller_York_YT_2233kW_9_54COP_VSD	ReformEIRChiller York YT 2233kW/9.54COP/VSD
ReformEIRChiller_York_YK_2237kW_6_41COP_Vanes	ReformEIRChiller York YK 2237kW/6.41COP/Vanes
ReformEIRChiller_York_YK_2275kW_6_32COP_Vanes	ReformEIRChiller York YK 2275kW/6.32COP/Vanes
ReformEIRChiller_Trane_CVHF_2300kW_8_10COP_Vanes	ReformEIRChiller Trane CVHF 2300kW/8.10COP/Vanes
ReformEIRChiller_Trane_CVHF_2317kW_6_33COP_VSD	ReformEIRChiller Trane CVHF 2317kW/6.33COP/VSD
ReformEIRChiller_Carrier_19XR_2391kW_6_77COP_Vanes	ReformEIRChiller Carrier 19XR 2391kW/6.77COP/Vanes
ReformEIRChiller_Carrier_19XR_2391kW_6_44COP_VSD	ReformEIRChiller Carrier 19XR 2391kW/6.44COP/VSD
ReformEIRChiller_York_YK_2412kW_5_58COP_Vanes	ReformEIRChiller York YK 2412kW/5.58COP/Vanes
ReformEIRChiller_McQuay_PFH_2462kW_6_67COP_Vanes	ReformEIRChiller McQuay PFH 2462kW/6.67COP/Vanes
ReformEIRChiller_Trane_CVHG670_44_86_2490kW_6_5COP	ReformEIRChiller Trane CVHG670-44&86 2490kW/6.5COP
ReformEIRChiller_Trane_CVHF_2567kW_11_77COP_VSD	ReformEIRChiller Trane CVHF 2567kW/11.77COP/VSD
ReformEIRChiller_York_YK_2771kW_6_84COP_VSD	ReformEIRChiller York YK 2771kW/6.84COP/VSD
ReformEIRChiller_Trane_CVHF_2799kW_6_40COP_Vanes	ReformEIRChiller Trane CVHF 2799kW/6.40COP/Vanes
ReformEIRChiller_York_YT_3133kW_9_16COP_Vanes	ReformEIRChiller York YT 3133kW/9.16COP/Vanes
ReformEIRChiller_McQuay_PFH_3165kW_6_48COP_Vanes	ReformEIRChiller McQuay PFH 3165kW/6.48COP/Vanes
ReformEIRChiller_McQuay_PFH_4020kW_7_35COP_Vanes	ReformEIRChiller McQuay PFH 4020kW/7.35COP/Vanes
ReformEIRChiller_York_YK_4396kW_6_63COP_Vanes	ReformEIRChiller York YK 4396kW/6.63COP/Vanes
ReformEIRChiller_York_YK_4477kW_6_64COP_Vanes	ReformEIRChiller York YK 4477kW/6.64COP/Vanes
ReformEIRChiller_York_YK_4515kW_6_22COP_Vanes	ReformEIRChiller York YK 4515kW/6.22COP/Vanes
ReformEIRChiller_York_YK_4537kW_6_28COP_Vanes	ReformEIRChiller York YK 4537kW/6.28COP/Vanes
ReformEIRChiller_Trane_CVHF_4610kW_6_34COP_Vanes	ReformEIRChiller Trane CVHF 4610kW/6.34COP/Vanes
ReformEIRChiller_Carrier_19EX_4667kW_6_16COP_Vanes	ReformEIRChiller Carrier 19EX 4667kW/6.16COP/Vanes
ReformEIRChiller_Trane_CVHF_4677kW_6_27COP_Vanes	ReformEIRChiller Trane CVHF 4677kW/6.27COP/Vanes
ReformEIRChiller_York_YK_4966kW_6_05COP_Vanes	ReformEIRChiller York YK 4966kW/6.05COP/Vanes
ReformEIRChiller_York_YK_4969kW_7_14COP_Vanes	ReformEIRChiller York YK 4969kW/7.14COP/Vanes
ReformEIRChiller_York_YK_4969kW_7_07COP_Vanes	ReformEIRChiller York YK 4969kW/7.07COP/Vanes
ReformEIRChiller_Carrier_19EX_4997kW_6_40COP_Vanes	ReformEIRChiller Carrier 19EX 4997kW/6.40COP/Vanes
ReformEIRChiller_Carrier_19EX_5148kW_6_34COP_Vanes	ReformEIRChiller Carrier 19EX 5148kW/6.34COP/Vanes
ReformEIRChiller_York_YK_5170kW_7_15COP_Vanes	ReformEIRChiller York YK 5170kW/7.15COP/Vanes
ReformEIRChiller_Carrier_19EX_5208kW_6_88COP_Vanes	ReformEIRChiller Carrier 19EX 5208kW/6.88COP/Vanes
ReformEIRChiller_York_YK_5465kW_6_94COP_Vanes	ReformEIRChiller York YK 5465kW/6.94COP/Vanes
ReformEIRChiller_York_YK_5549kW_6_50COP_Vanes	ReformEIRChiller York YK 5549kW/6.50COP/Vanes
ReformEIRChiller_Carrier_19FA_5651kW_5_50COP_Vanes	ReformEIRChiller Carrier 19FA 5651kW/5.50COP/Vanes
ReformEIRChiller_Multistack_MS_172kW_3_67COP_None	ReformEIRChiller Multistack MS 172kW/3.67COP/None
ReformEIRChiller_Trane_RTWA_383kW_4_17COP_Valve	ReformEIRChiller Trane RTWA 383kW/4.17COP/Valve
ReformEIRChiller_Trane_RTHB_531kW_4_83COP_Valve	ReformEIRChiller Trane RTHB 531kW/4.83COP/Valve
ReformEIRChiller_Trane_RTHB_538kW_5_12COP_Valve	ReformEIRChiller Trane RTHB 538kW/5.12COP/Valve
ReformEIRChiller_Trane_RTHB_542kW_5_26COP_Valve	ReformEIRChiller Trane RTHB 542kW/5.26COP/Valve
ReformEIRChiller_York_YS_672kW_7_90COP_Valve	ReformEIRChiller York YS 672kW/7.90COP/Valve
ReformEIRChiller_Carrier_23XL_686kW_5_91COP_Valve	ReformEIRChiller Carrier 23XL 686kW/5.91COP/Valve
ReformEIRChiller_Trane_RTHC_707kW_7_77COP_Valve	ReformEIRChiller Trane RTHC 707kW/7.77COP/Valve
ReformEIRChiller_York_YS_756kW_7_41COP_Valve	ReformEIRChiller York YS 756kW/7.41COP/Valve
ReformEIRChiller_York_YS_781kW_5_42COP_Valve	ReformEIRChiller York YS 781kW/5.42COP/Valve
ReformEIRChiller_Carrier_23XL_830kW_6_97COP_Valve	ReformEIRChiller Carrier 23XL 830kW/6.97COP/Valve
ReformEIRChiller_Carrier_23XL_862kW_6_11COP_Valve	ReformEIRChiller Carrier 23XL 862kW/6.11COP/Valve
ReformEIRChiller_Carrier_23XL_862kW_6_84COP_Valve	ReformEIRChiller Carrier 23XL 862kW/6.84COP/Valve
ReformEIRChiller_Carrier_23XL_865kW_6_05COP_Valve	ReformEIRChiller Carrier 23XL 865kW/6.05COP/Valve
ReformEIRChiller_York_YS_879kW_5_82COP_Valve	ReformEIRChiller York YS 879kW/5.82COP/Valve
ReformEIRChiller_Trane_RTHC_1009kW_5_37COP_Valve	ReformEIRChiller Trane RTHC 1009kW/5.37COP/Valve
ReformEIRChiller_Trane_RTHB_1051kW_5_05COP_Valve	ReformEIRChiller Trane RTHB 1051kW/5.05COP/Valve
ReformEIRChiller_Carrier_23XL_1062kW_5_50COP_Valve	ReformEIRChiller Carrier 23XL 1062kW/5.50COP/Valve
ReformEIRChiller_Trane_RTHC_1066kW_5_73COP_Valve	ReformEIRChiller Trane RTHC 1066kW/5.73COP/Valve
ReformEIRChiller_Trane_RTHC_1094kW_6_55COP_Valve	ReformEIRChiller Trane RTHC 1094kW/6.55COP/Valve
ReformEIRChiller_Carrier_23XL_1108kW_6_92COP_Valve	ReformEIRChiller Carrier 23XL 1108kW/6.92COP/Valve
ReformEIRChiller_York_YS_1171kW_9_15COP_Valve	ReformEIRChiller York YS 1171kW/9.15COP/Valve
ReformEIRChiller_Carrier_23XL_1196kW_6_39COP_Valve	ReformEIRChiller Carrier 23XL 1196kW/6.39COP/Valve
ReformEIRChiller_York_YS_1554kW_9_31COP_Valve	ReformEIRChiller York YS 1554kW/9.31COP/Valve
ReformEIRChiller_York_YS_1758kW_5_84COP_Valve	ReformEIRChiller York YS 1758kW/5.84COP/Valve
ReformEIRChiller_Trane_CGWD_207kW_3_99COP_None	ReformEIRChiller Trane CGWD 207kW/3.99COP/None

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic

Information

Parameters

Type	Name	Default	Description
Real	PLRMax		Maximum part load ratio
Real	PLRMinUnl		Minimum part unload ratio
Real	PLRMin		Minimum part load ratio
Real	etaMotor		Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal		Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal		Reference capacity (negative number) [W]
Real	COP_nominal		Reference coefficient of performance
MassFlowRate	mEva_flow_nominal		Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal		Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal		Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Integer	nCapFunT	6	Number of coefficients for capFunT
Integer	nEIRFunT	6	Number of coefficients for capFunT
Integer	nEIRFunPLR	10	Number of coefficients for capFunT
Real	capFunT[nCapFunT]		Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]		Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]		Coefficients for EIRFunPLR
Temperature	TEvaLvgMin		Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax		Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin		Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax		Maximum value for leaving condenser temperature [K]

Modelica definition

record Generic 
  "Generic data record for chiller ElectricReformulatedEIR"
  extends Buildings.Fluid.Chillers.Data.BaseClasses.Chiller(
      final nCapFunT=6,
      final nEIRFunT=6,
      final nEIRFunPLR=10);
  parameter Modelica.SIunits.Temperature TConLvg_nominal 
    "Temperature of fluid leaving condenser at nominal condition";

  parameter Modelica.SIunits.Temperature TConLvgMin 
    "Minimum value for leaving condenser temperature";
  Modelica.SIunits.Temperature TConLvgMax 
    "Maximum value for leaving condenser temperature";

end Generic;

