Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A

Models of rooms in test cell X3A

Information

This package contains models of rooms in test cell X3A of the FLEXLAB at LBNL. The following image is a drawing of test cell X3A. It shows how the different rooms in this example are connected, as well as providing the names used in this example for each of the rooms.

Room locations and names in X3AWithRadiantFloor

There are separate models for each room in test cell X3A. The model for the test cell itself is located in Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.TestCell, the model for the connected closet is located at Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.Closet, and the model for the connected electrical room is located at Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.Electrical. Each of the models were developed using construction and parameter information taken from architectural drawings. Accurate use of the models will likely require combining all three room models to each other.

The models in this package are intended to be connected to each other to develop a model of the entirety of test cell X3A. Several of the connections are to be made between walls connecting the two spaces to each other. Detailed information on the wall in each test cell can be found in the documentation for that test cell. The connections between each room in the test cell are described below.

Physical significance of connection	Port 1	Port 2
Heat transfer through the partition wall between the test cell and the closet	TestCell.surf_conBou[3]	Closet.surf_surBou[1]
Heat transfer through the door in the partition wall between the test cell and the closet	TestCell.surf_conBou[4]	Closet.surf_surBou[2]
Heat transfer through the wall separating the test cell and the electrical room	TestCell.surf_conBou[5]	Electrical.surf_surBou[1]
Heat transfer through the wall separating the closet and the electrical room	Closet.surf_conBou[1]	Electrical.surf_surBou[2]

An example of how these room models are connected to create full test cell model can be found in Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.Examples.X3AWithRadiantFloor.

Extends from Modelica.Icons.Package (Icon for standard packages).

Package Content

Name	Description
Closet	Model of the closet connected to test cell X3A
ClosetFullBed	Model of the closet connected to test cell X3A intended to be connected to ThermalZones.Detailed.FLEXLAB.Rooms.X3B.Closet
Electrical	Model of the electrical room attached to test cell X3A
TestCell	Model of LBNL User Test Facility Cell X3A
TestCellFullBed	Model of LBNL User Test Facility Cell X3A intended for connection with ThermalZones.Detailed.FLEXLAB.Rooms.X3B.TestCell

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.Closet

Model of the closet connected to test cell X3A

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.Closet

Information

This is a model for the closet attached to test cell 3A in the LBNL User Facility. This documentation describes the wall constructions used in the closet. Documentation describing how it should be connected to other models in the package to form a complete model of test cell X3A can be found in Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.

There are four different wall sections connected to the closet modeled here. They are shown in the figure below.

Wall sections in Closet model

The different wall sections are represented in the model according to the following table.

Wall Section Number	Description	Location in Model	Corresponding Layer
1	North wall on the exterior of the buildings	datConExt[1]	higIns
2	East wall connected to ThermalZones.Detailed.FLEXLAB.Rooms.X3B.Closet	datConBou[2]	celDiv
3	Air space connected to partition wall and door in TestCell model	Wall: datSurBou[1] Door: datSurBou[2]
4	West wall connected to Electrical	datConBou[1]	higIns

There are two additional surfaces which are not included in the diagram. One is the model of the roof. It is modeled in datConExt[2] using the layer roo. The other is the floor, which is modeled in datConBou[1] using the layer slaCon.

Several of the connections in this model are intended to be connected to specific surfaces in other room models. The following table describes the connections to models outside of the X3A package.. The connections in datConExt are not described in the table because they are connected to the external environment, and no additional heat port connections are necessary. A rationale for why the model is created this way is also provided if it is considered necessary.

Location in Closet	Description of External Connection	Location in External Model	Rationale
surf_conBou[2]	X3B.Closet	References a data table	A data table is used, instead of a model of ThermalZones.Detailed.FLEXLAB.Rooms.X3B.Closet, because the goal of this model is to be able to perform simulations of TestCell with minimal complexity, by simplifying the neighboring test cells. The wall separating the test cells is highly insulated, and it is believed that the error in simulations caused by using a data table will be negligible.
surf_conBou[3]	Ground temperature		There is no specific connection which is appropriate connection for this construction. surf_conBou[3] represents the floor of the room, and must be connected to a heat port representing the ground temperature.

Extends from Buildings.ThermalZones.Detailed.MixedAir (Model of a room in which the air is completely mixed).

Parameters

Type	Name	Default	Description
ParameterConstructionWithWindow	datConExtWin[NConExtWin]	datConExtWin(each T_a_start=...	Data for exterior construction with window
ParameterConstruction	datConPar[NConPar]	datConPar(each T_a_start=T_s...	Data for partition construction
Brick120	dummyCon		Dummy construction to assign a parameter to the instance
SingleClear3	dummyGlaSys		Dummy construction to assign a parameter to the instance
replaceable package Medium		PartialMedium	Medium in the component
Angle	lat	0.66098585832754	Latitude [rad]
Area	AFlo	3.93	Floor area [m2]
Length	hRoo	3.6576	Average room height [m]
Boolean	linearizeRadiation	true	Set to true to linearize emissive power
CellAndElectricalDividingWall	higIns	redeclare parameter Data.Con...	High insulation wall. Between X3A closet and exterior, X3A closet and electrical room
TestCellDividngWall	celDiv	redeclare parameter Data.Con...	Wall dividing the X3A closet and the X3B closet
ASHRAE_901_2010Roof	roo	redeclare parameter Data.Con...	Construction of the roof of the closet in X3A
Generic	slaCon		Construction of the slab
Exterior constructions
Integer	nConExt	2	Number of exterior constructions
Integer	nConExtWin	0	Number of window constructions
Partition constructions
Integer	nConPar	0	Number of partition constructions
Boundary constructions
Integer	nConBou	3	Number of constructions that have their outside surface exposed to the boundary of this room
Integer	nSurBou	2	Number of surface heat transfer models that connect to constructions that are modeled outside of this room
Convective heat transfer
InteriorConvection	intConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for room-facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hIntFixed	3.0	Constant convection coefficient for room-facing surfaces of opaque constructions [W/(m2.K)]
ExteriorConvection	extConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for exterior facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hExtFixed	10.0	Constant convection coefficient for exterior facing surfaces of opaque constructions [W/(m2.K)]
Nominal condition
MassFlowRate	m_flow_nominal	V*1.2/3600	Nominal mass flow rate [kg/s]
Ports
Boolean	use_C_flow	false	Set to true to enable input connector for trace substance that is connected to room air
Dynamics
Glazing system
Boolean	steadyStateWindow	false	Set to false to add thermal capacity at window, which generally leads to faster simulation
Zone air
Dynamics	energyDynamics	Modelica.Fluid.Types.Dynamic...	Type of energy balance for zone air: dynamic (3 initialization options) or steady state
Dynamics	massDynamics	energyDynamics	Type of mass balance for zone air: dynamic (3 initialization options) or steady state
Real	mSenFac	1	Factor for scaling the sensible thermal mass of the zone air volume
Advanced
Boolean	homotopyInitialization	true	= true, use homotopy method
Experimental (may be changed in future releases)
Boolean	sampleModel	false	Set to true to time-sample the model, which can give shorter simulation time if there is already time sampling in the system model
Initialization
AbsolutePressure	p_start	Medium.p_default	Start value of zone air pressure [Pa]
Temperature	T_start	Medium.T_default	Start value of zone air temperature [K]
MassFraction	X_start[Medium.nX]	Medium.X_default	Start value of zone air mass fractions m_i/m [kg/kg]
ExtraProperty	C_start[Medium.nC]	fill(0, Medium.nC)	Start value of zone air trace substances
ExtraProperty	C_nominal[Medium.nC]	fill(1E-2, Medium.nC)	Nominal value of zone air trace substances. (Set to typical order of magnitude.)

