This package contains basic mathematical operations, such as summation and multiplication, and basic mathematical functions, such as sqrt and sin, as input/output blocks. All blocks of this library can be either connected with continuous blocks or with sampled-data blocks.
Extends from Modelica.Icons.Library (Icon for library).
Name | Description |
---|---|
UnitConversions | Conversion blocks to convert between SI and non-SI unit signals |
InverseBlockConstraints | Construct inverse model by requiring that two inputs and two outputs are identical (replaces the previously, unbalanced, TwoInputs and TwoOutputs blocks) |
Gain | Output the product of a gain value with the input signal |
MatrixGain | Output the product of a gain matrix with the input signal vector |
Sum | Output the sum of the elements of the input vector |
Feedback | Output difference between commanded and feedback input |
Add | Output the sum of the two inputs |
Add3 | Output the sum of the three inputs |
Product | Output product of the two inputs |
Division | Output first input divided by second input |
Abs | Output the absolute value of the input |
Sign | Output the sign of the input |
Sqrt | Output the square root of the input (input >= 0 required) |
Sin | Output the sine of the input |
Cos | Output the cosine of the input |
Tan | Output the tangent of the input |
Asin | Output the arc sine of the input |
Acos | Output the arc cosine of the input |
Atan | Output the arc tangent of the input |
Atan2 | Output atan(u1/u2) of the inputs u1 and u2 |
Sinh | Output the hyperbolic sine of the input |
Cosh | Output the hyperbolic cosine of the input |
Tanh | Output the hyperbolic tangent of the input |
Exp | Output the exponential (base e) of the input |
Log | Output the natural (base e) logarithm of the input (input > 0 required) |
Log10 | Output the base 10 logarithm of the input (input > 0 required) |
RealToInteger | Convert Real to Integer signal |
IntegerToReal | Convert integer to real signals |
BooleanToReal | Convert Boolean to Real signal |
BooleanToInteger | Convert Boolean to Integer signal |
RealToBoolean | Convert Real to Boolean signal |
IntegerToBoolean | Convert Integer to Boolean signal |
RectangularToPolar | Convert rectangular coordinates to polar coordinates |
PolarToRectangular | Convert polar coordinates to rectangular coordinates |
Max | Pass through the largest signal |
Min | Pass through the smallest signal |
Edge | Indicates rising edge of boolean signal |
BooleanChange | Indicates boolean signal changing |
IntegerChange | Indicates integer signal changing |
Exchange input and ouput signals of a block, i.e., the previous block inputs become block outputs and the previous block outputs become block inputs. This block is used to construct inverse models. Its usage is demonstrated in example: Modelica.Blocks.Examples.InverseModel.
Note, if a block shall be inverted that has several input and output blocks, then this can be easily achieved by using a vector of InverseBlockConstraints instances:
InverseBlockConstraint invert[3]; // Block to be inverted has 3 input signals
Type | Name | Description |
---|---|---|
input RealInput | u1 | Input signal 1 (u1 = u2) |
input RealInput | u2 | Input signal 2 (u1 = u2) |
output RealOutput | y1 | Output signal 1 (y1 = y2) |
output RealOutput | y2 | Output signal 2 (y2 = y2) |
block InverseBlockConstraints "Construct inverse model by requiring that two inputs and two outputs are identical (replaces the previously, unbalanced, TwoInputs and TwoOutputs blocks)"Modelica.Blocks.Interfaces.RealInput u1 "Input signal 1 (u1 = u2)"; Modelica.Blocks.Interfaces.RealInput u2 "Input signal 2 (u1 = u2)"; Modelica.Blocks.Interfaces.RealOutput y1 "Output signal 1 (y1 = y2)"; Modelica.Blocks.Interfaces.RealOutput y2 "Output signal 2 (y2 = y2)"; equation u1 = u2; y1 = y2;end InverseBlockConstraints;
This block computes output y as product of gain k with the input u:
y = k * u;
Type | Name | Default | Description |
---|---|---|---|
Real | k | Gain value multiplied with input signal |
Type | Name | Description |
---|---|---|
input RealInput | u | Input signal connector |
output RealOutput | y | Output signal connector |
block Gain "Output the product of a gain value with the input signal" parameter Real k(start=1) "Gain value multiplied with input signal";public Interfaces.RealInput u "Input signal connector"; Interfaces.RealOutput y "Output signal connector"; equation y = k*u;end Gain;
This blocks computes output vector y as product of the gain matrix K with the input signal vector u:
y = K * u;
Example:
parameter: K = [0.12 2; 3 1.5] results in the following equations: | y[1] | | 0.12 2.00 | | u[1] | | | = | | * | | | y[2] | | 3.00 1.50 | | u[2] |
Extends from Interfaces.MIMO (Multiple Input Multiple Output continuous control block).