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_WSC_471kW_5_89COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay WSC 471kW/5.89COP/Vanes,  !- Name
    471200,                  !- Reference Capacity {W}
    5.89,                    !- Reference COP {W/W}
    8.89,                    !- Reference Leaving Chilled Water Temperature {C}
    33.52,                   !- Reference Leaving Condenser Water Temperature {C}
    0.01035,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.01924,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay WSC 471kW/5.89COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay WSC 471kW/5.89COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay WSC 471kW/5.89COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.08,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.08	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 33.52	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-471200	Reference capacity (negative number) [W]
Real	COP_nominal	5.89	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.01035	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.01924	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 8.89	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-4.862465E-01,-7.293218E-02...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{3.522647E-01,-3.311790E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{8.215998E-01,-2.209969E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.81	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 35.09	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_WSC_471kW_5_89COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -471200,
    COP_nominal =         5.89,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.08,
    mEva_flow_nominal =   1000 * 0.01035,
    mCon_flow_nominal =   1000 * 0.01924,
    TEvaLvg_nominal =     273.15 + 8.89,
    TConLvg_nominal =     273.15 + 33.52,
    TEvaLvgMin =          273.15 + 7.22,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 18.81,
    TConLvgMax =          273.15 + 35.09,
    capFunT =             {-4.862465E-01,-7.293218E-02,-8.514849E-03,1.463106E-01,-4.474066E-03,9.813408E-03},
    EIRFunT =             {3.522647E-01,-3.311790E-02,-1.374491E-04,3.469525E-02,-3.624458E-04,6.749423E-04},
    EIRFunPLR =           {8.215998E-01,-2.209969E-02,-1.725652E-05,-3.831448E-02,1.896948E-01,2.308518E-02,0.000000E+00,1.349969E-02,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay WSC 471kW/5.89COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_563kW_10_61COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 563kW/10.61COP/Vanes,  !- Name
    562600,                  !- Reference Capacity {W}
    10.61,                   !- Reference COP {W/W}
    6.11,                    !- Reference Leaving Chilled Water Temperature {C}
    18.89,                   !- Reference Leaving Condenser Water Temperature {C}
    0.01514,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.0241,                  !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 563kW/10.61COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 563kW/10.61COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 563kW/10.61COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.09,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.09,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.09	Minimum part unload ratio
Real	PLRMin	0.09	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 18.89	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-562600	Reference capacity (negative number) [W]
Real	COP_nominal	10.61	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.01514	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.0241	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.11	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-2.841837E-01,-1.006253E-01...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{-5.308783E-01,-8.364102E-02...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{4.931998E+00,-2.128161E-01,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.11	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.47	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 33.52	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_563kW_10_61COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -562600,
    COP_nominal =         10.61,
    PLRMin =              0.09,
    PLRMinUnl =           0.09,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.01514,
    mCon_flow_nominal =   1000 * 0.0241,
    TEvaLvg_nominal =     273.15 + 6.11,
    TConLvg_nominal =     273.15 + 18.89,
    TEvaLvgMin =          273.15 + 6.11,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 18.47,
    TConLvgMax =          273.15 + 33.52,
    capFunT =             {-2.841837E-01,-1.006253E-01,-3.157589E-03,1.221758E-01,-3.003466E-03,6.704017E-03},
    EIRFunT =             {-5.308783E-01,-8.364102E-02,-4.054970E-03,1.347115E-01,-1.805617E-03,3.054789E-03},
    EIRFunPLR =           {4.931998E+00,-2.128161E-01,3.520769E-04,-8.586753E+00,1.375722E+01,1.940510E-01,0.000000E+00,-8.859038E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 563kW/10.61COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_PEH_703kW_7_03COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay PEH 703kW/7.03COP/Vanes,  !- Name
    703300,                  !- Reference Capacity {W}
    7.03,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    29.40,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02019,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.02902,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay PEH 703kW/7.03COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 703kW/7.03COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 703kW/7.03COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.40	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-703300	Reference capacity (negative number) [W]
Real	COP_nominal	7.03	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02019	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.02902	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-1.336180E-01,6.473161E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{8.177961E-01,-1.756394E-01,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.342644E+00,-1.060883E-01,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 20.28	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 31.25	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_PEH_703kW_7_03COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -703300,
    COP_nominal =         7.03,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.02019,
    mCon_flow_nominal =   1000 * 0.02902,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 29.40,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 20.28,
    TConLvgMax =          273.15 + 31.25,
    capFunT =             {-1.336180E-01,6.473161E-02,-1.240446E-02,9.425649E-02,-2.958871E-03,5.765503E-03},
    EIRFunT =             {8.177961E-01,-1.756394E-01,2.510719E-03,2.677783E-02,-4.926551E-04,4.559008E-03},
    EIRFunPLR =           {2.342644E+00,-1.060883E-01,2.710155E-04,-2.289108E+00,3.338339E+00,9.221626E-02,0.000000E+00,-2.217954E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay PEH 703kW/7.03COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_23XL_724kW_6_04COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 23XL 724kW/6.04COP/Vanes,  !- Name
    724400,                  !- Reference Capacity {W}
    6.04,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    31.44,                   !- Reference Leaving Condenser Water Temperature {C}
    0.01779,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.01956,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 23XL 724kW/6.04COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 23XL 724kW/6.04COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 23XL 724kW/6.04COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.19,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.19,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.19	Minimum part unload ratio
Real	PLRMin	0.19	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.44	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-724400	Reference capacity (negative number) [W]
Real	COP_nominal	6.04	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.01779	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.01956	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-1.116010E-01,-1.058351E-01...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{5.899136E-01,1.976846E-02,8...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{3.645490E-01,2.732140E-03,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 22.12	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 35.40	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_23XL_724kW_6_04COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -724400,
    COP_nominal =         6.04,
    PLRMin =              0.19,
    PLRMinUnl =           0.19,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.01779,
    mCon_flow_nominal =   1000 * 0.01956,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 31.44,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 22.12,
    TConLvgMax =          273.15 + 35.40,
    capFunT =             {-1.116010E-01,-1.058351E-01,-1.829692E-03,9.677921E-02,-2.169221E-03,4.998660E-03},
    EIRFunT =             {5.899136E-01,1.976846E-02,8.755088E-04,-7.564222E-03,8.775130E-04,-2.036856E-03},
    EIRFunPLR =           {3.645490E-01,2.732140E-03,-5.356774E-05,1.212025E-01,5.491750E-01,2.083941E-04,0.000000E+00,-7.516191E-02,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 23XL 724kW/6.04COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_742kW_5_42COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 742kW/5.42COP/VSD,  !- Name
    742000,                  !- Reference Capacity {W}
    5.42,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    31.86,                   !- Reference Leaving Condenser Water Temperature {C}
    0.01779,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.01956,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 742kW/5.42COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 742kW/5.42COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 742kW/5.42COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.19,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.19,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.19	Minimum part unload ratio
Real	PLRMin	0.19	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.86	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-742000	Reference capacity (negative number) [W]
Real	COP_nominal	5.42	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.01779	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.01956	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{7.769438E-01,-2.149731E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.131963E+00,-4.201196E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{4.301853E-02,1.740092E-02,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 22.11	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 34.90	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_742kW_5_42COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -742000,
    COP_nominal =         5.42,
    PLRMin =              0.19,
    PLRMinUnl =           0.19,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.01779,
    mCon_flow_nominal =   1000 * 0.01956,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 31.86,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 22.11,
    TConLvgMax =          273.15 + 34.90,
    capFunT =             {7.769438E-01,-2.149731E-02,-1.080097E-03,2.754266E-02,-7.938947E-04,1.666375E-03},
    EIRFunT =             {1.131963E+00,-4.201196E-02,7.571267E-04,-2.042484E-02,7.676570E-04,-2.753302E-04},
    EIRFunPLR =           {4.301853E-02,1.740092E-02,-2.733344E-05,-5.445504E-01,2.155307E+00,-1.600200E-02,0.000000E+00,-6.716912E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 742kW/5.42COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_WSC_816kW_6_74COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay WSC 816kW/6.74COP/Vanes,  !- Name
    815800,                  !- Reference Capacity {W}
    6.74,                    !- Reference COP {W/W}
    8.89,                    !- Reference Leaving Chilled Water Temperature {C}
    32.05,                   !- Reference Leaving Condenser Water Temperature {C}
    0.01748,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04164,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay WSC 816kW/6.74COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay WSC 816kW/6.74COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay WSC 816kW/6.74COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.09,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.09,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.09	Minimum part unload ratio
Real	PLRMin	0.09	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 32.05	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-815800	Reference capacity (negative number) [W]
Real	COP_nominal	6.74	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.01748	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04164	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 8.89	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{9.237537E-01,1.013316E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{7.251890E-01,-1.477434E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{5.166838E-01,-1.114911E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.41	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 33.45	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_WSC_816kW_6_74COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -815800,
    COP_nominal =         6.74,
    PLRMin =              0.09,
    PLRMinUnl =           0.09,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.01748,
    mCon_flow_nominal =   1000 * 0.04164,
    TEvaLvg_nominal =     273.15 + 8.89,
    TConLvg_nominal =     273.15 + 32.05,
    TEvaLvgMin =          273.15 + 7.22,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 19.41,
    TConLvgMax =          273.15 + 33.45,
    capFunT =             {9.237537E-01,1.013316E-02,-6.564312E-03,2.744234E-02,-2.183256E-03,6.537972E-03},
    EIRFunT =             {7.251890E-01,-1.477434E-02,-3.174328E-03,4.035136E-03,-6.105556E-05,2.003152E-03},
    EIRFunPLR =           {5.166838E-01,-1.114911E-02,7.372985E-05,-7.182393E-02,8.180601E-01,7.638243E-03,0.000000E+00,-2.216516E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay WSC 816kW/6.74COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_PEH_819kW_8_11COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay PEH 819kW/8.11COP/Vanes,  !- Name
    819300,                  !- Reference Capacity {W}
    8.11,                    !- Reference COP {W/W}
    4.44,                    !- Reference Leaving Chilled Water Temperature {C}
    18.59,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02524,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.03785,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay PEH 819kW/8.11COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 819kW/8.11COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 819kW/8.11COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.09,                    !- Minimum Part Load Ratio
    1.05,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.09,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.05	Maximum part load ratio
Real	PLRMinUnl	0.09	Minimum part unload ratio
Real	PLRMin	0.09	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 18.59	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-819300	Reference capacity (negative number) [W]
Real	COP_nominal	8.11	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02524	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.03785	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 4.44	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{5.519141E-01,1.393287E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{4.447588E-01,-3.185710E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.038400E-01,1.702895E-02,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.51	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 35.07	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_PEH_819kW_8_11COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -819300,
    COP_nominal =         8.11,
    PLRMin =              0.09,
    PLRMinUnl =           0.09,
    PLRMax =              1.05,
    mEva_flow_nominal =   1000 * 0.02524,
    mCon_flow_nominal =   1000 * 0.03785,
    TEvaLvg_nominal =     273.15 + 4.44,
    TConLvg_nominal =     273.15 + 18.59,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 18.51,
    TConLvgMax =          273.15 + 35.07,
    capFunT =             {5.519141E-01,1.393287E-02,-4.818082E-03,3.705684E-02,-1.429769E-03,3.473993E-03},
    EIRFunT =             {4.447588E-01,-3.185710E-02,-8.260575E-04,3.712567E-02,-4.887950E-05,4.978770E-04},
    EIRFunPLR =           {1.038400E-01,1.702895E-02,-1.399515E-05,-9.140769E-03,1.077987E+00,-1.633517E-02,0.000000E+00,-1.811897E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay PEH 819kW/8.11COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_823kW_6_28COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 823kW/6.28COP/Vanes,  !- Name
    822900,                  !- Reference Capacity {W}
    6.28,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    28.70,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03186,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04744,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 823kW/6.28COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 823kW/6.28COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 823kW/6.28COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 28.70	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-822900	Reference capacity (negative number) [W]
Real	COP_nominal	6.28	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03186	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04744	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{3.746558E-01,8.556337E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{9.280652E-01,3.277907E-02,7...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.057586E-01,1.472161E-02,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.99	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 29.36	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_823kW_6_28COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -822900,
    COP_nominal =         6.28,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.03186,
    mCon_flow_nominal =   1000 * 0.04744,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 28.70,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 17.99,
    TConLvgMax =          273.15 + 29.36,
    capFunT =             {3.746558E-01,8.556337E-02,-3.020882E-03,3.745436E-02,-9.995050E-04,-4.477637E-05},
    EIRFunT =             {9.280652E-01,3.277907E-02,7.583449E-04,-2.536152E-02,1.204136E-03,-2.475422E-03},
    EIRFunPLR =           {1.057586E-01,1.472161E-02,-5.875508E-05,6.780787E-01,-6.310911E-02,-1.207949E-02,0.000000E+00,2.498837E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 823kW/6.28COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_869kW_5_57COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 869kW/5.57COP/VSD,  !- Name
    868600,                  !- Reference Capacity {W}
    5.57,                    !- Reference COP {W/W}
    8.89,                    !- Reference Leaving Chilled Water Temperature {C}
    36.12,                   !- Reference Leaving Condenser Water Temperature {C}
    0.01754,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.02593,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 869kW/5.57COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 869kW/5.57COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 869kW/5.57COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.18,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.18,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.18	Minimum part unload ratio
Real	PLRMin	0.18	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 36.12	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-868600	Reference capacity (negative number) [W]
Real	COP_nominal	5.57	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.01754	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.02593	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 8.89	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{5.989856E-01,1.069929E-01,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{5.173193E-01,7.303695E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.317677E-01,-7.501960E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 22.63	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 36.94	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_869kW_5_57COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -868600,
    COP_nominal =         5.57,
    PLRMin =              0.18,
    PLRMinUnl =           0.18,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.01754,
    mCon_flow_nominal =   1000 * 0.02593,
    TEvaLvg_nominal =     273.15 + 8.89,
    TConLvg_nominal =     273.15 + 36.12,
    TEvaLvgMin =          273.15 + 7.22,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 22.63,
    TConLvgMax =          273.15 + 36.94,
    capFunT =             {5.989856E-01,1.069929E-01,-8.442248E-03,-1.622083E-03,-4.384385E-04,2.372388E-03},
    EIRFunT =             {5.173193E-01,7.303695E-02,-7.486318E-03,-2.613352E-03,1.000039E-04,1.264598E-03},
    EIRFunPLR =           {1.317677E-01,-7.501960E-03,5.073000E-06,8.550743E-01,-6.215987E-01,7.267902E-03,0.000000E+00,6.373549E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 869kW/5.57COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_897kW_7_23COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 897kW/7.23COP/VSD,  !- Name
    896700,                  !- Reference Capacity {W}
    7.23,                    !- Reference COP {W/W}
    9.82,                    !- Reference Leaving Chilled Water Temperature {C}
    29.49,                   !- Reference Leaving Condenser Water Temperature {C}
    0.06782,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.0436,                  !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 897kW/7.23COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 897kW/7.23COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 897kW/7.23COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.20,                    !- Minimum Part Load Ratio
    1.04,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.20,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.04	Maximum part load ratio
Real	PLRMinUnl	0.20	Minimum part unload ratio
Real	PLRMin	0.20	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.49	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-896700	Reference capacity (negative number) [W]
Real	COP_nominal	7.23	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.06782	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.0436	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 9.82	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{5.211989E-01,7.968670E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{6.970381E-01,5.701647E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{7.280764E-01,-5.949776E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.72	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 30.41	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_897kW_7_23COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -896700,
    COP_nominal =         7.23,
    PLRMin =              0.20,
    PLRMinUnl =           0.20,
    PLRMax =              1.04,
    mEva_flow_nominal =   1000 * 0.06782,
    mCon_flow_nominal =   1000 * 0.0436,
    TEvaLvg_nominal =     273.15 + 9.82,
    TConLvg_nominal =     273.15 + 29.49,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 18.72,
    TConLvgMax =          273.15 + 30.41,
    capFunT =             {5.211989E-01,7.968670E-02,-1.488365E-03,1.974850E-02,-4.643458E-04,-7.786719E-04},
    EIRFunT =             {6.970381E-01,5.701647E-02,-2.272629E-04,8.496805E-03,4.752264E-04,-2.759799E-03},
    EIRFunPLR =           {7.280764E-01,-5.949776E-02,3.161338E-05,8.871893E-01,-1.081399E+00,5.804626E-02,0.000000E+00,4.825053E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 897kW/7.23COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_897kW_6_50COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 897kW/6.50COP/Vanes,  !- Name
    896700,                  !- Reference Capacity {W}
    6.50,                    !- Reference COP {W/W}
    9.82,                    !- Reference Leaving Chilled Water Temperature {C}
    29.49,                   !- Reference Leaving Condenser Water Temperature {C}
    0.06782,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04423,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 897kW/6.50COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 897kW/6.50COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 897kW/6.50COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.20,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.20,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.20	Minimum part unload ratio
Real	PLRMin	0.20	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.49	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-896700	Reference capacity (negative number) [W]
Real	COP_nominal	6.50	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.06782	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04423	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 9.82	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{5.761951E-01,5.897243E-03,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{9.192535E-01,9.218992E-03,1...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-5.497250E-01,5.035076E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.06	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 29.67	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_897kW_6_50COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -896700,