Connectors

Type	Name	Description
VesselFluidPorts_b	ports[nPorts]	Fluid inlets and outlets
HeatPort_a	heaPorAir	Heat port to air volume
HeatPort_a	heaPorRad	Heat port for radiative heat gain and radiative temperature
input RealInput	uWin[nConExtWin]	Control signal for window state (used for electrochromic windows, removed otherwise) [1]
HeatPort_a	surf_conBou[nConBou]	Heat port at surface b of construction conBou
HeatPort_a	surf_surBou[nSurBou]	Heat port of surface that is connected to the room air
input RealInput	qGai_flow[3]	Radiant, convective and latent heat input into room (positive if heat gain) [W/m2]
Bus	weaBus	Weather data
input RealInput	uSha[nConExtWin]	Control signal for the shading device (removed if no shade is present)
input RealInput	C_flow[Medium.nC]	Trace substance mass flow rate added to the room air. Enable if use_C_flow = true

Modelica definition

model Closet "Model of the closet connected to test cell X3A" extends Buildings.ThermalZones.Detailed.MixedAir( hRoo=3.6576, AFlo=3.93, lat=0.66098585832754, nConExt=2, nConBou=3, nSurBou=2, nConExtWin=0, nConPar=0, surBou( A={3.6576*2.886075 - 2.39*1.22,2.39*1.22}, each absIR=0.9, each absSol=0.9, each til=Buildings.Types.Tilt.Wall), datConExt( layers={higIns,roo}, A={3.6576*1.667,AFlo}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Ceiling}, azi={Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.N}), datConBou( layers={higIns,celDiv,slaCon}, A={3.6576*1.524,3.6576*1.524,3.93}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Floor}, azi={Buildings.Types.Azimuth.W,Buildings.Types.Azimuth.E,Buildings.Types.Azimuth.N}, stateAtSurface_a={true,false,false})); replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.CellAndElectricalDividingWall higIns "High insulation wall. Between X3A closet and exterior, X3A closet and electrical room"; replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.TestCellDividngWall celDiv "Wall dividing the X3A closet and the X3B closet"; replaceable parameter Data.Constructions.OpaqueConstructions.Roofs.ASHRAE_901_2010Roof roo "Construction of the roof of the closet in X3A"; parameter HeatTransfer.Data.OpaqueConstructions.Generic slaCon(nLay=3, material={Buildings.HeatTransfer.Data.Solids.Generic( x=0.1524, k=1.13, c=1000, d=1400, nSta=5),Buildings.HeatTransfer.Data.Solids.Generic( x=0.127, k=0.036, c=1200, d=40),Buildings.HeatTransfer.Data.Solids.Generic( x=0.2, k=1.8, c=1100, d=2400)}) "Construction of the slab"; end Closet;

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.ClosetFullBed

Model of the closet connected to test cell X3A intended to be connected to ThermalZones.Detailed.FLEXLAB.Rooms.X3B.Closet

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.ClosetFullBed

Information

This is a duplicate model of Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.Closet with the wall separating this model and Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3B.Closet removed. It is intended for use in simulations which include both room models to simulate the whole test bed. If the regular models are used the wall separating the closets will be modeled twice, so one model must have the wall removed. This documentation only describes the walls and connections which are different from Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.Closet. For information on the rest of the walls and connections see that documentation.

There are four different wall sections connected to the closet modeled here. They are shown in the figure below. Only wall section 2 is described in this documentation.

Wall sections in Closet model

The different wall sections are represented in the model according to the following table.

Wall Section Number	Description	Location in Model	Corresponding Layer
2	Dividing wall modeled in ThermalZones.Detailed.FLEXLAB.Rooms.X3B.Closet	surBou[3]

As a result of removing the dividing wall construction, the location of the construction of the floor has changed. The following table shows the old and new location of this wall construction.

Physical Description	Location in Closet	Location in ClosetNoCelDiv
Construction modeling the floor	datConBou[3]	datConBou[2]

Several of the connections in this model are intended to be connected to specific surfaces in other room models. The following table describes the connections to models outside of the X3A package. The connections in datConExt are not described in the table because they are connected to the external environment, and no additional heat port connections are necessary. A rationale for why the model is created this way is also provided if it is considered necessary.