Type | Name | Default | Description |
---|---|---|---|
Real | K[:, :] | [1, 0; 0, 1] | Gain matrix which is multiplied with the input |
Integer | nin | size(K, 2) | Number of inputs |
Integer | nout | size(K, 1) | Number of outputs |
Type | Name | Description |
---|---|---|
input RealInput | u[nin] | Connector of Real input signals |
output RealOutput | y[nout] | Connector of Real output signals |
block MatrixGain "Output the product of a gain matrix with the input signal vector" parameter Real K[:, :]=[1, 0; 0, 1] "Gain matrix which is multiplied with the input"; extends Interfaces.MIMO(final nin=size(K, 2), final nout=size(K, 1)); equation y = K*u;end MatrixGain;
This blocks computes output y as sum of the elements of the input signal vector u:
y = u[1] + u[2] + ...;
Example:
parameter: nin = 3; results in the following equations: y = u[1] + u[2] + u[3];
Extends from Interfaces.MISO (Multiple Input Single Output continuous control block).
Type | Name | Default | Description |
---|---|---|---|
Integer | nin | 1 | Number of inputs |
Real | k[nin] | ones(nin) | Optional: sum coefficients |
Type | Name | Description |
---|---|---|
input RealInput | u[nin] | Connector of Real input signals |
output RealOutput | y | Connector of Real output signal |
block Sum "Output the sum of the elements of the input vector" extends Interfaces.MISO; parameter Real k[nin]=ones(nin) "Optional: sum coefficients"; equation y = k*u;end Sum;
This blocks computes output y as difference of the commanded input u1 and the feedback input u2:
y = u1 - u2;
Example:
parameter: n = 2 results in the following equations: y = u1 - u2
Type | Name | Description |
---|---|---|
input RealInput | u1 | |
input RealInput | u2 | |
output RealOutput | y |
block Feedback "Output difference between commanded and feedback input"input Interfaces.RealInput u1; input Interfaces.RealInput u2; output Interfaces.RealOutput y; equation y = u1 - u2;end Feedback;
This blocks computes output y as sum of the two input signals u1 and u2:
y = k1*u1 + k2*u2;
Example:
parameter: k1= +2, k2= -3 results in the following equations: y = 2 * u1 - 3 * u2
Extends from Interfaces.SI2SO (2 Single Input / 1 Single Output continuous control block).
Type | Name | Default | Description |
---|---|---|---|
Real | k1 | +1 | Gain of upper input |
Real | k2 | +1 | Gain of lower input |
Type | Name | Description |
---|---|---|
input RealInput | u1 | Connector of Real input signal 1 |
input RealInput | u2 | Connector of Real input signal 2 |
output RealOutput | y | Connector of Real output signal |
block Add "Output the sum of the two inputs" extends Interfaces.SI2SO; parameter Real k1=+1 "Gain of upper input"; parameter Real k2=+1 "Gain of lower input"; equation y = k1*u1 + k2*u2;end Add;
This blocks computes output y as sum of the three input signals u1, u2 and u3:
y = k1*u1 + k2*u2 + k3*u3;
Example:
parameter: k1= +2, k2= -3, k3=1; results in the following equations: y = 2 * u1 - 3 * u2 + u3;
Extends from Interfaces.BlockIcon (Basic graphical layout of input/output block).