    COP_nominal =         6.50,
    PLRMin =              0.20,
    PLRMinUnl =           0.20,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.06782,
    mCon_flow_nominal =   1000 * 0.04423,
    TEvaLvg_nominal =     273.15 + 9.82,
    TConLvg_nominal =     273.15 + 29.49,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 18.06,
    TConLvgMax =          273.15 + 29.67,
    capFunT =             {5.761951E-01,5.897243E-03,-8.764033E-04,3.207348E-02,-1.225175E-03,2.019768E-03},
    EIRFunT =             {9.192535E-01,9.218992E-03,1.241236E-03,-1.554079E-02,1.074639E-03,-2.071288E-03},
    EIRFunPLR =           {-5.497250E-01,5.035076E-02,-1.927855E-05,1.678371E+00,-1.535993E+00,-4.944902E-02,0.000000E+00,1.396972E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 897kW/6.50COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_897kW_7_60COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 897kW/7.60COP/VSD,  !- Name
    896700,                  !- Reference Capacity {W}
    7.60,                    !- Reference COP {W/W}
    9.83,                    !- Reference Leaving Chilled Water Temperature {C}
    27.50,                   !- Reference Leaving Condenser Water Temperature {C}
    0.06782,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05142,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 897kW/7.60COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 897kW/7.60COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 897kW/7.60COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 27.50	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-896700	Reference capacity (negative number) [W]
Real	COP_nominal	7.60	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.06782	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05142	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 9.83	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{3.548168E-01,3.801839E-03,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{4.207123E-01,5.394605E-05,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-1.019329E+00,8.590218E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.28	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 28.76	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_897kW_7_60COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -896700,
    COP_nominal =         7.60,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.06782,
    mCon_flow_nominal =   1000 * 0.05142,
    TEvaLvg_nominal =     273.15 + 9.83,
    TConLvg_nominal =     273.15 + 27.50,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 17.28,
    TConLvgMax =          273.15 + 28.76,
    capFunT =             {3.548168E-01,3.801839E-03,-2.081058E-03,5.549806E-02,-2.238902E-03,3.723197E-03},
    EIRFunT =             {4.207123E-01,5.394605E-05,-3.910848E-04,4.180526E-02,-1.982304E-04,-1.128927E-03},
    EIRFunPLR =           {-1.019329E+00,8.590218E-02,-1.293139E-04,7.442374E-01,2.883061E-02,-8.027926E-02,0.000000E+00,1.185988E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 897kW/7.60COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_897kW_6_27COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 897kW/6.27COP/VSD,  !- Name
    896700,                  !- Reference Capacity {W}
    6.27,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    27.61,                   !- Reference Leaving Condenser Water Temperature {C}
    0.06782,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05142,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 897kW/6.27COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 897kW/6.27COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 897kW/6.27COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 27.61	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-896700	Reference capacity (negative number) [W]
Real	COP_nominal	6.27	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.06782	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05142	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-1.279200E-01,1.653602E-01,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{3.276702E-01,-7.003986E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-3.773762E-02,1.134114E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.59	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 29.04	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_897kW_6_27COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -896700,
    COP_nominal =         6.27,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.06782,
    mCon_flow_nominal =   1000 * 0.05142,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 27.61,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 17.59,
    TConLvgMax =          273.15 + 29.04,
    capFunT =             {-1.279200E-01,1.653602E-01,-4.202474E-03,4.807512E-02,-9.553549E-04,-2.146733E-03},
    EIRFunT =             {3.276702E-01,-7.003986E-02,5.261779E-03,7.021494E-02,-7.368698E-04,-2.109336E-03},
    EIRFunPLR =           {-3.773762E-02,1.134114E-02,-2.659425E-05,2.639446E-01,4.805824E-01,-1.117502E-02,0.000000E+00,3.000515E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 897kW/6.27COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_897kW_6_23COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 897kW/6.23COP/VSD,  !- Name
    896700,                  !- Reference Capacity {W}
    6.23,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    29.49,                   !- Reference Leaving Condenser Water Temperature {C}
    0.06782,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04442,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 897kW/6.23COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 897kW/6.23COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 897kW/6.23COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.20,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.20,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.20	Minimum part unload ratio
Real	PLRMin	0.20	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.49	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-896700	Reference capacity (negative number) [W]
Real	COP_nominal	6.23	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.06782	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04442	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{8.691024E-01,2.885812E-02,1...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{8.640049E-01,5.766109E-03,1...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{9.617997E-01,-8.158350E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.61	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 30.29	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_897kW_6_23COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -896700,
    COP_nominal =         6.23,
    PLRMin =              0.20,
    PLRMinUnl =           0.20,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.06782,
    mCon_flow_nominal =   1000 * 0.04442,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 29.49,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 18.61,
    TConLvgMax =          273.15 + 30.29,
    capFunT =             {8.691024E-01,2.885812E-02,1.795420E-04,4.868722E-03,-3.207870E-04,3.825044E-04},
    EIRFunT =             {8.640049E-01,5.766109E-03,1.197122E-03,-2.312809E-03,4.642915E-04,-1.375629E-03},
    EIRFunPLR =           {9.617997E-01,-8.158350E-02,-5.841564E-06,1.169179E+00,-1.600491E+00,8.176055E-02,0.000000E+00,4.684331E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 897kW/6.23COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_PFH_932kW_5_09COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay PFH 932kW/5.09COP/Vanes,  !- Name
    931900,                  !- Reference Capacity {W}
    5.09,                    !- Reference COP {W/W}
    4.44,                    !- Reference Leaving Chilled Water Temperature {C}
    31.75,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03785,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04732,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay PFH 932kW/5.09COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay PFH 932kW/5.09COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay PFH 932kW/5.09COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.09,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.09,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.09	Minimum part unload ratio
Real	PLRMin	0.09	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.75	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-931900	Reference capacity (negative number) [W]
Real	COP_nominal	5.09	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03785	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04732	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 4.44	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.021236E+00,-1.680220E-03,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{4.854031E-01,-1.891596E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{7.391619E-03,9.094277E-03,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 3.33	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 7.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.66	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 35.59	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_PFH_932kW_5_09COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -931900,
    COP_nominal =         5.09,
    PLRMin =              0.09,
    PLRMinUnl =           0.09,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.03785,
    mCon_flow_nominal =   1000 * 0.04732,
    TEvaLvg_nominal =     273.15 + 4.44,
    TConLvg_nominal =     273.15 + 31.75,
    TEvaLvgMin =          273.15 + 3.33,
    TEvaLvgMax =          273.15 + 7.78,
    TConLvgMin =          273.15 + 19.66,
    TConLvgMax =          273.15 + 35.59,
    capFunT =             {1.021236E+00,-1.680220E-03,-5.223075E-03,2.922245E-02,-1.418909E-03,4.211341E-03},
    EIRFunT =             {4.854031E-01,-1.891596E-02,-1.236212E-03,1.975021E-02,-1.031869E-04,6.964845E-04},
    EIRFunPLR =           {7.391619E-03,9.094277E-03,-7.116487E-06,1.699487E-01,1.518580E+00,-8.713759E-03,0.000000E+00,-7.007499E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay PFH 932kW/5.09COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_960kW_4_64COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 960kW/4.64COP/Vanes,  !- Name
    960000,                  !- Reference Capacity {W}
    4.64,                    !- Reference COP {W/W}
    4.44,                    !- Reference Leaving Chilled Water Temperature {C}
    32.01,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03785,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04732,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 960kW/4.64COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 960kW/4.64COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 960kW/4.64COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.09,                    !- Minimum Part Load Ratio
    1.1,                     !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.09,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.1	Maximum part load ratio
Real	PLRMinUnl	0.09	Minimum part unload ratio
Real	PLRMin	0.09	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 32.01	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-960000	Reference capacity (negative number) [W]
Real	COP_nominal	4.64	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03785	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04732	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 4.44	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-3.474613E-01,4.071500E-01,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{6.522319E-01,-1.649356E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{3.303041E-01,-1.499923E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 3.33	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 7.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.04	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 35.78	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_960kW_4_64COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -960000,
    COP_nominal =         4.64,
    PLRMin =              0.09,
    PLRMinUnl =           0.09,
    PLRMax =              1.1,
    mEva_flow_nominal =   1000 * 0.03785,
    mCon_flow_nominal =   1000 * 0.04732,
    TEvaLvg_nominal =     273.15 + 4.44,
    TConLvg_nominal =     273.15 + 32.01,
    TEvaLvgMin =          273.15 + 3.33,
    TEvaLvgMax =          273.15 + 7.78,
    TConLvgMin =          273.15 + 17.04,
    TConLvgMax =          273.15 + 35.78,
    capFunT =             {-3.474613E-01,4.071500E-01,-3.270717E-02,1.187286E-02,-3.117876E-04,5.854731E-04},
    EIRFunT =             {6.522319E-01,-1.649356E-02,2.777675E-04,3.580800E-03,3.253181E-04,-2.452307E-04},
    EIRFunPLR =           {3.303041E-01,-1.499923E-03,4.911711E-06,3.166646E-01,4.011833E-01,1.242191E-03,0.000000E+00,-4.559734E-02,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 960kW/4.64COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1023kW_5_81COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1023kW/5.81COP/Vanes,  !- Name
    1023300,                 !- Reference Capacity {W}
    5.81,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    35.51,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02366,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04732,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1023kW/5.81COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1023kW/5.81COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1023kW/5.81COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.09,                    !- Minimum Part Load Ratio
    1.06,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.09,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.06	Maximum part load ratio
Real	PLRMinUnl	0.09	Minimum part unload ratio
Real	PLRMin	0.09	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 35.51	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1023300	Reference capacity (negative number) [W]
Real	COP_nominal	5.81	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02366	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04732	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-3.395788E-01,-3.084319E-02...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{6.129429E-01,-1.403780E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.511511E-01,8.555669E-03,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.34	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 40.55	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1023kW_5_81COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1023300,
    COP_nominal =         5.81,
    PLRMin =              0.09,
    PLRMinUnl =           0.09,
    PLRMax =              1.06,
    mEva_flow_nominal =   1000 * 0.02366,
    mCon_flow_nominal =   1000 * 0.04732,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 35.51,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 18.34,
    TConLvgMax =          273.15 + 40.55,
    capFunT =             {-3.395788E-01,-3.084319E-02,-5.520572E-03,1.112148E-01,-2.662980E-03,5.099892E-03},
    EIRFunT =             {6.129429E-01,-1.403780E-02,1.331529E-03,-2.182097E-04,5.502817E-04,-1.092920E-03},
    EIRFunPLR =           {2.511511E-01,8.555669E-03,-3.399815E-05,-2.271964E-01,1.450679E+00,-6.729414E-03,0.000000E+00,-4.981512E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1023kW/5.81COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_PEH_1030kW_8_58COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay PEH 1030kW/8.58COP/Vanes,  !- Name
    1030300,                 !- Reference Capacity {W}
    8.58,                    !- Reference COP {W/W}
    6.11,                    !- Reference Leaving Chilled Water Temperature {C}
    20.86,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02378,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.03407,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay PEH 1030kW/8.58COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 1030kW/8.58COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 1030kW/8.58COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.08,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.08,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.08	Minimum part unload ratio
Real	PLRMin	0.08	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 20.86	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1030300	Reference capacity (negative number) [W]
Real	COP_nominal	8.58	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02378	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.03407	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.11	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{6.367679E-01,2.637864E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{5.347930E-01,-1.901560E-03,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{3.869427E-01,-1.316341E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.11	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 20.86	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 32.69	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_PEH_1030kW_8_58COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1030300,
    COP_nominal =         8.58,
    PLRMin =              0.08,
    PLRMinUnl =           0.08,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.02378,
    mCon_flow_nominal =   1000 * 0.03407,
    TEvaLvg_nominal =     273.15 + 6.11,
    TConLvg_nominal =     273.15 + 20.86,
    TEvaLvgMin =          273.15 + 6.11,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 20.86,
    TConLvgMax =          273.15 + 32.69,
    capFunT =             {6.367679E-01,2.637864E-02,-4.503997E-03,2.614644E-02,-1.509627E-03,3.809305E-03},
    EIRFunT =             {5.347930E-01,-1.901560E-03,-1.999168E-03,2.601989E-02,-1.174414E-04,4.209479E-04},
    EIRFunPLR =           {3.869427E-01,-1.316341E-03,4.231383E-05,-9.777673E-02,8.539824E-01,-7.526877E-04,0.000000E+00,-1.180591E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay PEH 1030kW/8.58COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1048kW_6_06COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1048kW/6.06COP/Vanes,  !- Name
    1047900,                 !- Reference Capacity {W}
    6.06,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    34.59,                   !- Reference Leaving Condenser Water Temperature {C}
    0.04542,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05678,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1048kW/6.06COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1048kW/6.06COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1048kW/6.06COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.06,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.06	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 34.59	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1047900	Reference capacity (negative number) [W]
Real	COP_nominal	6.06	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.04542	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05678	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{5.846663E-01,1.059863E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{7.745270E-01,-3.256346E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{5.753623E-01,-1.409335E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 20.43	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 39.72	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1048kW_6_06COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1047900,
    COP_nominal =         6.06,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.06,
    mEva_flow_nominal =   1000 * 0.04542,
    mCon_flow_nominal =   1000 * 0.05678,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 34.59,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 20.43,
    TConLvgMax =          273.15 + 39.72,
    capFunT =             {5.846663E-01,1.059863E-02,-5.058695E-03,3.006085E-02,-9.364366E-04,2.597223E-03},
    EIRFunT =             {7.745270E-01,-3.256346E-02,2.992117E-03,-5.274460E-03,6.701377E-04,-1.236258E-03},
    EIRFunPLR =           {5.753623E-01,-1.409335E-02,-5.983885E-06,6.063425E-01,-3.090569E-01,1.412467E-02,0.000000E+00,1.296066E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1048kW/6.06COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1055kW_5_96COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1055kW/5.96COP/Vanes,  !- Name
    1055000,                 !- Reference Capacity {W}
    5.96,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    34.63,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02839,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05678,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1055kW/5.96COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1055kW/5.96COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1055kW/5.96COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.06,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.06	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 34.63	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1055000	Reference capacity (negative number) [W]
Real	COP_nominal	5.96	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02839	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05678	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-2.707500E-01,-6.904583E-02...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{5.864611E-01,-1.981483E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.585491E-01,8.250769E-03,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.24	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 39.89	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1055kW_5_96COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1055000,
    COP_nominal =         5.96,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.06,
    mEva_flow_nominal =   1000 * 0.02839,
    mCon_flow_nominal =   1000 * 0.05678,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 34.63,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 17.24,
    TConLvgMax =          273.15 + 39.89,
    capFunT =             {-2.707500E-01,-6.904583E-02,-2.862217E-03,1.116660E-01,-2.741006E-03,5.573759E-03},
    EIRFunT =             {5.864611E-01,-1.981483E-02,1.189656E-03,4.468905E-03,4.366968E-04,-7.679079E-04},
    EIRFunPLR =           {2.585491E-01,8.250769E-03,-3.231494E-05,-8.921620E-02,1.025668E+00,-6.495267E-03,0.000000E+00,-2.179388E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1055kW/5.96COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1076kW_5_52COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1076kW/5.52COP/Vanes,  !- Name
    1076100,                 !- Reference Capacity {W}
    5.52,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    31.30,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03186,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04744,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1076kW/5.52COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1076kW/5.52COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1076kW/5.52COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.30	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1076100	Reference capacity (negative number) [W]
Real	COP_nominal	5.52	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03186	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04744	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{8.850533E-01,2.837149E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{7.658820E-01,1.245831E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-4.774361E-01,5.162751E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.50	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 32.15	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1076kW_5_52COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1076100,
    COP_nominal =         5.52,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.03186,
    mCon_flow_nominal =   1000 * 0.04744,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 31.30,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 19.50,
    TConLvgMax =          273.15 + 32.15,
    capFunT =             {8.850533E-01,2.837149E-02,-5.511387E-03,8.194635E-03,-6.603948E-04,2.956238E-03},
    EIRFunT =             {7.658820E-01,1.245831E-02,-4.811737E-03,-2.449180E-03,1.633990E-04,1.270390E-03},
    EIRFunPLR =           {-4.774361E-01,5.162751E-02,-5.614109E-05,-2.035828E-01,1.353459E+00,-4.892949E-02,0.000000E+00,2.956492E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1076kW/5.52COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Trane_CVHE_1080kW_7_39COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Trane CVHE 1080kW/7.39COP/Vanes,  !- Name
    1079600,                 !- Reference Capacity {W}
    7.39,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    28.18,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03186,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.06416,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Trane CVHE 1080kW/7.39COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1080kW/7.39COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1080kW/7.39COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.20,                    !- Minimum Part Load Ratio
    1.04,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.20,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.04	Maximum part load ratio
Real	PLRMinUnl	0.20	Minimum part unload ratio
Real	PLRMin	0.20	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 28.18	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1079600	Reference capacity (negative number) [W]