Location in Closet	Description of External Connection	Location in External Model	Rationale
surf_surBou[3]	X3B.Closet	X3B.Closet.surf_conBou[2]	X3B.Closet.surf_conBou[2] is the location of the cell dividing wall in the neighboring closet. Connecting X3A.ClosetNoCelDiv.surf_surBou[3] to this port models heat transfer from the wall in ThermalZones.Detailed.FLEXLAB.Rooms.X3B.Closet to the air in this space.

Extends from Buildings.ThermalZones.Detailed.MixedAir (Model of a room in which the air is completely mixed).

Parameters

Type	Name	Default	Description
ParameterConstructionWithWindow	datConExtWin[NConExtWin]	datConExtWin(each T_a_start=...	Data for exterior construction with window
ParameterConstruction	datConPar[NConPar]	datConPar(each T_a_start=T_s...	Data for partition construction
Brick120	dummyCon		Dummy construction to assign a parameter to the instance
SingleClear3	dummyGlaSys		Dummy construction to assign a parameter to the instance
replaceable package Medium		PartialMedium	Medium in the component
Angle	lat	0.66098585832754	Latitude [rad]
Area	AFlo	3.93	Floor area [m2]
Length	hRoo	3.6576	Average room height [m]
Boolean	linearizeRadiation	true	Set to true to linearize emissive power
CellAndElectricalDividingWall	higIns	redeclare parameter Data.Con...	High insulation wall. Between X3A closet and exterior, X3A closet and electrical room
TestCellDividngWall	celDiv	redeclare parameter Data.Con...	Wall dividing the X3A closet and the X3B closet
ASHRAE_901_2010Roof	roo	redeclare parameter Data.Con...	Construction of the roof of the closet in X3A
Generic	slaCon		Construction of the slab
Exterior constructions
Integer	nConExt	2	Number of exterior constructions
Integer	nConExtWin	0	Number of window constructions
Partition constructions
Integer	nConPar	0	Number of partition constructions
Boundary constructions
Integer	nConBou	2	Number of constructions that have their outside surface exposed to the boundary of this room
Integer	nSurBou	3	Number of surface heat transfer models that connect to constructions that are modeled outside of this room
Convective heat transfer
InteriorConvection	intConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for room-facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hIntFixed	3.0	Constant convection coefficient for room-facing surfaces of opaque constructions [W/(m2.K)]
ExteriorConvection	extConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for exterior facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hExtFixed	10.0	Constant convection coefficient for exterior facing surfaces of opaque constructions [W/(m2.K)]
Nominal condition
MassFlowRate	m_flow_nominal	V*1.2/3600	Nominal mass flow rate [kg/s]
Ports
Boolean	use_C_flow	false	Set to true to enable input connector for trace substance that is connected to room air
Dynamics
Glazing system
Boolean	steadyStateWindow	false	Set to false to add thermal capacity at window, which generally leads to faster simulation
Zone air
Dynamics	energyDynamics	Modelica.Fluid.Types.Dynamic...	Type of energy balance for zone air: dynamic (3 initialization options) or steady state
Dynamics	massDynamics	energyDynamics	Type of mass balance for zone air: dynamic (3 initialization options) or steady state
Real	mSenFac	1	Factor for scaling the sensible thermal mass of the zone air volume
Advanced
Boolean	homotopyInitialization	true	= true, use homotopy method
Experimental (may be changed in future releases)
Boolean	sampleModel	false	Set to true to time-sample the model, which can give shorter simulation time if there is already time sampling in the system model
Initialization
AbsolutePressure	p_start	Medium.p_default	Start value of zone air pressure [Pa]
Temperature	T_start	Medium.T_default	Start value of zone air temperature [K]
MassFraction	X_start[Medium.nX]	Medium.X_default	Start value of zone air mass fractions m_i/m [kg/kg]
ExtraProperty	C_start[Medium.nC]	fill(0, Medium.nC)	Start value of zone air trace substances
ExtraProperty	C_nominal[Medium.nC]	fill(1E-2, Medium.nC)	Nominal value of zone air trace substances. (Set to typical order of magnitude.)

Connectors

Type	Name	Description
VesselFluidPorts_b	ports[nPorts]	Fluid inlets and outlets
HeatPort_a	heaPorAir	Heat port to air volume
HeatPort_a	heaPorRad	Heat port for radiative heat gain and radiative temperature
input RealInput	uWin[nConExtWin]	Control signal for window state (used for electrochromic windows, removed otherwise) [1]
HeatPort_a	surf_conBou[nConBou]	Heat port at surface b of construction conBou
HeatPort_a	surf_surBou[nSurBou]	Heat port of surface that is connected to the room air
input RealInput	qGai_flow[3]	Radiant, convective and latent heat input into room (positive if heat gain) [W/m2]
Bus	weaBus	Weather data
input RealInput	uSha[nConExtWin]	Control signal for the shading device (removed if no shade is present)
input RealInput	C_flow[Medium.nC]	Trace substance mass flow rate added to the room air. Enable if use_C_flow = true

Modelica definition

model ClosetFullBed "Model of the closet connected to test cell X3A intended to be connected to ThermalZones.Detailed.FLEXLAB.Rooms.X3B.Closet" extends Buildings.ThermalZones.Detailed.MixedAir( hRoo=3.6576, AFlo=3.93, lat=0.66098585832754, nConExt=2, nConBou=2, nSurBou=3, nConExtWin=0, nConPar=0, surBou( A={3.6576*2.886075 - 2.39*1.22,2.39*1.22,3.6576*1.524}, each absIR=0.9, each absSol=0.9, each til=Buildings.Types.Tilt.Wall), datConExt( layers={higIns,roo}, A={3.6576*1.667,AFlo}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Ceiling}, azi={Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.N}), datConBou( layers={higIns,slaCon}, A={3.6576*1.524,3.93}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Floor}, azi={Buildings.Types.Azimuth.W,Buildings.Types.Azimuth.N}, stateAtSurface_a={true,false})); replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.CellAndElectricalDividingWall higIns "High insulation wall. Between X3A closet and exterior, X3A closet and electrical room"; replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.TestCellDividngWall celDiv "Wall dividing the X3A closet and the X3B closet"; replaceable parameter Data.Constructions.OpaqueConstructions.Roofs.ASHRAE_901_2010Roof roo "Construction of the roof of the closet in X3A"; parameter HeatTransfer.Data.OpaqueConstructions.Generic slaCon(nLay=3, material={Buildings.HeatTransfer.Data.Solids.Generic( x=0.1524, k=1.13, c=1000, d=1400, nSta=5),Buildings.HeatTransfer.Data.Solids.Generic( x=0.127, k=0.036, c=1200, d=40),Buildings.HeatTransfer.Data.Solids.Generic( x=0.2, k=1.8, c=1100, d=2400)}) "Construction of the slab"; end ClosetFullBed;