Type | Name | Default | Description |
---|---|---|---|
Real | k1 | +1 | Gain of upper input |
Real | k2 | +1 | Gain of middle input |
Real | k3 | +1 | Gain of lower input |
Type | Name | Description |
---|---|---|
input RealInput | u1 | Connector 1 of Real input signals |
input RealInput | u2 | Connector 2 of Real input signals |
input RealInput | u3 | Connector 3 of Real input signals |
output RealOutput | y | Connector of Real output signals |
block Add3 "Output the sum of the three inputs" extends Interfaces.BlockIcon; parameter Real k1=+1 "Gain of upper input"; parameter Real k2=+1 "Gain of middle input"; parameter Real k3=+1 "Gain of lower input";input Interfaces.RealInput u1 "Connector 1 of Real input signals"; input Interfaces.RealInput u2 "Connector 2 of Real input signals"; input Interfaces.RealInput u3 "Connector 3 of Real input signals"; output Interfaces.RealOutput y "Connector of Real output signals"; equation y = k1*u1 + k2*u2 + k3*u3;end Add3;
This blocks computes the output y (element-wise) as product of the corresponding elements of the two inputs u1 and u2:
y = u1 * u2;
Extends from Interfaces.SI2SO (2 Single Input / 1 Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u1 | Connector of Real input signal 1 |
input RealInput | u2 | Connector of Real input signal 2 |
output RealOutput | y | Connector of Real output signal |
block Product "Output product of the two inputs" extends Interfaces.SI2SO; equation y = u1*u2;end Product;
This block computes the output y (element-wise) by dividing the corresponding elements of the two inputs u1 and u2:
y = u1 / u2;
Extends from Interfaces.SI2SO (2 Single Input / 1 Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u1 | Connector of Real input signal 1 |
input RealInput | u2 | Connector of Real input signal 2 |
output RealOutput | y | Connector of Real output signal |
block Division "Output first input divided by second input" extends Interfaces.SI2SO; equation y = u1/u2;end Division;
This blocks computes the output y as absolute value of the input u:
y = abs( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Abs "Output the absolute value of the input" extends Interfaces.SISO; equation y = abs(u);end Abs;
This blocks computes the output y as sign of the input u:
1 if u > 0 y = 0 if u == 0 -1 if u < 0
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Sign "Output the sign of the input" extends Interfaces.SISO; equation y = sign(u);end Sign;
This blocks computes the output y as square root of the input u:
y = sqrt( u );
All elements of the input vector shall be zero or positive. Otherwise an error occurs.
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Sqrt "Output the square root of the input (input >= 0 required)" extends Interfaces.SISO; equation y = sqrt(u);end Sqrt;
This blocks computes the output y as sine of the input u:
y = sin( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Sin "Output the sine of the input" extends Interfaces.SISO; equation y = Modelica.Math.sin(u);end Sin;
This blocks computes the output y as cos of the input u:
y = cos( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Cos "Output the cosine of the input" extends Interfaces.SISO; equation y = Modelica.Math.cos(u);end Cos;
This blocks computes the output y as tan of the input u:
y = tan( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Tan "Output the tangent of the input" extends Interfaces.SISO; equation y = Modelica.Math.tan(u);end Tan;
This blocks computes the output y as the sine-inverse of the input u:
y = asin( u );
The absolute values of the elements of the input u need to be less or equal to one (abs( u ) <= 1). Otherwise an error occurs.
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Asin "Output the arc sine of the input" extends Interfaces.SISO; equation y = Modelica.Math.asin(u);end Asin;
This blocks computes the output y as the cosine-inverse of the input u:
y = acos( u );
The absolute values of the elements of the input u need to be less or equal to one (abs( u ) <= 1). Otherwise an error occurs.
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Acos "Output the arc cosine of the input" extends Interfaces.SISO; equation y = Modelica.Math.acos(u);end Acos;
This blocks computes the output y as the tangent-inverse of the input u:
y= atan( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Atan "Output the arc tangent of the input" extends Interfaces.SISO; equation y = Modelica.Math.atan(u);end Atan;
This blocks computes the output y as the tangent-inverse of the input u1 divided by input u2:
y = atan2( u1, u2 );
u1 and u2 shall not be zero at the same time instant. Atan2 uses the sign of u1 and u2 in order to construct the solution in the range -180 deg ≤ y ≤ 180 deg, whereas block Atan gives a solution in the range -90 deg ≤ y ≤ 90 deg.