Real	COP_nominal	7.39	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03186	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.06416	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.621590E-01,-5.637755E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{2.583099E-01,-5.295487E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-2.528901E-01,5.293978E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 20.34	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 28.77	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Trane_CVHE_1080kW_7_39COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1079600,
    COP_nominal =         7.39,
    PLRMin =              0.20,
    PLRMinUnl =           0.20,
    PLRMax =              1.04,
    mEva_flow_nominal =   1000 * 0.03186,
    mCon_flow_nominal =   1000 * 0.06416,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 28.18,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 20.34,
    TConLvgMax =          273.15 + 28.77,
    capFunT =             {1.621590E-01,-5.637755E-02,-2.763571E-03,7.658390E-02,-2.167501E-03,4.940163E-03},
    EIRFunT =             {2.583099E-01,-5.295487E-02,5.742775E-05,3.724845E-02,-1.705687E-04,7.265593E-04},
    EIRFunPLR =           {-2.528901E-01,5.293978E-02,-1.671838E-05,-7.241218E-02,1.197879E+00,-5.205361E-02,0.000000E+00,1.156312E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Trane CVHE 1080kW/7.39COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1090kW_7_57COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1090kW/7.57COP/VSD,  !- Name
    1090100,                 !- Reference Capacity {W}
    7.57,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    28.52,                   !- Reference Leaving Condenser Water Temperature {C}
    0.06782,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05142,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1090kW/7.57COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1090kW/7.57COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1090kW/7.57COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.14,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.14,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.14	Minimum part unload ratio
Real	PLRMin	0.14	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 28.52	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1090100	Reference capacity (negative number) [W]
Real	COP_nominal	7.57	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.06782	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05142	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{5.432784E-01,4.854908E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{8.635874E-01,-6.482460E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-1.594094E+00,1.294337E-01,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.00	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 30.79	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1090kW_7_57COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1090100,
    COP_nominal =         7.57,
    PLRMin =              0.14,
    PLRMinUnl =           0.14,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.06782,
    mCon_flow_nominal =   1000 * 0.05142,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 28.52,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 19.00,
    TConLvgMax =          273.15 + 30.79,
    capFunT =             {5.432784E-01,4.854908E-02,-8.778732E-04,2.814444E-02,-9.314140E-04,8.240584E-04},
    EIRFunT =             {8.635874E-01,-6.482460E-02,-2.524813E-04,2.842929E-02,-4.007377E-04,1.830138E-03},
    EIRFunPLR =           {-1.594094E+00,1.294337E-01,-2.100100E-04,1.659018E+00,-2.605622E+00,-1.199783E-01,0.000000E+00,3.435191E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1090kW/7.57COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_PEH_1104kW_8_00COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay PEH 1104kW/8.00COP/Vanes,  !- Name
    1104200,                 !- Reference Capacity {W}
    8.00,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    22.59,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02423,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.03028,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay PEH 1104kW/8.00COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 1104kW/8.00COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 1104kW/8.00COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.08,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.08,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.08	Minimum part unload ratio
Real	PLRMin	0.08	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 22.59	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1104200	Reference capacity (negative number) [W]
Real	COP_nominal	8.00	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02423	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.03028	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{7.757836E-01,1.723720E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{7.355874E-01,-1.291195E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.216357E-01,6.972382E-03,5...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.67	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.22	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 22.59	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 34.29	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_PEH_1104kW_8_00COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1104200,
    COP_nominal =         8.00,
    PLRMin =              0.08,
    PLRMinUnl =           0.08,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.02423,
    mCon_flow_nominal =   1000 * 0.03028,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 22.59,
    TEvaLvgMin =          273.15 + 6.67,
    TEvaLvgMax =          273.15 + 12.22,
    TConLvgMin =          273.15 + 22.59,
    TConLvgMax =          273.15 + 34.29,
    capFunT =             {7.757836E-01,1.723720E-02,-2.761789E-03,1.560171E-02,-1.133168E-03,3.042701E-03},
    EIRFunT =             {7.355874E-01,-1.291195E-02,-1.168928E-03,1.454443E-02,-4.975714E-06,4.941841E-04},
    EIRFunPLR =           {2.216357E-01,6.972382E-03,5.022616E-05,-3.939145E-02,9.582611E-01,-9.691500E-03,0.000000E+00,-1.039758E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay PEH 1104kW/8.00COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Trane_CVHE_1125kW_4_89COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Trane CVHE 1125kW/4.89COP/Vanes,  !- Name
    1125300,                 !- Reference Capacity {W}
    4.89,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    36.27,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02776,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.02618,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Trane CVHE 1125kW/4.89COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1125kW/4.89COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1125kW/4.89COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.01,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.01	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 36.27	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1125300	Reference capacity (negative number) [W]
Real	COP_nominal	4.89	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02776	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.02618	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{3.738655E-01,-1.966419E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{4.744658E-01,-3.998991E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{3.526188E-01,-2.052741E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 26.10	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 36.56	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Trane_CVHE_1125kW_4_89COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1125300,
    COP_nominal =         4.89,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.01,
    mEva_flow_nominal =   1000 * 0.02776,
    mCon_flow_nominal =   1000 * 0.02618,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 36.27,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 26.10,
    TConLvgMax =          273.15 + 36.56,
    capFunT =             {3.738655E-01,-1.966419E-02,-1.212112E-03,3.549468E-02,-5.800042E-04,1.250514E-03},
    EIRFunT =             {4.744658E-01,-3.998991E-02,-8.170569E-05,1.686296E-02,8.315397E-05,1.607491E-04},
    EIRFunPLR =           {3.526188E-01,-2.052741E-03,5.127782E-06,-3.558764E-01,1.168571E+00,1.752891E-03,0.000000E+00,-1.609826E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Trane CVHE 1125kW/4.89COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1125kW_7_92COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1125kW/7.92COP/VSD,  !- Name
    1125300,                 !- Reference Capacity {W}
    7.92,                    !- Reference COP {W/W}
    6.11,                    !- Reference Leaving Chilled Water Temperature {C}
    18.64,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03243,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05173,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1125kW/7.92COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1125kW/7.92COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1125kW/7.92COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.09,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.09,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.09	Minimum part unload ratio
Real	PLRMin	0.09	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 18.64	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1125300	Reference capacity (negative number) [W]
Real	COP_nominal	7.92	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03243	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05173	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.11	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-1.825851E-01,-1.890742E-02...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{6.772525E-01,-1.573620E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{3.110875E-01,-5.972965E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.11	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.64	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 31.75	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1125kW_7_92COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1125300,
    COP_nominal =         7.92,
    PLRMin =              0.09,
    PLRMinUnl =           0.09,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.03243,
    mCon_flow_nominal =   1000 * 0.05173,
    TEvaLvg_nominal =     273.15 + 6.11,
    TConLvg_nominal =     273.15 + 18.64,
    TEvaLvgMin =          273.15 + 6.11,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 18.64,
    TConLvgMax =          273.15 + 31.75,
    capFunT =             {-1.825851E-01,-1.890742E-02,-1.452495E-03,9.494132E-02,-2.160634E-03,2.833148E-03},
    EIRFunT =             {6.772525E-01,-1.573620E-02,1.805356E-03,2.061048E-02,5.587604E-04,-2.014421E-03},
    EIRFunPLR =           {3.110875E-01,-5.972965E-03,-8.888194E-05,-5.317766E-01,1.932563E+00,1.040312E-02,0.000000E+00,-7.660775E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1125kW/7.92COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Trane_CVHE_1129kW_7_19COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Trane CVHE 1129kW/7.19COP/Vanes,  !- Name
    1128800,                 !- Reference Capacity {W}
    7.19,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    29.87,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02776,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05142,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Trane CVHE 1129kW/7.19COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1129kW/7.19COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1129kW/7.19COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.15,                    !- Minimum Part Load Ratio
    1.05,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.15,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.05	Maximum part load ratio
Real	PLRMinUnl	0.15	Minimum part unload ratio
Real	PLRMin	0.15	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.87	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1128800	Reference capacity (negative number) [W]
Real	COP_nominal	7.19	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02776	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05142	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{4.234935E-02,-6.711406E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{2.480712E-01,-5.163331E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.681887E-01,-1.329414E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 20.75	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 30.64	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Trane_CVHE_1129kW_7_19COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1128800,
    COP_nominal =         7.19,
    PLRMin =              0.15,
    PLRMinUnl =           0.15,
    PLRMax =              1.05,
    mEva_flow_nominal =   1000 * 0.02776,
    mCon_flow_nominal =   1000 * 0.05142,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 29.87,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 20.75,
    TConLvgMax =          273.15 + 30.64,
    capFunT =             {4.234935E-02,-6.711406E-02,-2.677761E-03,8.534835E-02,-2.240897E-03,5.028453E-03},
    EIRFunT =             {2.480712E-01,-5.163331E-02,-3.517164E-04,3.943482E-02,-3.224045E-04,9.124398E-04},
    EIRFunPLR =           {2.681887E-01,-1.329414E-03,-1.542108E-05,5.321500E-01,-2.230911E-01,2.236942E-03,0.000000E+00,4.101272E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Trane CVHE 1129kW/7.19COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1143kW_6_57COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1143kW/6.57COP/VSD,  !- Name
    1142900,                 !- Reference Capacity {W}
    6.57,                    !- Reference COP {W/W}
    10.00,                   !- Reference Leaving Chilled Water Temperature {C}
    32.79,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02593,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05142,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1143kW/6.57COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1143kW/6.57COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1143kW/6.57COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.20,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.20,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.20	Minimum part unload ratio
Real	PLRMin	0.20	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 32.79	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1142900	Reference capacity (negative number) [W]
Real	COP_nominal	6.57	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02593	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05142	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 10.00	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{7.863855E-01,3.259744E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{9.612126E-01,-1.211702E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-1.922490E-02,1.026695E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.02	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 33.61	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1143kW_6_57COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1142900,
    COP_nominal =         6.57,
    PLRMin =              0.20,
    PLRMinUnl =           0.20,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.02593,
    mCon_flow_nominal =   1000 * 0.05142,
    TEvaLvg_nominal =     273.15 + 10.00,
    TConLvg_nominal =     273.15 + 32.79,
    TEvaLvgMin =          273.15 + 7.22,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 19.02,
    TConLvgMax =          273.15 + 33.61,
    capFunT =             {7.863855E-01,3.259744E-02,-1.927704E-03,4.333411E-03,-6.022390E-04,1.809424E-03},
    EIRFunT =             {9.612126E-01,-1.211702E-02,1.782802E-04,-2.807827E-03,2.421828E-04,1.165934E-05},
    EIRFunPLR =           {-1.922490E-02,1.026695E-02,-3.079249E-05,1.432686E-01,4.844691E-01,-8.952298E-03,0.000000E+00,3.774796E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1143kW/6.57COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1157kW_5_62COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1157kW/5.62COP/VSD,  !- Name
    1156900,                 !- Reference Capacity {W}
    5.62,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    31.34,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02801,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.03186,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1157kW/5.62COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1157kW/5.62COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1157kW/5.62COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.19,                    !- Minimum Part Load Ratio
    1.01,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.19,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.01	Maximum part load ratio
Real	PLRMinUnl	0.19	Minimum part unload ratio
Real	PLRMin	0.19	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.34	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1156900	Reference capacity (negative number) [W]
Real	COP_nominal	5.62	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02801	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.03186	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.095494E+00,-5.546137E-03,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.221566E+00,-2.771462E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.260949E-01,-1.619690E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 21.97	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 34.50	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1157kW_5_62COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1156900,
    COP_nominal =         5.62,
    PLRMin =              0.19,
    PLRMinUnl =           0.19,
    PLRMax =              1.01,
    mEva_flow_nominal =   1000 * 0.02801,
    mCon_flow_nominal =   1000 * 0.03186,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 31.34,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 21.97,
    TConLvgMax =          273.15 + 34.50,
    capFunT =             {1.095494E+00,-5.546137E-03,-5.186584E-04,1.420446E-03,-2.801603E-04,1.007864E-03},
    EIRFunT =             {1.221566E+00,-2.771462E-02,1.220059E-03,-2.228215E-02,7.578438E-04,-8.532836E-04},
    EIRFunPLR =           {2.260949E-01,-1.619690E-02,2.953765E-06,4.956395E-01,1.180777E-01,1.582337E-02,0.000000E+00,1.675772E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1157kW/5.62COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1196kW_6_50COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1196kW/6.50COP/Vanes,  !- Name
    1195600,                 !- Reference Capacity {W}
    6.50,                    !- Reference COP {W/W}
    7.22,                    !- Reference Leaving Chilled Water Temperature {C}
    31.65,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03426,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04252,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1196kW/6.50COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1196kW/6.50COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1196kW/6.50COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.20,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.20,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.20	Minimum part unload ratio
Real	PLRMin	0.20	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.65	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1195600	Reference capacity (negative number) [W]
Real	COP_nominal	6.50	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03426	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04252	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 7.22	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.006647E+00,-3.596242E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.001094E+00,-1.641469E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.659565E-01,2.824668E-03,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.67	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.22	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 21.72	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 33.03	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1196kW_6_50COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1195600,
    COP_nominal =         6.50,
    PLRMin =              0.20,
    PLRMinUnl =           0.20,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.03426,
    mCon_flow_nominal =   1000 * 0.04252,
    TEvaLvg_nominal =     273.15 + 7.22,
    TConLvg_nominal =     273.15 + 31.65,
    TEvaLvgMin =          273.15 + 6.67,
    TEvaLvgMax =          273.15 + 12.22,
    TConLvgMin =          273.15 + 21.72,
    TConLvgMax =          273.15 + 33.03,
    capFunT =             {1.006647E+00,-3.596242E-02,-2.549306E-03,2.690324E-02,-1.255051E-03,3.669880E-03},
    EIRFunT =             {1.001094E+00,-1.641469E-02,3.314844E-04,-1.095655E-02,5.687863E-04,-4.694134E-04},
    EIRFunPLR =           {1.659565E-01,2.824668E-03,-4.941235E-05,9.544016E-01,-7.843794E-01,-1.991887E-04,0.000000E+00,6.294448E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1196kW/6.50COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1213kW_7_78COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1213kW/7.78COP/Vanes,  !- Name
    1213200,                 !- Reference Capacity {W}
    7.78,                    !- Reference COP {W/W}
    6.11,                    !- Reference Leaving Chilled Water Temperature {C}
    19.63,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03243,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04782,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1213kW/7.78COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1213kW/7.78COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1213kW/7.78COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.17,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.17,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.17	Minimum part unload ratio
Real	PLRMin	0.17	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 19.63	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1213200	Reference capacity (negative number) [W]
Real	COP_nominal	7.78	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03243	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04782	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.11	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{7.578317E-01,-2.467497E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.009816E+00,-1.640134E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.257912E-01,3.697616E-03,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.11	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.63	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 30.97	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1213kW_7_78COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1213200,
    COP_nominal =         7.78,
    PLRMin =              0.17,
    PLRMinUnl =           0.17,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.03243,
    mCon_flow_nominal =   1000 * 0.04782,
    TEvaLvg_nominal =     273.15 + 6.11,
    TConLvg_nominal =     273.15 + 19.63,
    TEvaLvgMin =          273.15 + 6.11,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 19.63,
    TConLvgMax =          273.15 + 30.97,
    capFunT =             {7.578317E-01,-2.467497E-02,-1.185171E-03,3.095499E-02,-1.160103E-03,2.330164E-03},
    EIRFunT =             {1.009816E+00,-1.640134E-02,7.295439E-04,-5.050832E-03,6.901476E-04,-9.104064E-04},
    EIRFunPLR =           {2.257912E-01,3.697616E-03,-2.645195E-05,7.936322E-01,-4.424994E-01,-2.424456E-03,0.000000E+00,4.078706E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1213kW/7.78COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_PEH_1231kW_6_18COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay PEH 1231kW/6.18COP/Vanes,  !- Name
    1230800,                 !- Reference Capacity {W}
    6.18,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    29.47,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03533,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.0511,                  !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay PEH 1231kW/6.18COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 1231kW/6.18COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay PEH 1231kW/6.18COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.47	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1230800	Reference capacity (negative number) [W]
Real	COP_nominal	6.18	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03533	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.0511	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.253381E+00,8.875124E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{8.880010E-01,-9.202757E-03,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.651794E-01,-3.089335E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 20.98	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 31.25	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_PEH_1231kW_6_18COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1230800,
    COP_nominal =         6.18,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.03533,
    mCon_flow_nominal =   1000 * 0.0511,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 29.47,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 20.98,
    TConLvgMax =          273.15 + 31.25,
    capFunT =             {1.253381E+00,8.875124E-02,-8.323384E-03,-1.024474E-02,-6.751294E-04,2.456063E-03},
    EIRFunT =             {8.880010E-01,-9.202757E-03,-5.021594E-03,-9.074393E-03,2.554841E-04,2.313326E-03},
    EIRFunPLR =           {1.651794E-01,-3.089335E-03,2.301100E-04,1.104907E+00,-8.157905E-01,-8.477359E-03,0.000000E+00,6.893449E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay PEH 1231kW/6.18COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1234kW_5_39COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1234kW/5.39COP/VSD,  !- Name