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.Electrical

Model of the electrical room attached to test cell X3A

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.Electrical

Information

This is a model for the electrical room connected to test cell 3A in the LBNL User Facility. Other models are provided for the main space of the test cell and the connected closet. This documentation describes the wall constructions used in the electrical room model. For documentation describing how the room models are to be connected to develop a model of the entire X3A test cell see Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.

There are 4 different wall sections described in the model. They are shown in the figure below.

Wall sections in TestCell model

The different wall sections are entered into the model according to the following table.

Wall Section Number	Description	Location in Model	Corresponding Layer
1	North exterior wall	datConExt[1]	eleExt
2	East air space connecting to Closet	surBou[2]
3	South air space connecting to TestCell	surBou[1]
4	West exterior door and wall	Door: datConExt[3] Wall: datConExt[2]	Door: eleExt Wall: extDooUn

There are two additional surfaces which are not included in the diagram. One is the model of the roof. It is modeled in datConExt[4] using the layer roo. The other is the floor, which is modeled in datConBou[1] using the layer slaCon.

Several of the connections in this model are intended to be connected to specific surfaces in other room models. The following table describes the connections to rooms which are not in the X3A package. The constructions in datConExt are not described in the table because they are connected to the external environment, and no additional heat port connections are necessary. A rationale for why the model is created this way is also provided if it is considered necessary.

Location in Electrical	Description of External Connection	Rationale
surf_conBou[1]	Connection to ground temperature model	This port represents the bottom of the floor in the space. It is to be connected to a heat port representing the temperature of the ground.

Extends from Buildings.ThermalZones.Detailed.MixedAir (Model of a room in which the air is completely mixed).

Parameters

Type	Name	Default	Description
ParameterConstructionWithWindow	datConExtWin[NConExtWin]	datConExtWin(each T_a_start=...	Data for exterior construction with window
ParameterConstruction	datConPar[NConPar]	datConPar(each T_a_start=T_s...	Data for partition construction
Brick120	dummyCon		Dummy construction to assign a parameter to the instance
SingleClear3	dummyGlaSys		Dummy construction to assign a parameter to the instance
replaceable package Medium		PartialMedium	Medium in the component
Angle	lat	0.66098585832754	Latitude [rad]
Area	AFlo	2.39	Floor area [m2]
Length	hRoo	3.6576	Average room height [m]
Boolean	linearizeRadiation	true	Set to true to linearize emissive power
Construction3	eleExt	redeclare Data.Constructions...	Construction describing the exterior walls in the electrical room
ExteriorDoorUninsulated	extDooUn	redeclare parameter Data.Con...	Construction describing the door in the electrical room
ASHRAE_901_2010Roof	roo	redeclare parameter Data.Con...	Construction describing the roof of the electrical room
Generic	slaCon		Construction of the slab
Exterior constructions
Integer	nConExt	4	Number of exterior constructions
Integer	nConExtWin	0	Number of window constructions
Partition constructions
Integer	nConPar	0	Number of partition constructions
Boundary constructions
Integer	nConBou	1	Number of constructions that have their outside surface exposed to the boundary of this room
Integer	nSurBou	2	Number of surface heat transfer models that connect to constructions that are modeled outside of this room
Convective heat transfer
InteriorConvection	intConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for room-facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hIntFixed	3.0	Constant convection coefficient for room-facing surfaces of opaque constructions [W/(m2.K)]
ExteriorConvection	extConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for exterior facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hExtFixed	10.0	Constant convection coefficient for exterior facing surfaces of opaque constructions [W/(m2.K)]
Nominal condition
MassFlowRate	m_flow_nominal	V*1.2/3600	Nominal mass flow rate [kg/s]
Ports
Boolean	use_C_flow	false	Set to true to enable input connector for trace substance that is connected to room air
Dynamics
Glazing system
Boolean	steadyStateWindow	false	Set to false to add thermal capacity at window, which generally leads to faster simulation
Zone air
Dynamics	energyDynamics	Modelica.Fluid.Types.Dynamic...	Type of energy balance for zone air: dynamic (3 initialization options) or steady state
Dynamics	massDynamics	energyDynamics	Type of mass balance for zone air: dynamic (3 initialization options) or steady state
Real	mSenFac	1	Factor for scaling the sensible thermal mass of the zone air volume
Advanced
Boolean	homotopyInitialization	true	= true, use homotopy method
Experimental (may be changed in future releases)
Boolean	sampleModel	false	Set to true to time-sample the model, which can give shorter simulation time if there is already time sampling in the system model
Initialization
AbsolutePressure	p_start	Medium.p_default	Start value of zone air pressure [Pa]
Temperature	T_start	Medium.T_default	Start value of zone air temperature [K]
MassFraction	X_start[Medium.nX]	Medium.X_default	Start value of zone air mass fractions m_i/m [kg/kg]
ExtraProperty	C_start[Medium.nC]	fill(0, Medium.nC)	Start value of zone air trace substances
ExtraProperty	C_nominal[Medium.nC]	fill(1E-2, Medium.nC)	Nominal value of zone air trace substances. (Set to typical order of magnitude.)