Extends from Interfaces.SI2SO (2 Single Input / 1 Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u1 | Connector of Real input signal 1 |
input RealInput | u2 | Connector of Real input signal 2 |
output RealOutput | y | Connector of Real output signal |
block Atan2 "Output atan(u1/u2) of the inputs u1 and u2" extends Interfaces.SI2SO; equation y = Modelica.Math.atan2(u1, u2);end Atan2;
This blocks computes the output y as the hyperbolic sine of the input u:
y = sinh( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Sinh "Output the hyperbolic sine of the input" extends Interfaces.SISO; equation y = Modelica.Math.sinh(u);end Sinh;
This blocks computes the output y as the hyperbolic cosine of the input u:
y = cosh( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Cosh "Output the hyperbolic cosine of the input" extends Interfaces.SISO; equation y = Modelica.Math.cosh(u);end Cosh;
This blocks computes the output y as the hyperbolic tangent of the input u:
y = tanh( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Tanh "Output the hyperbolic tangent of the input" extends Interfaces.SISO; equation y = Modelica.Math.tanh(u);end Tanh;
This blocks computes the output y as the exponential (of base e) of the input u:
y = exp( u );
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Exp "Output the exponential (base e) of the input" extends Interfaces.SISO; equation y = Modelica.Math.exp(u);end Exp;
This blocks computes the output y as the natural (base e) logarithm of the input u:
y = log( u );
An error occurs if the elements of the input u are zero or negative.
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Log "Output the natural (base e) logarithm of the input (input > 0 required)" extends Interfaces.SISO; equation y = Modelica.Math.log(u);end Log;
This blocks computes the output y as the base 10 logarithm of the input u:
y = log10( u );
An error occurs if the elements of the input u are zero or negative.
Extends from Interfaces.SISO (Single Input Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output RealOutput | y | Connector of Real output signal |
block Log10 "Output the base 10 logarithm of the input (input > 0 required)" extends Interfaces.SISO; equation y = Modelica.Math.log10(u);end Log10;
This block computes the output y as nearest integer value of the input u:
y = integer( floor( u + 0.5 ) ) for u > 0; y = integer( ceil ( u - 0.5 ) ) for u < 0;
Extends from Interfaces.IntegerBlockIcon (Basic graphical layout of Integer block).
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output IntegerOutput | y | Connector of Integer output signal |
block RealToInteger "Convert Real to Integer signal" extends Interfaces.IntegerBlockIcon;public Interfaces.RealInput u "Connector of Real input signal"; Interfaces.IntegerOutput y "Connector of Integer output signal"; equation y = if (u > 0) then integer(floor(u + 0.5)) else integer(ceil( u - 0.5));end RealToInteger;
This block computes the output y as Real equivalent of the Integer input u:
y = u;
where u is of Integer and y of Real type.
Extends from Interfaces.BlockIcon (Basic graphical layout of input/output block).
Type | Name | Description |
---|---|---|
input IntegerInput | u | Connector of Integer input signal |
output RealOutput | y | Connector of Real output signal |
block IntegerToReal "Convert integer to real signals" extends Interfaces.BlockIcon;Interfaces.IntegerInput u "Connector of Integer input signal"; Interfaces.RealOutput y "Connector of Real output signal"; equation y = u;end IntegerToReal;
This block computes the output y as Real equivalent of the Boolean input u:
y = if u then realTrue else realFalse;
where u is of Boolean and y of Real type, and realTrue and realFalse are parameters.
Extends from Interfaces.partialBooleanSI (Partial block with 1 input Boolean signal).