    1234300,                 !- Reference Capacity {W}
    5.39,                    !- Reference COP {W/W}
    8.89,                    !- Reference Leaving Chilled Water Temperature {C}
    35.73,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02593,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.03861,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1234kW/5.39COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1234kW/5.39COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1234kW/5.39COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.19,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.19,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.19	Minimum part unload ratio
Real	PLRMin	0.19	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 35.73	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1234300	Reference capacity (negative number) [W]
Real	COP_nominal	5.39	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02593	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.03861	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 8.89	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{6.134255E-01,1.092476E-01,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{4.746375E-01,9.120326E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.207212E-01,-9.914826E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 22.24	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 36.28	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1234kW_5_39COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1234300,
    COP_nominal =         5.39,
    PLRMin =              0.19,
    PLRMinUnl =           0.19,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.02593,
    mCon_flow_nominal =   1000 * 0.03861,
    TEvaLvg_nominal =     273.15 + 8.89,
    TConLvg_nominal =     273.15 + 35.73,
    TEvaLvgMin =          273.15 + 7.22,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 22.24,
    TConLvgMax =          273.15 + 36.28,
    capFunT =             {6.134255E-01,1.092476E-01,-7.352739E-03,-2.589985E-03,-3.793512E-04,1.839978E-03},
    EIRFunT =             {4.746375E-01,9.120326E-02,-7.295060E-03,-5.662273E-03,1.928027E-04,8.244779E-04},
    EIRFunPLR =           {1.207212E-01,-9.914826E-03,1.854918E-05,9.880331E-01,-8.955866E-01,8.894574E-03,0.000000E+00,8.005552E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1234kW/5.39COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1259kW_6_26COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1259kW/6.26COP/Vanes,  !- Name
    1258900,                 !- Reference Capacity {W}
    6.26,                    !- Reference COP {W/W}
    8.89,                    !- Reference Leaving Chilled Water Temperature {C}
    35.80,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02593,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.03823,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1259kW/6.26COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1259kW/6.26COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1259kW/6.26COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.18,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.18,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.18	Minimum part unload ratio
Real	PLRMin	0.18	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 35.80	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1258900	Reference capacity (negative number) [W]
Real	COP_nominal	6.26	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02593	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.03823	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 8.89	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.013444E+00,-3.162384E-03,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{7.661241E-01,1.157734E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{4.602131E-02,2.433945E-02,6...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 22.61	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 36.74	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1259kW_6_26COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1258900,
    COP_nominal =         6.26,
    PLRMin =              0.18,
    PLRMinUnl =           0.18,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.02593,
    mCon_flow_nominal =   1000 * 0.03823,
    TEvaLvg_nominal =     273.15 + 8.89,
    TConLvg_nominal =     273.15 + 35.80,
    TEvaLvgMin =          273.15 + 7.22,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 22.61,
    TConLvgMax =          273.15 + 36.74,
    capFunT =             {1.013444E+00,-3.162384E-03,-4.418949E-03,1.601141E-02,-1.029678E-03,3.508932E-03},
    EIRFunT =             {7.661241E-01,1.157734E-02,-8.937094E-04,-6.824770E-03,5.288283E-04,-7.378113E-04},
    EIRFunPLR =           {4.602131E-02,2.433945E-02,6.394526E-05,-3.648563E-01,1.854759E+00,-2.809346E-02,0.000000E+00,-4.821515E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1259kW/6.26COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YK_1259kW_6_45COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YK 1259kW/6.45COP/Vanes,  !- Name
    1258900,                 !- Reference Capacity {W}
    6.45,                    !- Reference COP {W/W}
    8.89,                    !- Reference Leaving Chilled Water Temperature {C}
    32.24,                   !- Reference Leaving Condenser Water Temperature {C}
    0.02631,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.06246,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YK 1259kW/6.45COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YK 1259kW/6.45COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YK 1259kW/6.45COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.18,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.18,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.18	Minimum part unload ratio
Real	PLRMin	0.18	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 32.24	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1258900	Reference capacity (negative number) [W]
Real	COP_nominal	6.45	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.02631	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.06246	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 8.89	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{7.917669E-01,7.718144E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.207755E+00,2.704147E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-3.830726E-01,3.222162E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.63	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 32.83	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YK_1259kW_6_45COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1258900,
    COP_nominal =         6.45,
    PLRMin =              0.18,
    PLRMinUnl =           0.18,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.02631,
    mCon_flow_nominal =   1000 * 0.06246,
    TEvaLvg_nominal =     273.15 + 8.89,
    TConLvg_nominal =     273.15 + 32.24,
    TEvaLvgMin =          273.15 + 7.22,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 19.63,
    TConLvgMax =          273.15 + 32.83,
    capFunT =             {7.917669E-01,7.718144E-02,-1.868147E-03,2.168367E-02,-9.454040E-04,-1.251512E-04},
    EIRFunT =             {1.207755E+00,2.704147E-02,-1.882949E-05,-5.234106E-02,1.851447E-03,-2.375891E-03},
    EIRFunPLR =           {-3.830726E-01,3.222162E-02,7.399276E-05,3.649000E-01,1.497231E+00,-3.597905E-02,0.000000E+00,-4.321713E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YK 1259kW/6.45COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1266kW_4_39COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1266kW/4.39COP/Vanes,  !- Name
    1266000,                 !- Reference Capacity {W}
    4.39,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    41.44,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03533,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05773,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1266kW/4.39COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1266kW/4.39COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1266kW/4.39COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.11,                    !- Minimum Part Load Ratio
    1.05,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.11,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.05	Maximum part load ratio
Real	PLRMinUnl	0.11	Minimum part unload ratio
Real	PLRMin	0.11	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 41.44	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1266000	Reference capacity (negative number) [W]
Real	COP_nominal	4.39	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03533	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05773	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.556501E-03,-4.410896E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.265473E-01,5.028662E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.253346E+00,-3.406609E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.28	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 42.31	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1266kW_4_39COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1266000,
    COP_nominal =         4.39,
    PLRMin =              0.11,
    PLRMinUnl =           0.11,
    PLRMax =              1.05,
    mEva_flow_nominal =   1000 * 0.03533,
    mCon_flow_nominal =   1000 * 0.05773,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 41.44,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 17.28,
    TConLvgMax =          273.15 + 42.31,
    capFunT =             {1.556501E-03,-4.410896E-02,-1.854492E-03,6.411584E-02,-1.204698E-03,3.060359E-03},
    EIRFunT =             {1.265473E-01,5.028662E-02,-4.704162E-03,7.913033E-03,3.096000E-04,-4.283498E-04},
    EIRFunPLR =           {1.253346E+00,-3.406609E-02,1.893094E-04,2.554443E-01,-1.655620E+00,2.220865E-02,0.000000E+00,1.319681E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1266kW/4.39COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1284kW_6_20COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1284kW/6.20COP/Vanes,  !- Name
    1283500,                 !- Reference Capacity {W}
    6.20,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    29.46,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03684,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05337,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1284kW/6.20COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1284kW/6.20COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1284kW/6.20COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.20,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.20,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.20	Minimum part unload ratio
Real	PLRMin	0.20	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.46	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1283500	Reference capacity (negative number) [W]
Real	COP_nominal	6.20	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03684	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05337	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.115795E+00,-2.963853E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{7.586434E-01,-1.231609E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{9.435414E-01,-6.553709E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.55	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 30.85	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1284kW_6_20COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1283500,
    COP_nominal =         6.20,
    PLRMin =              0.20,
    PLRMinUnl =           0.20,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.03684,
    mCon_flow_nominal =   1000 * 0.05337,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 29.46,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 19.55,
    TConLvgMax =          273.15 + 30.85,
    capFunT =             {1.115795E+00,-2.963853E-02,-1.135671E-03,4.184083E-03,-4.382921E-04,2.096512E-03},
    EIRFunT =             {7.586434E-01,-1.231609E-02,1.784584E-03,-2.678401E-03,6.302421E-04,-1.385469E-03},
    EIRFunPLR =           {9.435414E-01,-6.553709E-02,1.115089E-04,1.530548E+00,-1.486930E+00,6.031382E-02,0.000000E+00,7.320523E-02,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1284kW/6.20COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1294kW_7_61COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1294kW/7.61COP/Vanes,  !- Name
    1294100,                 !- Reference Capacity {W}
    7.61,                    !- Reference COP {W/W}
    6.11,                    !- Reference Leaving Chilled Water Temperature {C}
    20.18,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03243,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04732,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1294kW/7.61COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1294kW/7.61COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1294kW/7.61COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.16,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.16,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.16	Minimum part unload ratio
Real	PLRMin	0.16	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 20.18	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1294100	Reference capacity (negative number) [W]
Real	COP_nominal	7.61	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03243	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04732	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.11	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{8.542077E-01,-5.459736E-03,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.167182E+00,-4.534610E-03,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-2.942311E-02,2.842914E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.11	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 20.18	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 31.56	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1294kW_7_61COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1294100,
    COP_nominal =         7.61,
    PLRMin =              0.16,
    PLRMinUnl =           0.16,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.03243,
    mCon_flow_nominal =   1000 * 0.04732,
    TEvaLvg_nominal =     273.15 + 6.11,
    TConLvg_nominal =     273.15 + 20.18,
    TEvaLvgMin =          273.15 + 6.11,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 20.18,
    TConLvgMax =          273.15 + 31.56,
    capFunT =             {8.542077E-01,-5.459736E-03,-1.943025E-03,1.670770E-02,-9.079473E-04,2.332448E-03},
    EIRFunT =             {1.167182E+00,-4.534610E-03,-2.394329E-03,-1.568154E-02,4.922543E-04,5.971107E-04},
    EIRFunPLR =           {-2.942311E-02,2.842914E-02,-1.096497E-05,-1.072984E+00,3.343046E+00,-2.769791E-02,0.000000E+00,-1.251621E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1294kW/7.61COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Trane_CVHE_1329kW_5_38COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Trane CVHE 1329kW/5.38COP/Vanes,  !- Name
    1329300,                 !- Reference Capacity {W}
    5.38,                    !- Reference COP {W/W}
    6.11,                    !- Reference Leaving Chilled Water Temperature {C}
    34.80,                   !- Reference Leaving Condenser Water Temperature {C}
    0.04732,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.07098,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Trane CVHE 1329kW/5.38COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1329kW/5.38COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1329kW/5.38COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.29,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.29,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.29	Minimum part unload ratio
Real	PLRMin	0.29	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 34.80	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1329300	Reference capacity (negative number) [W]
Real	COP_nominal	5.38	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.04732	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.07098	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.11	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{2.971340E-01,1.063097E-01,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{9.460623E-01,3.685465E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-9.512023E-02,8.704652E-03,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.11	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 26.77	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 41.98	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Trane_CVHE_1329kW_5_38COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1329300,
    COP_nominal =         5.38,
    PLRMin =              0.29,
    PLRMinUnl =           0.29,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.04732,
    mCon_flow_nominal =   1000 * 0.07098,
    TEvaLvg_nominal =     273.15 + 6.11,
    TConLvg_nominal =     273.15 + 34.80,
    TEvaLvgMin =          273.15 + 6.11,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 26.77,
    TConLvgMax =          273.15 + 41.98,
    capFunT =             {2.971340E-01,1.063097E-01,-4.449876E-03,2.540435E-02,-5.696223E-04,1.269921E-04},
    EIRFunT =             {9.460623E-01,3.685465E-02,-7.530867E-04,-1.753701E-02,5.832929E-04,-1.143458E-03},
    EIRFunPLR =           {-9.512023E-02,8.704652E-03,-6.499682E-06,1.336749E+00,-6.968012E-01,-8.318175E-03,0.000000E+00,4.497796E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Trane CVHE 1329kW/5.38COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1350kW_7_90COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1350kW/7.90COP/VSD,  !- Name
    1350400,                 !- Reference Capacity {W}
    7.90,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    19.60,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03684,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05337,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1350kW/7.90COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1350kW/7.90COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1350kW/7.90COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.19,                    !- Minimum Part Load Ratio
    1.02,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.19,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.02	Maximum part load ratio
Real	PLRMinUnl	0.19	Minimum part unload ratio
Real	PLRMin	0.19	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 19.60	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1350400	Reference capacity (negative number) [W]
Real	COP_nominal	7.90	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03684	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05337	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.060586E+00,-2.817204E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{9.661627E-01,-1.568504E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.868582E+00,-1.412449E-01,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.55	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 30.85	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1350kW_7_90COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1350400,
    COP_nominal =         7.90,
    PLRMin =              0.19,
    PLRMinUnl =           0.19,
    PLRMax =              1.02,
    mEva_flow_nominal =   1000 * 0.03684,
    mCon_flow_nominal =   1000 * 0.05337,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 19.60,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 19.55,
    TConLvgMax =          273.15 + 30.85,
    capFunT =             {1.060586E+00,-2.817204E-02,-1.079479E-03,3.977058E-03,-4.166057E-04,1.992778E-03},
    EIRFunT =             {9.661627E-01,-1.568504E-02,2.272739E-03,-3.411051E-03,8.026386E-04,-1.764450E-03},
    EIRFunPLR =           {1.868582E+00,-1.412449E-01,2.563520E-04,8.432680E-01,-1.538206E+00,1.292323E-01,0.000000E+00,-3.507772E-02,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1350kW/7.90COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1368kW_7_35COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1368kW/7.35COP/VSD,  !- Name
    1367900,                 !- Reference Capacity {W}
    7.35,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    28.80,                   !- Reference Leaving Condenser Water Temperature {C}
    0.05047,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.07571,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1368kW/7.35COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1368kW/7.35COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1368kW/7.35COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 28.80	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1367900	Reference capacity (negative number) [W]
Real	COP_nominal	7.35	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.05047	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.07571	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-1.988920E-01,-1.019014E-01...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.787713E-01,-1.943742E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-4.466479E-01,1.188856E-01,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.76	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 34.51	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1368kW_7_35COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1367900,
    COP_nominal =         7.35,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.05047,
    mCon_flow_nominal =   1000 * 0.07571,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 28.80,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 17.76,
    TConLvgMax =          273.15 + 34.51,
    capFunT =             {-1.988920E-01,-1.019014E-01,-4.605586E-03,1.364167E-01,-4.142785E-03,8.790965E-03},
    EIRFunT =             {1.787713E-01,-1.943742E-02,-5.155001E-03,4.314534E-02,-5.446713E-04,2.049096E-03},
    EIRFunPLR =           {-4.466479E-01,1.188856E-01,-5.385997E-05,-2.756308E+00,4.709118E+00,-1.161211E-01,0.000000E+00,-5.402852E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1368kW/7.35COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Trane_CVHE_1372kW_7_49COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Trane CVHE 1372kW/7.49COP/Vanes,  !- Name
    1371500,                 !- Reference Capacity {W}
    7.49,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    28.80,                   !- Reference Leaving Condenser Water Temperature {C}
    0.05047,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.07571,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Trane CVHE 1372kW/7.49COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1372kW/7.49COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1372kW/7.49COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.41,                    !- Minimum Part Load Ratio
    1.11,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.41,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.11	Maximum part load ratio
Real	PLRMinUnl	0.41	Minimum part unload ratio
Real	PLRMin	0.41	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 28.80	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1371500	Reference capacity (negative number) [W]
Real	COP_nominal	7.49	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.05047	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.07571	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{3.397637E-01,3.431595E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.033692E+00,3.558404E-02,3...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{4.723036E-01,8.571830E-03,4...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.87	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 34.26	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Trane_CVHE_1372kW_7_49COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1371500,
    COP_nominal =         7.49,
    PLRMin =              0.41,
    PLRMinUnl =           0.41,
    PLRMax =              1.11,
    mEva_flow_nominal =   1000 * 0.05047,
    mCon_flow_nominal =   1000 * 0.07571,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 28.80,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 17.87,
    TConLvgMax =          273.15 + 34.26,
    capFunT =             {3.397637E-01,3.431595E-02,-1.008753E-02,5.766544E-02,-2.300721E-03,6.035544E-03},
    EIRFunT =             {1.033692E+00,3.558404E-02,3.589722E-03,-2.717762E-02,1.379031E-03,-4.158610E-03},
    EIRFunPLR =           {4.723036E-01,8.571830E-03,4.576667E-05,-1.502847E+00,3.731872E+00,-1.107635E-02,0.000000E+00,-1.669562E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Trane CVHE 1372kW/7.49COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1396kW_7_35COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1396kW/7.35COP/Vanes,  !- Name
    1396100,                 !- Reference Capacity {W}
    7.35,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    28.90,                   !- Reference Leaving Condenser Water Temperature {C}
    0.05047,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.07571,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1396kW/7.35COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1396kW/7.35COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1396kW/7.35COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 28.90	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1396100	Reference capacity (negative number) [W]
Real	COP_nominal	7.35	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.05047	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.07571	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{3.601322E-02,-9.771124E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{4.546708E-01,3.725193E-03,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-2.549993E-01,1.161730E-01,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.94	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 34.67	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1396kW_7_35COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1396100,