Connectors

Type	Name	Description
VesselFluidPorts_b	ports[nPorts]	Fluid inlets and outlets
HeatPort_a	heaPorAir	Heat port to air volume
HeatPort_a	heaPorRad	Heat port for radiative heat gain and radiative temperature
input RealInput	uWin[nConExtWin]	Control signal for window state (used for electrochromic windows, removed otherwise) [1]
HeatPort_a	surf_conBou[nConBou]	Heat port at surface b of construction conBou
HeatPort_a	surf_surBou[nSurBou]	Heat port of surface that is connected to the room air
input RealInput	qGai_flow[3]	Radiant, convective and latent heat input into room (positive if heat gain) [W/m2]
Bus	weaBus	Weather data
input RealInput	uSha[nConExtWin]	Control signal for the shading device (removed if no shade is present)
input RealInput	C_flow[Medium.nC]	Trace substance mass flow rate added to the room air. Enable if use_C_flow = true

Modelica definition

model Electrical "Model of the electrical room attached to test cell X3A" extends Buildings.ThermalZones.Detailed.MixedAir( hRoo=3.6576, AFlo=2.39, lat=0.66098585832754, nSurBou=2, nConExt=4, nConExtWin=0, nConPar=0, nConBou=1, surBou( A={3.6576*1.2641,3.6576*1.524}, each absIR=0.9, each absSol=0.9, each til=Buildings.Types.Tilt.Wall), datConExt( layers={eleExt,eleExt,extDooUn,roo}, A={3.6576*1.26413,3.6576*1.524 - 2.38658*1.524,2.38658*1.524,2.39}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall, Buildings.Types.Tilt.Ceiling}, azi={Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.W,Buildings.Types.Azimuth.W, Buildings.Types.Azimuth.N}), datConBou( layers={slaCon}, A={2.39}, til={Buildings.Types.Tilt.Floor}, azi={Buildings.Types.Azimuth.N}, each stateAtSurface_a=false)); replaceable Data.Constructions.OpaqueConstructions.ExteriorConstructions.Construction3 eleExt "Construction describing the exterior walls in the electrical room"; replaceable parameter Data.Constructions.OpaqueConstructions.ExteriorConstructions.ExteriorDoorUninsulated extDooUn "Construction describing the door in the electrical room"; replaceable parameter Data.Constructions.OpaqueConstructions.Roofs.ASHRAE_901_2010Roof roo "Construction describing the roof of the electrical room"; parameter HeatTransfer.Data.OpaqueConstructions.Generic slaCon(nLay=3, material={Buildings.HeatTransfer.Data.Solids.Generic( x=0.1524, k=1.13, c=1000, d=1400, nSta=5),Buildings.HeatTransfer.Data.Solids.Generic( x=0.127, k=0.036, c=1200, d=40),Buildings.HeatTransfer.Data.Solids.Generic( x=0.2, k=1.8, c=1100, d=2400)}) "Construction of the slab"; end Electrical;

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.TestCell

Model of LBNL User Test Facility Cell X3A

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.TestCell

Information

This is a model for test cell 3A in the LBNL User Facility. This model is intended to represent the main space in test cell 3A. This documentation describes the wall constructions used to model test cell X3A. Documentation describing how it is to be combined to other room models to create a model of the full test cell can be found in Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.

There are 7 different wall sections described in the model. They are shown in the figure below.

Wall sections in test cell model

The different wall sections are entered into the model according to the following table.

Wall Section Number	Description	Location in Model	Corresponding Layer
1	The west wall is modeled in two parts. One part represents the dividing wall between test cells X3A and X2B. The other part represents a portion of the wall exposed to the ambient conditions. Wall 1 is the section of wall connected to test cell X2B.	datConBou[1]	bedDiv
2	The west wall is modeled in two parts. One part represents the dividing wall between test cell X3A and test cell X2B. The other part represents a portion of the wall exposed to the ambient conditions. Wall 2 is the section of wall exposed to ambient conditions.	datConExt[4]	bedDiv
3	This is the north exterior wall of test cell X3A. There are actually two constructions used here. One construction models the wall, the other construction models a door. The area calculation for the wall in the model shows the calculation of the total wall area minus the door area.	Door: datConExt[1]; Wall: datConExt[2]	Door: extDoo; Wall: R16p8Wal
4	This north wall borders an electrical room. It models the heat transfer between test cell X3A and the externally modeled electrical room. For an example see Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.Examples.X3AWithRadiantFloor.	datConBou[5]	R52Wal
5	This north wall borders an externally modeled closet. For an example see Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.Examples.X3AWithRadiantFloor. Similar to wall section 3 this wall section contains both a wall construction and a door construction. The wall area calculation shows the total wall area minus the door area.	Door: datConBou[4]; Wall: datConBou[3]	Door: parDoo; Wall: parCon
6	This east wall connects to test cell UF90X3B. This wall is removable, but this model was developed assuming that the wall is installed.	datConBou[2]	celDiv
7	This is the south wall of test cell X3A. It includes both a wall construction and windows. The bottoms of the windows are 3 ft above the floor.	datConExtWin[1]	Window: glaSys; Wall: R16p8Wal

An eigth construction, not shown in the figure, models the ceiling. It is modeled in datConExt[3] using the layer R20Wal.

The test cell can be configured with several different floor types. The options include radiant conditioning, a slab on grade floor with no conditioning, or a raised floor. Because of this uncertainty in floor design, a model of the floor itself is not included in this model. The user must include a model for the floor in any applications of this model.

Several of the connections in this model are intended to be connected to specific surfaces in other room models. The following table describes the connections to models outside of the X3A package. The connections in datConExt are not described in the table because they are connected to the external environment, and no additional heat port connections are necessary. A rationale for why the model is created this way is also provided if it is considered necessary.

Location in TestCell	Description of External Connection	Location in External Model	Rationale
surf_conBou[1]	Temperature of test cell X2B	References a data table	A data table is used, instead of a model of test cell X2B, because the goal of this model is to be able to perform simulations of TestCell with minimal complexity, by simplifying the neighboring test cells. The wall separating the test beds is highly insulated, and it is believed that the error in simulations caused by using a data table will be negligible.
surf_conBou[2]	Temperature of test cell X3B	References a data table	See rationale for surf_ConBou[1]

Extends from Buildings.ThermalZones.Detailed.MixedAir (Model of a room in which the air is completely mixed).