Type | Name | Default | Description |
---|---|---|---|
Real | realTrue | 1.0 | Output signal for true Boolean input |
Real | realFalse | 0.0 | Output signal for false Boolean input |
Type | Name | Description |
---|---|---|
input BooleanInput | u | Connector of Boolean input signal |
output RealOutput | y | Connector of Real output signal |
block BooleanToReal "Convert Boolean to Real signal" extends Interfaces.partialBooleanSI; parameter Real realTrue=1.0 "Output signal for true Boolean input"; parameter Real realFalse=0.0 "Output signal for false Boolean input";Blocks.Interfaces.RealOutput y "Connector of Real output signal"; equation y = if u then realTrue else realFalse;end BooleanToReal;
This block computes the output y as Integer equivalent of the Boolean input u:
y = if u then integerTrue else integerFalse;
where u is of Boolean and y of Integer type, and integerTrue and integerFalse are parameters.
Extends from Interfaces.partialBooleanSI (Partial block with 1 input Boolean signal).
Type | Name | Default | Description |
---|---|---|---|
Integer | integerTrue | 1 | Output signal for true Boolean input |
Integer | integerFalse | 0 | Output signal for false Boolean input |
Type | Name | Description |
---|---|---|
input BooleanInput | u | Connector of Boolean input signal |
output IntegerOutput | y | Connector of Integer output signal |
block BooleanToInteger "Convert Boolean to Integer signal" extends Interfaces.partialBooleanSI; parameter Integer integerTrue=1 "Output signal for true Boolean input"; parameter Integer integerFalse=0 "Output signal for false Boolean input";Blocks.Interfaces.IntegerOutput y "Connector of Integer output signal"; equation y = if u then integerTrue else integerFalse;end BooleanToInteger;
This block computes the Boolean output y from the Real input u by the equation:
y = u ≥ threshold;
where threshold is a parameter.
Extends from Interfaces.partialBooleanSO (Partial block with 1 output Boolean signal).
Type | Name | Default | Description |
---|---|---|---|
Real | threshold | 0.5 | Output signal y is true, if input u >= threshold |
Type | Name | Description |
---|---|---|
input RealInput | u | Connector of Real input signal |
output BooleanOutput | y | Connector of Boolean output signal |
block RealToBoolean "Convert Real to Boolean signal"Blocks.Interfaces.RealInput u "Connector of Real input signal"; extends Interfaces.partialBooleanSO; parameter Real threshold=0.5 "Output signal y is true, if input u >= threshold"; equation y = u >= threshold;end RealToBoolean;
This block computes the Boolean output y from the Integer input u by the equation:
y = u ≥ threshold;
where threshold is a parameter.
Extends from Interfaces.partialBooleanSO (Partial block with 1 output Boolean signal).
Type | Name | Default | Description |
---|---|---|---|
Integer | threshold | 1 | Output signal y is true, if input u >= threshold |
Type | Name | Description |
---|---|---|
input IntegerInput | u | Connector of Integer input signal |
output BooleanOutput | y | Connector of Boolean output signal |
block IntegerToBoolean "Convert Integer to Boolean signal"Blocks.Interfaces.IntegerInput u "Connector of Integer input signal"; extends Interfaces.partialBooleanSO; parameter Integer threshold=1 "Output signal y is true, if input u >= threshold"; equation y = u >= threshold;end IntegerToBoolean;
The input values of this block are the rectangular components
u_re
and u_im
of a phasor in two dimensions.
This block calculates the length y_abs
and
the angle y_arg
of the polar representation of this phasor.
y_abs = abs(u_re + j*u_im) = sqrt( u_re2 + u_im2 ) y_arg = arg(u_re + j*u_im) = atan2(u_im, u_re)
Extends from Modelica.Blocks.Interfaces.BlockIcon (Basic graphical layout of input/output block).
Type | Name | Description |
---|---|---|
input RealInput | u_re | Real part of rectangular representation |
input RealInput | u_im | Imaginary part of rectangular representation |
output RealOutput | y_abs | Length of polar representation |
output RealOutput | y_arg | Angle of polar representation |
block RectangularToPolar "Convert rectangular coordinates to polar coordinates" extends Modelica.Blocks.Interfaces.BlockIcon;Modelica.Blocks.Interfaces.RealInput u_re "Real part of rectangular representation"; Modelica.Blocks.Interfaces.RealInput u_im "Imaginary part of rectangular representation"; Modelica.Blocks.Interfaces.RealOutput y_abs "Length of polar representation"; Modelica.Blocks.Interfaces.RealOutput y_arg "Angle of polar representation"; equation y_abs = sqrt(u_re*u_re + u_im*u_im); y_arg = Modelica.Math.atan2(u_im, u_re);end RectangularToPolar;
The input values of this block are the polar components uabs
and uarg
of a phasor.