    COP_nominal =         7.35,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.05047,
    mCon_flow_nominal =   1000 * 0.07571,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 28.90,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 17.94,
    TConLvgMax =          273.15 + 34.67,
    capFunT =             {3.601322E-02,-9.771124E-02,-2.845248E-03,1.124508E-01,-3.477685E-03,7.688650E-03},
    EIRFunT =             {4.546708E-01,3.725193E-03,-1.145409E-04,1.695408E-02,3.224089E-04,-1.265009E-03},
    EIRFunPLR =           {-2.549993E-01,1.161730E-01,1.913023E-06,-3.306674E+00,5.813195E+00,-1.164290E-01,0.000000E+00,-1.247308E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1396kW/7.35COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1403kW_7_09COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1403kW/7.09COP/VSD,  !- Name
    1403100,                 !- Reference Capacity {W}
    7.09,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    21.78,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03426,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04252,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1403kW/7.09COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1403kW/7.09COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1403kW/7.09COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.17,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.17,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.17	Minimum part unload ratio
Real	PLRMin	0.17	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 21.78	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1403100	Reference capacity (negative number) [W]
Real	COP_nominal	7.09	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03426	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04252	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{8.573696E-01,-3.077045E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.172049E+00,-1.768334E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.386665E-01,4.836823E-03,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.67	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.22	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 21.77	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 33.09	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1403kW_7_09COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1403100,
    COP_nominal =         7.09,
    PLRMin =              0.17,
    PLRMinUnl =           0.17,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.03426,
    mCon_flow_nominal =   1000 * 0.04252,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 21.78,
    TEvaLvgMin =          273.15 + 6.67,
    TEvaLvgMax =          273.15 + 12.22,
    TConLvgMin =          273.15 + 21.77,
    TConLvgMax =          273.15 + 33.09,
    capFunT =             {8.573696E-01,-3.077045E-02,-2.171254E-03,2.296255E-02,-1.067689E-03,3.125156E-03},
    EIRFunT =             {1.172049E+00,-1.768334E-02,3.356460E-04,-1.485826E-02,6.930197E-04,-5.461447E-04},
    EIRFunPLR =           {1.386665E-01,4.836823E-03,-5.406708E-05,-4.609915E-01,2.214035E+00,-1.925694E-03,0.000000E+00,-9.302446E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1403kW/7.09COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1403kW_6_94COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1403kW/6.94COP/VSD,  !- Name
    1403100,                 !- Reference Capacity {W}
    6.94,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    31.50,                   !- Reference Leaving Condenser Water Temperature {C}
    0.05047,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05047,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1403kW/6.94COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1403kW/6.94COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1403kW/6.94COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.13,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.13	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.50	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1403100	Reference capacity (negative number) [W]
Real	COP_nominal	6.94	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.05047	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05047	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-1.721714E+00,8.594308E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{5.348381E-01,-1.779962E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{1.005500E+00,3.906974E-02,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 21.33	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 36.28	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1403kW_6_94COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1403100,
    COP_nominal =         6.94,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.13,
    mEva_flow_nominal =   1000 * 0.05047,
    mCon_flow_nominal =   1000 * 0.05047,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 31.50,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 21.33,
    TConLvgMax =          273.15 + 36.28,
    capFunT =             {-1.721714E+00,8.594308E-02,-1.220844E-02,2.037396E-01,-4.654718E-03,4.701301E-03},
    EIRFunT =             {5.348381E-01,-1.779962E-02,-4.925343E-03,1.066975E-02,9.573974E-05,1.717894E-03},
    EIRFunPLR =           {1.005500E+00,3.906974E-02,-7.721440E-06,-5.794857E+00,9.282464E+00,-3.755116E-02,0.000000E+00,-3.524493E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1403kW/6.94COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Trane_CVHE_1407kW_7_14COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Trane CVHE 1407kW/7.14COP/VSD,  !- Name
    1406600,                 !- Reference Capacity {W}
    7.14,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    28.96,                   !- Reference Leaving Condenser Water Temperature {C}
    0.05047,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.07571,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Trane CVHE 1407kW/7.14COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1407kW/7.14COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1407kW/7.14COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.30,                    !- Minimum Part Load Ratio
    1.07,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.30,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.07	Maximum part load ratio
Real	PLRMinUnl	0.30	Minimum part unload ratio
Real	PLRMin	0.30	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 28.96	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1406600	Reference capacity (negative number) [W]
Real	COP_nominal	7.14	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.05047	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.07571	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.098635E-01,-4.154795E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{6.391346E-01,5.159383E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.754461E-01,6.701607E-02,-...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.66	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 34.28	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Trane_CVHE_1407kW_7_14COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1406600,
    COP_nominal =         7.14,
    PLRMin =              0.30,
    PLRMinUnl =           0.30,
    PLRMax =              1.07,
    mEva_flow_nominal =   1000 * 0.05047,
    mCon_flow_nominal =   1000 * 0.07571,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 28.96,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 17.66,
    TConLvgMax =          273.15 + 34.28,
    capFunT =             {1.098635E-01,-4.154795E-02,-6.348039E-03,8.801570E-02,-2.631387E-03,5.846073E-03},
    EIRFunT =             {6.391346E-01,5.159383E-02,-5.750293E-03,-9.196660E-03,7.380570E-04,-4.665422E-04},
    EIRFunPLR =           {2.754461E-01,6.701607E-02,-8.579222E-05,-4.299994E+00,7.901098E+00,-6.298243E-02,0.000000E+00,-2.924081E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller Trane CVHE 1407kW/7.14COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_PFH_1407kW_6_60COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay PFH 1407kW/6.60COP/Vanes,  !- Name
    1406600,                 !- Reference Capacity {W}
    6.60,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    29.45,                   !- Reference Leaving Condenser Water Temperature {C}
    0.04038,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05804,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay PFH 1407kW/6.60COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay PFH 1407kW/6.60COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay PFH 1407kW/6.60COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.05,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.05	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.45	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1406600	Reference capacity (negative number) [W]
Real	COP_nominal	6.60	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.04038	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05804	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{4.857520E-01,-1.139327E-01,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{9.392120E-01,3.430098E-02,-...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-6.446736E-01,5.352860E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 21.90	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 32.26	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_PFH_1407kW_6_60COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1406600,
    COP_nominal =         6.60,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.05,
    mEva_flow_nominal =   1000 * 0.04038,
    mCon_flow_nominal =   1000 * 0.05804,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 29.45,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 21.90,
    TConLvgMax =          273.15 + 32.26,
    capFunT =             {4.857520E-01,-1.139327E-01,-1.036160E-02,1.146315E-01,-4.547626E-03,1.263077E-02},
    EIRFunT =             {9.392120E-01,3.430098E-02,-5.178425E-03,-2.274002E-02,6.827442E-04,7.649464E-04},
    EIRFunPLR =           {-6.446736E-01,5.352860E-02,1.582353E-06,2.669373E-01,1.497456E+00,-5.364380E-02,0.000000E+00,-1.183319E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay PFH 1407kW/6.60COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1407kW_6_04COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1407kW/6.04COP/VSD,  !- Name
    1406600,                 !- Reference Capacity {W}
    6.04,                    !- Reference COP {W/W}
    6.67,                    !- Reference Leaving Chilled Water Temperature {C}
    34.63,                   !- Reference Leaving Condenser Water Temperature {C}
    0.06057,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.07571,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1407kW/6.04COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1407kW/6.04COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1407kW/6.04COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.20,                    !- Minimum Part Load Ratio
    1.04,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.20,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.04	Maximum part load ratio
Real	PLRMinUnl	0.20	Minimum part unload ratio
Real	PLRMin	0.20	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 34.63	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1406600	Reference capacity (negative number) [W]
Real	COP_nominal	6.04	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.06057	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.07571	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.67	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{9.006457E-01,-1.139681E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.174615E+00,-1.237741E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-5.839828E-01,4.640814E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.11	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 37.42	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1407kW_6_04COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1406600,
    COP_nominal =         6.04,
    PLRMin =              0.20,
    PLRMinUnl =           0.20,
    PLRMax =              1.04,
    mEva_flow_nominal =   1000 * 0.06057,
    mCon_flow_nominal =   1000 * 0.07571,
    TEvaLvg_nominal =     273.15 + 6.67,
    TConLvg_nominal =     273.15 + 34.63,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 18.11,
    TConLvgMax =          273.15 + 37.42,
    capFunT =             {9.006457E-01,-1.139681E-02,-1.480623E-03,2.770949E-02,-9.617215E-04,1.812986E-03},
    EIRFunT =             {1.174615E+00,-1.237741E-02,-1.147159E-03,-2.996332E-02,8.901939E-04,-2.302077E-04},
    EIRFunPLR =           {-5.839828E-01,4.640814E-02,-7.366007E-05,-1.926398E-01,2.597682E+00,-4.268655E-02,0.000000E+00,-8.666390E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1407kW/6.04COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1410kW_8_54COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1410kW/8.54COP/VSD,  !- Name
    1410100,                 !- Reference Capacity {W}
    8.54,                    !- Reference COP {W/W}
    6.11,                    !- Reference Leaving Chilled Water Temperature {C}
    19.21,                   !- Reference Leaving Condenser Water Temperature {C}
    0.04,                    !- Reference Chilled Water Flow Rate {m3/s}
    0.05861,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1410kW/8.54COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1410kW/8.54COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1410kW/8.54COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.18,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.18,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.18	Minimum part unload ratio
Real	PLRMin	0.18	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 19.21	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1410100	Reference capacity (negative number) [W]
Real	COP_nominal	8.54	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.04	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05861	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 6.11	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{9.053779E-01,-1.615047E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.074067E+00,-6.702565E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-6.984658E-02,2.103714E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 6.11	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.05	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 30.63	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1410kW_8_54COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1410100,
    COP_nominal =         8.54,
    PLRMin =              0.18,
    PLRMinUnl =           0.18,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.04,
    mCon_flow_nominal =   1000 * 0.05861,
    TEvaLvg_nominal =     273.15 + 6.11,
    TConLvg_nominal =     273.15 + 19.21,
    TEvaLvgMin =          273.15 + 6.11,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 19.05,
    TConLvgMax =          273.15 + 30.63,
    capFunT =             {9.053779E-01,-1.615047E-02,-1.175290E-03,1.318125E-02,-5.919239E-04,1.756836E-03},
    EIRFunT =             {1.074067E+00,-6.702565E-02,3.043272E-04,6.055739E-03,4.615039E-04,3.375766E-04},
    EIRFunPLR =           {-6.984658E-02,2.103714E-02,5.767453E-05,5.267406E-01,6.390076E-01,-2.389231E-02,0.000000E+00,-6.097179E-02,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1410kW/8.54COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Trane_CVHE_1442kW_6_61COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Trane CVHE 1442kW/6.61COP/VSD,  !- Name
    1441800,                 !- Reference Capacity {W}
    6.61,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    31.76,                   !- Reference Leaving Condenser Water Temperature {C}
    0.05047,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05047,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Trane CVHE 1442kW/6.61COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1442kW/6.61COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1442kW/6.61COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.06,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.06	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.76	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1441800	Reference capacity (negative number) [W]
Real	COP_nominal	6.61	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.05047	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05047	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-2.660651E-01,-2.114972E-02...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{6.807134E-01,-2.285082E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-5.842314E-01,5.001539E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.72	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 41.41	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Trane_CVHE_1442kW_6_61COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1441800,
    COP_nominal =         6.61,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.06,
    mEva_flow_nominal =   1000 * 0.05047,
    mCon_flow_nominal =   1000 * 0.05047,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 31.76,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 19.72,
    TConLvgMax =          273.15 + 41.41,
    capFunT =             {-2.660651E-01,-2.114972E-02,-3.928472E-04,9.573910E-02,-2.015949E-03,2.030045E-03},
    EIRFunT =             {6.807134E-01,-2.285082E-02,8.153057E-04,9.280487E-04,4.950540E-04,-6.106817E-04},
    EIRFunPLR =           {-5.842314E-01,5.001539E-02,-1.157444E-04,-3.287848E-03,1.916917E+00,-4.340928E-02,0.000000E+00,-4.222738E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller Trane CVHE 1442kW/6.61COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1459kW_6_40COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1459kW/6.40COP/VSD,  !- Name
    1459400,                 !- Reference Capacity {W}
    6.40,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    31.89,                   !- Reference Leaving Condenser Water Temperature {C}
    0.05047,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05047,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1459kW/6.40COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1459kW/6.40COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1459kW/6.40COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.17,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.17	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.89	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1459400	Reference capacity (negative number) [W]
Real	COP_nominal	6.40	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.05047	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05047	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-1.194034E+00,2.466392E-01,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{-6.559788E-02,4.189764E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{-1.614787E-01,6.417258E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 21.15	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 37.17	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1459kW_6_40COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1459400,
    COP_nominal =         6.40,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.17,
    mEva_flow_nominal =   1000 * 0.05047,
    mCon_flow_nominal =   1000 * 0.05047,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 31.89,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 21.15,
    TConLvgMax =          273.15 + 37.17,
    capFunT =             {-1.194034E+00,2.466392E-01,-1.770803E-02,1.203228E-01,-2.570051E-03,8.497187E-04},
    EIRFunT =             {-6.559788E-02,4.189764E-02,-9.367876E-03,4.551296E-02,-5.411967E-04,1.453585E-03},
    EIRFunPLR =           {-1.614787E-01,6.417258E-02,1.317124E-05,-2.149029E+00,4.405653E+00,-6.621165E-02,0.000000E+00,-1.055839E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1459kW/6.40COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Trane_CVHE_1484kW_9_96COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Trane CVHE 1484kW/9.96COP/VSD,  !- Name
    1484000,                 !- Reference Capacity {W}
    9.96,                    !- Reference COP {W/W}
    4.44,                    !- Reference Leaving Chilled Water Temperature {C}
    17.08,                   !- Reference Leaving Condenser Water Temperature {C}
    0.07571,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.09085,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Trane CVHE 1484kW/9.96COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1484kW/9.96COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Trane CVHE 1484kW/9.96COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.24,                    !- Minimum Part Load Ratio
    1.04,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.24,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.04	Maximum part load ratio
Real	PLRMinUnl	0.24	Minimum part unload ratio
Real	PLRMin	0.24	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 17.08	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1484000	Reference capacity (negative number) [W]
Real	COP_nominal	9.96	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.07571	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.09085	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 4.44	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{-9.759100E-01,-1.446866E-01...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{-6.183288E-01,-1.151565E-01...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{2.203029E-01,9.195177E-02,1...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 4.44	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 17.08	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 35.97	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Trane_CVHE_1484kW_9_96COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1484000,
    COP_nominal =         9.96,
    PLRMin =              0.24,
    PLRMinUnl =           0.24,
    PLRMax =              1.04,
    mEva_flow_nominal =   1000 * 0.07571,
    mCon_flow_nominal =   1000 * 0.09085,
    TEvaLvg_nominal =     273.15 + 4.44,
    TConLvg_nominal =     273.15 + 17.08,
    TEvaLvgMin =          273.15 + 4.44,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 17.08,
    TConLvgMax =          273.15 + 35.97,
    capFunT =             {-9.759100E-01,-1.446866E-01,-4.694254E-03,1.963005E-01,-4.543768E-03,8.998114E-03},
    EIRFunT =             {-6.183288E-01,-1.151565E-01,-1.663662E-04,1.539757E-01,-2.390058E-03,2.818373E-03},
    EIRFunPLR =           {2.203029E-01,9.195177E-02,1.943558E-05,-5.815422E+00,9.366237E+00,-9.299721E-02,0.000000E+00,-2.757689E+00,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller Trane CVHE 1484kW/9.96COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_York_YT_1495kW_7_51COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller York YT 1495kW/7.51COP/VSD,  !- Name
    1494500,                 !- Reference Capacity {W}
    7.51,                    !- Reference COP {W/W}
    7.22,                    !- Reference Leaving Chilled Water Temperature {C}
    29.92,                   !- Reference Leaving Condenser Water Temperature {C}
    0.0429,                  !- Reference Chilled Water Flow Rate {m3/s}
    0.06719,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller York YT 1495kW/7.51COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller York YT 1495kW/7.51COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller York YT 1495kW/7.51COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.11,                    !- Minimum Part Load Ratio
    1.04,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.11,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.04	Maximum part load ratio
Real	PLRMinUnl	0.11	Minimum part unload ratio
Real	PLRMin	0.11	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.92	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1494500	Reference capacity (negative number) [W]
Real	COP_nominal	7.51	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.0429	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.06719	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 7.22	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{6.015487E-01,-1.630120E-01,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.954138E-01,-1.627980E-01,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{6.377828E-01,-3.620643E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 8.89	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 18.69	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 41.38	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_York_YT_1495kW_7_51COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1494500,
    COP_nominal =         7.51,
    PLRMin =              0.11,
    PLRMinUnl =           0.11,
    PLRMax =              1.04,
    mEva_flow_nominal =   1000 * 0.0429,
    mCon_flow_nominal =   1000 * 0.06719,
    TEvaLvg_nominal =     273.15 + 7.22,
    TConLvg_nominal =     273.15 + 29.92,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 8.89,
    TConLvgMin =          273.15 + 18.69,
    TConLvgMax =          273.15 + 41.38,
    capFunT =             {6.015487E-01,-1.630120E-01,9.951930E-03,7.452875E-02,-1.608224E-03,2.001891E-03},
    EIRFunT =             {1.954138E-01,-1.627980E-01,5.924232E-03,8.194832E-02,-8.723337E-04,7.443855E-04},
    EIRFunPLR =           {6.377828E-01,-3.620643E-02,-1.187858E-04,5.832958E-01,-9.230655E-01,4.307256E-02,0.000000E+00,6.079021E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) "ReformEIRChiller York YT 1495kW/7.51COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_McQuay_WSC_1519kW_7_10COP_Vanes