Parameters

Type	Name	Default	Description
ParameterConstruction	datConPar[NConPar]	datConPar(each T_a_start=T_s...	Data for partition construction
Brick120	dummyCon		Dummy construction to assign a parameter to the instance
SingleClear3	dummyGlaSys		Dummy construction to assign a parameter to the instance
replaceable package Medium		PartialMedium	Medium in the component
Angle	lat	0.66098585832754	Latitude [rad]
Area	AFlo	60.97	Floor area [m2]
Length	hRoo	3.6576	Average room height [m]
Boolean	linearizeRadiation	true	Set to true to linearize emissive power
Construction10and23	R16p8Wal	redeclare parameter Data.Con...
CellAndElectricalDividingWall	R52Wal	redeclare parameter Data.Con...
ASHRAE_901_2010Roof	R20Wal	redeclare parameter Data.Con...
ASHRAE901Gla	glaSys	redeclare parameter Data.Con...
PartitionWall	parCon	redeclare parameter Data.Con...
TestCellDividngWall	celDiv	redeclare parameter Data.Con...	Construction of wall connecting to cell UF90X3B
TestBedDividingWall	bedDiv	redeclare parameter Data.Con...	Construction of wall connecting to cell UF90X2B
PartitionDoor	parDoo	redeclare parameter Data.Con...	Door used in partition walls in FLEXLAB test cells
ExteriorDoorInsulated	extDoo	redeclare parameter Data.Con...	Construction of an exterior door
Exterior constructions
Integer	nConExt	4	Number of exterior constructions
Integer	nConExtWin	1	Number of window constructions
Partition constructions
Integer	nConPar	0	Number of partition constructions
Boundary constructions
Integer	nConBou	5	Number of constructions that have their outside surface exposed to the boundary of this room
Integer	nSurBou	4	Number of surface heat transfer models that connect to constructions that are modeled outside of this room
Convective heat transfer
InteriorConvection	intConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for room-facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hIntFixed	3.0	Constant convection coefficient for room-facing surfaces of opaque constructions [W/(m2.K)]
ExteriorConvection	extConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for exterior facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hExtFixed	10.0	Constant convection coefficient for exterior facing surfaces of opaque constructions [W/(m2.K)]
Nominal condition
MassFlowRate	m_flow_nominal	V*1.2/3600	Nominal mass flow rate [kg/s]
Ports
Boolean	use_C_flow	false	Set to true to enable input connector for trace substance that is connected to room air
Dynamics
Glazing system
Boolean	steadyStateWindow	false	Set to false to add thermal capacity at window, which generally leads to faster simulation
Zone air
Dynamics	energyDynamics	Modelica.Fluid.Types.Dynamic...	Type of energy balance for zone air: dynamic (3 initialization options) or steady state
Dynamics	massDynamics	energyDynamics	Type of mass balance for zone air: dynamic (3 initialization options) or steady state
Real	mSenFac	1	Factor for scaling the sensible thermal mass of the zone air volume
Advanced
Boolean	homotopyInitialization	true	= true, use homotopy method
Experimental (may be changed in future releases)
Boolean	sampleModel	false	Set to true to time-sample the model, which can give shorter simulation time if there is already time sampling in the system model
Initialization
AbsolutePressure	p_start	Medium.p_default	Start value of zone air pressure [Pa]
Temperature	T_start	Medium.T_default	Start value of zone air temperature [K]
MassFraction	X_start[Medium.nX]	Medium.X_default	Start value of zone air mass fractions m_i/m [kg/kg]
ExtraProperty	C_start[Medium.nC]	fill(0, Medium.nC)	Start value of zone air trace substances
ExtraProperty	C_nominal[Medium.nC]	fill(1E-2, Medium.nC)	Nominal value of zone air trace substances. (Set to typical order of magnitude.)

Connectors

Type	Name	Description
VesselFluidPorts_b	ports[nPorts]	Fluid inlets and outlets
HeatPort_a	heaPorAir	Heat port to air volume
HeatPort_a	heaPorRad	Heat port for radiative heat gain and radiative temperature
input RealInput	uWin[nConExtWin]	Control signal for window state (used for electrochromic windows, removed otherwise) [1]
HeatPort_a	surf_conBou[nConBou]	Heat port at surface b of construction conBou
HeatPort_a	surf_surBou[nSurBou]	Heat port of surface that is connected to the room air
input RealInput	qGai_flow[3]	Radiant, convective and latent heat input into room (positive if heat gain) [W/m2]
Bus	weaBus	Weather data
input RealInput	uSha[nConExtWin]	Control signal for the shading device (removed if no shade is present)
input RealInput	C_flow[Medium.nC]	Trace substance mass flow rate added to the room air. Enable if use_C_flow = true