This block calculates the components y_re
and y_im
of the rectangular representation of this phasor.
y_re = u_abs * cos( u_arg ) y_im = u_abs * sin( u_arg )
Extends from Modelica.Blocks.Interfaces.BlockIcon (Basic graphical layout of input/output block).
Type | Name | Description |
---|---|---|
input RealInput | u_abs | Length of polar representation |
input RealInput | u_arg | Angle of polar representation |
output RealOutput | y_re | Real part of rectangular representation |
output RealOutput | y_im | Imaginary part of rectangular representation |
block PolarToRectangular "Convert polar coordinates to rectangular coordinates" extends Modelica.Blocks.Interfaces.BlockIcon;Modelica.Blocks.Interfaces.RealInput u_abs "Length of polar representation"; Modelica.Blocks.Interfaces.RealInput u_arg "Angle of polar representation"; Modelica.Blocks.Interfaces.RealOutput y_re "Real part of rectangular representation"; Modelica.Blocks.Interfaces.RealOutput y_im "Imaginary part of rectangular representation"; equation y_re = u_abs * Modelica.Math.cos(u_arg); y_im = u_abs * Modelica.Math.sin(u_arg);end PolarToRectangular;
This block computes the output y as maximum of the two Real inputs u1 and u2:
y = max ( u1 , u2 );
Extends from Interfaces.SI2SO (2 Single Input / 1 Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u1 | Connector of Real input signal 1 |
input RealInput | u2 | Connector of Real input signal 2 |
output RealOutput | y | Connector of Real output signal |
block Max "Pass through the largest signal" extends Interfaces.SI2SO; equation y = max(u1, u2);end Max;
This block computes the output y as minimum of the two Real inputs u1 and u2:
y = min ( u1 , u2 );
Extends from Interfaces.SI2SO (2 Single Input / 1 Single Output continuous control block).
Type | Name | Description |
---|---|---|
input RealInput | u1 | Connector of Real input signal 1 |
input RealInput | u2 | Connector of Real input signal 2 |
output RealOutput | y | Connector of Real output signal |
block Min "Pass through the smallest signal" extends Interfaces.SI2SO; equation y = min(u1, u2);end Min;
This block sets the Boolean output y to true, when the Boolean input u shows a rising edge:
y = edge( u );
Extends from Interfaces.BooleanSISO (Single Input Single Output control block with signals of type Boolean).
Type | Name | Description |
---|---|---|
input BooleanInput | u | Connector of Boolean input signal |
output BooleanOutput | y | Connector of Boolean output signal |
block Edge "Indicates rising edge of boolean signal" extends Interfaces.BooleanSISO; equation y = edge(u);end Edge;
This block sets the Boolean output y to true, when the Boolean input u shows a rising or falling edge, i.e., when the signal changes:
y = change( u );
Extends from Interfaces.BooleanSISO (Single Input Single Output control block with signals of type Boolean).
Type | Name | Description |
---|---|---|
input BooleanInput | u | Connector of Boolean input signal |
output BooleanOutput | y | Connector of Boolean output signal |
block BooleanChange "Indicates boolean signal changing" extends Interfaces.BooleanSISO; equation y = change(u);end BooleanChange;
This block sets the Boolean output y to true, when the Integer input u changes:
y = change( u );
Extends from Interfaces.IntegerSIBooleanSO (Integer Input Boolean Output continuous control block).
Type | Name | Description |
---|---|---|
input IntegerInput | u | Connector of Integer input signal |
output BooleanOutput | y | Connector of Boolean output signal |
block IntegerChange "Indicates integer signal changing" extends Interfaces.IntegerSIBooleanSO; equation y = change(u);end IntegerChange;