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller McQuay WSC 1519kW/7.10COP/Vanes,  !- Name
    1519200,                 !- Reference Capacity {W}
    7.10,                    !- Reference COP {W/W}
    8.89,                    !- Reference Leaving Chilled Water Temperature {C}
    31.76,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03186,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.08139,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller McQuay WSC 1519kW/7.10COP/Vanes CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller McQuay WSC 1519kW/7.10COP/Vanes EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller McQuay WSC 1519kW/7.10COP/Vanes EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.10,                    !- Minimum Part Load Ratio
    1.03,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.10,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.03	Maximum part load ratio
Real	PLRMinUnl	0.10	Minimum part unload ratio
Real	PLRMin	0.10	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 31.76	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1519200	Reference capacity (negative number) [W]
Real	COP_nominal	7.10	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03186	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.08139	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 8.89	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.244930E+00,-3.988254E-02,...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.087821E+00,-2.763242E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{4.209093E-01,-1.860468E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 19.71	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 33.53	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_McQuay_WSC_1519kW_7_10COP_Vanes =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1519200,
    COP_nominal =         7.10,
    PLRMin =              0.10,
    PLRMinUnl =           0.10,
    PLRMax =              1.03,
    mEva_flow_nominal =   1000 * 0.03186,
    mCon_flow_nominal =   1000 * 0.08139,
    TEvaLvg_nominal =     273.15 + 8.89,
    TConLvg_nominal =     273.15 + 31.76,
    TEvaLvgMin =          273.15 + 7.22,
    TEvaLvgMax =          273.15 + 12.78,
    TConLvgMin =          273.15 + 19.71,
    TConLvgMax =          273.15 + 33.53,
    capFunT =             {1.244930E+00,-3.988254E-02,-8.293893E-03,3.053704E-02,-2.899547E-03,9.784227E-03},
    EIRFunT =             {1.087821E+00,-2.763242E-02,-3.692617E-03,-1.419848E-02,6.903140E-05,2.920296E-03},
    EIRFunPLR =           {4.209093E-01,-1.860468E-02,1.580518E-05,8.654910E-01,-6.538795E-01,1.786849E-02,0.000000E+00,3.759658E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller McQuay WSC 1519kW/7.10COP/Vanes";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1558kW_5_81COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1558kW/5.81COP/VSD,  !- Name
    1557800,                 !- Reference Capacity {W}
    5.81,                    !- Reference COP {W/W}
    5.56,                    !- Reference Leaving Chilled Water Temperature {C}
    29.61,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03785,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.05142,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1558kW/5.81COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1558kW/5.81COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1558kW/5.81COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.19,                    !- Minimum Part Load Ratio
    1.01,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.19,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.01	Maximum part load ratio
Real	PLRMinUnl	0.19	Minimum part unload ratio
Real	PLRMin	0.19	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 29.61	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1557800	Reference capacity (negative number) [W]
Real	COP_nominal	5.81	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03785	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.05142	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 5.56	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.062937E+00,1.795402E-02,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.228621E+00,-2.576180E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{3.269754E-01,-2.384434E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 5.56	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 10.00	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 20.93	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 32.69	Maximum value for leaving condenser temperature [K]