Modelica definition

model TestCell "Model of LBNL User Test Facility Cell X3A" extends Buildings.ThermalZones.Detailed.MixedAir( AFlo=60.97, nSurBou=4, nConPar=0, nConBou=5, nConExt=4, nConExtWin=1, hRoo=3.6576, surBou( A={6.645*3.09,6.645*1.51,6.645*0.91,6.645*3.65}, each absIR=0.9, each absSol=0.9, each til=Buildings.Types.Tilt.Floor), datConExt( layers={extDoo,R16p8Wal,R20Wal,bedDiv}, A={1.3716*2.39,3.6576*2.52 - 2.39*1.3716,6.6675*9.144,3.6576*1.524}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Ceiling, Buildings.Types.Tilt.Wall}, azi={Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.S, Buildings.Types.Azimuth.W}), datConBou( layers={bedDiv,celDiv,parCon,parDoo,R52Wal}, A={3.6576*7.62,3.6576*9.144,3.6576*2.886075 - 2.39*1.22,2.39*1.22,3.6576*1.2614}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall, Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall}, azi={Buildings.Types.Azimuth.W,Buildings.Types.Azimuth.E,Buildings.Types.Azimuth.N, Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.N}, stateAtSurface_a={false,false,true,true,true}), datConExtWin( layers={R16p8Wal}, A={6.6675*3.6576}, glaSys={glaSys}, hWin={1.8288}, wWin={5.88}, til={Buildings.Types.Tilt.Wall}, azi={Buildings.Types.Azimuth.S}), intConMod=Buildings.HeatTransfer.Types.InteriorConvection.Temperature, extConMod=Buildings.HeatTransfer.Types.ExteriorConvection.TemperatureWind, lat=0.66098585832754); replaceable parameter Data.Constructions.OpaqueConstructions.ExteriorConstructions.Construction10and23 R16p8Wal; replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.CellAndElectricalDividingWall R52Wal; replaceable parameter Data.Constructions.OpaqueConstructions.Roofs.ASHRAE_901_2010Roof R20Wal; replaceable parameter Data.Constructions.GlazingSystems.ASHRAE901Gla glaSys; replaceable parameter Data.Constructions.OpaqueConstructions.PartitionConstructions.PartitionWall parCon; replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.TestCellDividngWall celDiv "Construction of wall connecting to cell UF90X3B"; replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.TestBedDividingWall bedDiv "Construction of wall connecting to cell UF90X2B"; replaceable parameter Data.Constructions.OpaqueConstructions.PartitionConstructions.PartitionDoor parDoo "Door used in partition walls in FLEXLAB test cells"; replaceable parameter Data.Constructions.OpaqueConstructions.ExteriorConstructions.ExteriorDoorInsulated extDoo "Construction of an exterior door"; end TestCell;

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.TestCellFullBed

Model of LBNL User Test Facility Cell X3A intended for connection with ThermalZones.Detailed.FLEXLAB.Rooms.X3B.TestCell

Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.TestCellFullBed

Information

This is a duplicate model of Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.TestCell with the wall separating X3A and X3B removed. It is designed for simulations where both X3A and X3B are used in the simulation to model the whole test bed. If a simulation is created using TestCell from both packages the dividing wall will be modeled twice, so one of the two models used must be created without the dividing wall in the model.

This documentation states only the items which are different from the Buildings.ThermalZones.Detailed.FLEXLAB.Rooms.X3A.TestCell model. For documentation on the rest of the walls and connections see that documentation instead.

There are 7 different wall sections described in the model. They are shown in the figure below. This documentation only describes wall section 6.

Wall sections in test cell model

The different wall sections are entered into the model according to the following table.

Wall Section Number	Description	Location in Model	Corresponding Layer
6	This east wall connects to test cell X3B. This model contains an air gap instead of a model of the wall. It is intended to be connected to the wall model in X3B.	surBou[2]

Because wall section 6 was moved from datConBou[2] to surBou[2] the reference for other constructions in datConBou have changed as well. These changes are documented in the following table.

Wall Section Number	Physical Description	Location in TestCell	Location in TestCelNoDiv
4	Insulated wall separating the test cell and the electrical room	datConBou[5]	datConBou[4]
5	Partition wall and door separating the test cell and the closet	Wall: datConBou[3] Door: datConBou[4]	Wall: datConBou[2] Door: datConBou[3]

Several of the connections in this model are intended to be connected to specific surfaces in other room models. The following table describes the connections to models outside of the X3A package. The connections in datConExt are not described in the table because they are connected to the external environment, and no additional heat port connections are necessary. A rationale for why the model is created this way is also provided if it is considered necessary.

Location in TestCell	Description of External Connection	Location in External Model	Rationale
surf_surBou[2]	Dividing wall modeled in ThermalZones.Detailed.FLEXLAB.Rooms.X3B.TestCell	X3B.TestCell.surf_conBou[1]	X3B.TestCell.surf_conBou[1] is the location of the cell dividing wall in the neighboring test cell. Connecting X3A.TestCellNoCelDiv.surf_surBou[2] to this port models heat transfer from the wall in ThermalZones.Detailed.FLEXLAB.Rooms.X3B.TestCell to the air in this space.

Extends from Buildings.ThermalZones.Detailed.MixedAir (Model of a room in which the air is completely mixed).

Parameters

Type	Name	Default	Description
ParameterConstruction	datConPar[NConPar]	datConPar(each T_a_start=T_s...	Data for partition construction
Brick120	dummyCon		Dummy construction to assign a parameter to the instance
SingleClear3	dummyGlaSys		Dummy construction to assign a parameter to the instance
replaceable package Medium		PartialMedium	Medium in the component
Angle	lat	0.66098585832754	Latitude [rad]
Area	AFlo	60.97	Floor area [m2]
Length	hRoo	3.6576	Average room height [m]
Boolean	linearizeRadiation	true	Set to true to linearize emissive power
Construction10and23	R16p8Wal	redeclare parameter Data.Con...
CellAndElectricalDividingWall	R52Wal	redeclare parameter Data.Con...
ASHRAE_901_2010Roof	R20Wal	redeclare parameter Data.Con...
ASHRAE901Gla	glaSys	redeclare parameter Data.Con...
PartitionWall	parCon	redeclare parameter Data.Con...
TestCellDividngWall	celDiv	redeclare parameter Data.Con...	Construction of wall connecting to cell UF90X3B
TestBedDividingWall	bedDiv	redeclare parameter Data.Con...	Construction of wall connecting to cell UF90X2B
PartitionDoor	parDoo	redeclare parameter Data.Con...	Door used in partition walls in FLEXLAB test cells
ExteriorDoorInsulated	extDoo	redeclare parameter Data.Con...	Construction of an exterior door
Exterior constructions
Integer	nConExt	4	Number of exterior constructions
Integer	nConExtWin	1	Number of window constructions
Partition constructions
Integer	nConPar	0	Number of partition constructions
Boundary constructions
Integer	nConBou	4	Number of constructions that have their outside surface exposed to the boundary of this room
Integer	nSurBou	5	Number of surface heat transfer models that connect to constructions that are modeled outside of this room
Convective heat transfer
InteriorConvection	intConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for room-facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hIntFixed	3.0	Constant convection coefficient for room-facing surfaces of opaque constructions [W/(m2.K)]
ExteriorConvection	extConMod	Buildings.HeatTransfer.Types...	Convective heat transfer model for exterior facing surfaces of opaque constructions
CoefficientOfHeatTransfer	hExtFixed	10.0	Constant convection coefficient for exterior facing surfaces of opaque constructions [W/(m2.K)]
Nominal condition
MassFlowRate	m_flow_nominal	V*1.2/3600	Nominal mass flow rate [kg/s]
Ports
Boolean	use_C_flow	false	Set to true to enable input connector for trace substance that is connected to room air
Dynamics
Glazing system
Boolean	steadyStateWindow	false	Set to false to add thermal capacity at window, which generally leads to faster simulation
Zone air
Dynamics	energyDynamics	Modelica.Fluid.Types.Dynamic...	Type of energy balance for zone air: dynamic (3 initialization options) or steady state
Dynamics	massDynamics	energyDynamics	Type of mass balance for zone air: dynamic (3 initialization options) or steady state
Real	mSenFac	1	Factor for scaling the sensible thermal mass of the zone air volume
Advanced
Boolean	homotopyInitialization	true	= true, use homotopy method
Experimental (may be changed in future releases)
Boolean	sampleModel	false	Set to true to time-sample the model, which can give shorter simulation time if there is already time sampling in the system model
Initialization
AbsolutePressure	p_start	Medium.p_default	Start value of zone air pressure [Pa]
Temperature	T_start	Medium.T_default	Start value of zone air temperature [K]
MassFraction	X_start[Medium.nX]	Medium.X_default	Start value of zone air mass fractions m_i/m [kg/kg]
ExtraProperty	C_start[Medium.nC]	fill(0, Medium.nC)	Start value of zone air trace substances
ExtraProperty	C_nominal[Medium.nC]	fill(1E-2, Medium.nC)	Nominal value of zone air trace substances. (Set to typical order of magnitude.)