Modelica definition

record ReformEIRChiller_Carrier_19XR_1558kW_5_81COP_VSD =
  Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.Generic (
    QEva_flow_nominal =  -1557800,
    COP_nominal =         5.81,
    PLRMin =              0.19,
    PLRMinUnl =           0.19,
    PLRMax =              1.01,
    mEva_flow_nominal =   1000 * 0.03785,
    mCon_flow_nominal =   1000 * 0.05142,
    TEvaLvg_nominal =     273.15 + 5.56,
    TConLvg_nominal =     273.15 + 29.61,
    TEvaLvgMin =          273.15 + 5.56,
    TEvaLvgMax =          273.15 + 10.00,
    TConLvgMin =          273.15 + 20.93,
    TConLvgMax =          273.15 + 32.69,
    capFunT =             {1.062937E+00,1.795402E-02,-1.393291E-03,-9.669825E-04,-2.580121E-04,7.734796E-04},
    EIRFunT =             {1.228621E+00,-2.576180E-02,5.933105E-04,-2.005035E-02,6.691169E-04,-5.915039E-04},
    EIRFunPLR =           {3.269754E-01,-2.384434E-02,1.204600E-06,3.858219E-01,1.457104E-01,2.369999E-02,0.000000E+00,1.441457E-01,0.000000E+00,0.000000E+00},
    etaMotor =            1.0) 
  "ReformEIRChiller Carrier 19XR 1558kW/5.81COP/VSD";

Buildings.Fluid.Chillers.Data.ElectricReformulatedEIR.ReformEIRChiller_Carrier_19XR_1586kW_5_53COP_VSD

Information

Chiller:Electric:ReformulatedEIR,
    ReformEIRChiller Carrier 19XR 1586kW/5.53COP/VSD,  !- Name
    1586000,                 !- Reference Capacity {W}
    5.53,                    !- Reference COP {W/W}
    8.89,                    !- Reference Leaving Chilled Water Temperature {C}
    36.26,                   !- Reference Leaving Condenser Water Temperature {C}
    0.03388,                 !- Reference Chilled Water Flow Rate {m3/s}
    0.04669,                 !- Reference Condenser Water Flow Rate {m3/s}
    ReformEIRChiller Carrier 19XR 1586kW/5.53COP/VSD CAPFT,  !- Cooling Capacity Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1586kW/5.53COP/VSD EIRFT,  !- Electric Input to Cooling Output Ratio Function of Temperature Curve Name
    ReformEIRChiller Carrier 19XR 1586kW/5.53COP/VSD EIRFPLR,  !- Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
    0.19,                    !- Minimum Part Load Ratio
    1.01,                    !- Maximum Part Load Ratio
    1.0,                     !- Optimum Part Load Ratio
    0.19,                    !- Minimum Unloading Ratio
    Chilled Water Side Inlet Node,  !- Chilled Water Inlet Node Name
    Chilled Water Side Outlet Node,  !- Chilled Water Outlet Node Name
    Condenser Side Inlet Node,  !- Condenser Inlet Node Name
    Condenser Side Outlet Node,  !- Condenser Outlet Node Name
    1.0,                     !- Compressor Motor Efficiency
    2.0,                     !- Leaving Chilled Water Lower Temperature Limit {C}
    ConstantFlow,            !- Chiller Flow Mode Type
    0.0;                     !- Design Heat Recovery Water Flow Rate {m3/s}

Parameters

Type	Name	Default	Description
Real	PLRMax	1.01	Maximum part load ratio
Real	PLRMinUnl	0.19	Minimum part unload ratio
Real	PLRMin	0.19	Minimum part load ratio
Real	etaMotor	1.0	Fraction of compressor motor heat entering refrigerant
Temperature	TConLvg_nominal	273.15 + 36.26	Temperature of fluid leaving condenser at nominal condition [K]
Nominal condition
HeatFlowRate	QEva_flow_nominal	-1586000	Reference capacity (negative number) [W]
Real	COP_nominal	5.53	Reference coefficient of performance
MassFlowRate	mEva_flow_nominal	1000*0.03388	Nominal mass flow at evaporator [kg/s]
MassFlowRate	mCon_flow_nominal	1000*0.04669	Nominal mass flow at condenser [kg/s]
Temperature	TEvaLvg_nominal	273.15 + 8.89	Temperature of fluid leaving evaporator at nominal condition [K]
Performance curves
Real	capFunT[nCapFunT]	{1.132174E+00,8.236001E-04,-...	Biquadratic coefficients for capFunT
Real	EIRFunT[nEIRFunT]	{1.223690E+00,-3.668987E-02,...	Biquadratic coefficients for EIRFunT
Real	EIRFunPLR[nEIRFunPLR]	{3.381660E-01,-2.323866E-02,...	Coefficients for EIRFunPLR
Temperature	TEvaLvgMin	273.15 + 7.22	Minimum value for leaving evaporator temperature [K]
Temperature	TEvaLvgMax	273.15 + 12.78	Maximum value for leaving evaporator temperature [K]
Temperature	TConLvgMin	273.15 + 23.36	Minimum value for leaving condenser temperature [K]
Temperature	TConLvgMax	273.15 + 36.72	Maximum value for leaving condenser temperature [K]