Connectors

Type	Name	Description
VesselFluidPorts_b	ports[nPorts]	Fluid inlets and outlets
HeatPort_a	heaPorAir	Heat port to air volume
HeatPort_a	heaPorRad	Heat port for radiative heat gain and radiative temperature
input RealInput	uWin[nConExtWin]	Control signal for window state (used for electrochromic windows, removed otherwise) [1]
HeatPort_a	surf_conBou[nConBou]	Heat port at surface b of construction conBou
HeatPort_a	surf_surBou[nSurBou]	Heat port of surface that is connected to the room air
input RealInput	qGai_flow[3]	Radiant, convective and latent heat input into room (positive if heat gain) [W/m2]
Bus	weaBus	Weather data
input RealInput	uSha[nConExtWin]	Control signal for the shading device (removed if no shade is present)
input RealInput	C_flow[Medium.nC]	Trace substance mass flow rate added to the room air. Enable if use_C_flow = true

Modelica definition

model TestCellFullBed "Model of LBNL User Test Facility Cell X3A intended for connection with ThermalZones.Detailed.FLEXLAB.Rooms.X3B.TestCell" extends Buildings.ThermalZones.Detailed.MixedAir( AFlo=60.97, nSurBou=5, nConPar=0, nConBou=4, nConExt=4, nConExtWin=1, hRoo=3.6576, surBou( A={6.645*3.09,6.645*1.51,6.645*0.91,6.645*3.65,3.6575*9.144}, each absIR=0.9, each absSol=0.9, til={Buildings.Types.Tilt.Floor,Buildings.Types.Tilt.Floor,Buildings.Types.Tilt.Floor, Buildings.Types.Tilt.Floor,Buildings.Types.Tilt.Wall}), datConExt( layers={extDoo,R16p8Wal,R20Wal,bedDiv}, A={1.3716*2.39,3.6576*2.52 - 2.39*1.3716,6.6675*9.144,3.6576*1.524}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Ceiling, Buildings.Types.Tilt.Wall}, azi={Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.S, Buildings.Types.Azimuth.W}), datConBou( layers={bedDiv,parCon,parDoo,R52Wal}, A={3.6576*7.62,3.6576*2.886075 - 2.39*1.22,2.39*1.22,3.6576*1.2614}, til={Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall,Buildings.Types.Tilt.Wall, Buildings.Types.Tilt.Wall}, azi={Buildings.Types.Azimuth.W,Buildings.Types.Azimuth.N,Buildings.Types.Azimuth.N, Buildings.Types.Azimuth.N}, stateAtSurface_a={false,true,true,true}), datConExtWin( layers={R16p8Wal}, A={6.6675*3.6576}, glaSys={glaSys}, hWin={1.8288}, wWin={5.88}, til={Buildings.Types.Tilt.Wall}, azi={Buildings.Types.Azimuth.S}), intConMod=Buildings.HeatTransfer.Types.InteriorConvection.Temperature, extConMod=Buildings.HeatTransfer.Types.ExteriorConvection.TemperatureWind, lat=0.66098585832754); replaceable parameter Data.Constructions.OpaqueConstructions.ExteriorConstructions.Construction10and23 R16p8Wal; replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.CellAndElectricalDividingWall R52Wal; replaceable parameter Data.Constructions.OpaqueConstructions.Roofs.ASHRAE_901_2010Roof R20Wal; replaceable parameter Data.Constructions.GlazingSystems.ASHRAE901Gla glaSys; replaceable parameter Data.Constructions.OpaqueConstructions.PartitionConstructions.PartitionWall parCon; replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.TestCellDividngWall celDiv "Construction of wall connecting to cell UF90X3B"; replaceable parameter Data.Constructions.OpaqueConstructions.DividingWalls.TestBedDividingWall bedDiv "Construction of wall connecting to cell UF90X2B"; replaceable parameter Data.Constructions.OpaqueConstructions.PartitionConstructions.PartitionDoor parDoo "Door used in partition walls in FLEXLAB test cells"; replaceable parameter Data.Constructions.OpaqueConstructions.ExteriorConstructions.ExteriorDoorInsulated extDoo "Construction of an exterior door"; end TestCellFullBed;