The voltage/current at the output terminals is a function of the voltage/current at the input terminals, dependent on the mathematical function of the block.
Note: |
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If the argument of log(), ln(), or sqrt() becomes less than zero, the absolute value of the argument is used. If a divisor becomes zero or the argument of log() or ln() becomes zero, an error will result. Other problems may occur when the argument for a function in a partial derivative enters a region where that function is undefined. The argument of the trigonometric functions are in radians. |
| Device | Description | ||||||
|---|---|---|---|---|---|---|---|
| ABSI | Absolute value of input current. | ||||||
| ABSV | Absolute value of input voltage. | ||||||
| ABSVR | Absolute value of input differential voltage. | ||||||
| ACOSHI | Inverse hyperbolic cosine of input current. | ||||||
| ACOSHV | Inverse hyperbolic cosine of input voltage. | ||||||
| ACOSHVR | Inverse hyperbolic cosine of input differential voltage. | ||||||
| ACOSI | Inverse cosine of input current. | ||||||
| ACOSV | Inverse cosine of input voltage. | ||||||
| ACOSVR | Inverse cosine of input differential voltage. | ||||||
| ADDI | Sum of input currents. | ||||||
| ADDV | Sum of input voltages. | ||||||
| ADDVR | Sum of input differential voltages. | ||||||
| ASINHI | Inverse hyperbolic sine of input current. | ||||||
| ASINHV | Inverse hyperbolic sine of input voltage. | ||||||
| ASINHVR | Inverse hyperbolic sine of input differential voltage. | ||||||
| ASINI | Inverse sine of input current. | ||||||
| ASINV | Inverse sine of input voltage. | ||||||
| ASINVR | Inverse sine of input differential voltage. | ||||||
| ATANHI | Inverse hyperbolic tangent of input current. | ||||||
| ATANHV | Inverse hyperbolic tangent of input voltage. | ||||||
| ATANHVR | Inverse hyperbolic tangent of input differential voltage. | ||||||
| ATANI | Inverse tangent of input current. | ||||||
| ATANV | Inverse tangent of input voltage. | ||||||
| ATANVR | Inverse tangent of input differential voltage. | ||||||
| COSHI | Hyperbolic cosine of input current. | ||||||
| COSHV | Hyperbolic cosine of input voltage. | ||||||
| COSHVR | Hyperbolic cosine of input differential voltage. | ||||||
| COSI | Cosine of input current. | ||||||
| COSV | Cosine of input voltage. | ||||||
| COSVR | Cosine of input differential voltage. | ||||||
| DEGI | Returns to the output terminals the value of the current through the input terminals converted from radians to degrees. | ||||||
| DEGV | Returns to the output terminals the value of the voltage present at the input terminals converted from radians to degrees. | ||||||
| DEGVR | Returns to the output terminals the value of the voltage present at the input terminals converted from radians to degrees. | ||||||
| DIFFERV | Differentiator. | ||||||
| DIVI | Divide input currents. | ||||||
| DIVV | Divide input voltages. | ||||||
| DIVVR | Divide input voltages. | ||||||
| EXPI | Exponential ex of input current. | ||||||
| EXPV | Exponential ex of input voltage. | ||||||
| EXPVR | Exponential ex of input differential voltage. | ||||||
| INTEGV | Integrator. | ||||||
| LIMIT | Outputs a voltage constrained to the limits set by the LO and HI parameters.
Parameters:
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| LIMITV | The output is restricted to the range specified by the cntl_lower (-) and cntl_upper (+) inputs. | ||||||
| LNI | Return the natural logarithm of input current. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| LNV | Return the natural logarithm of input voltage. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| LNVR | Return the natural logarithm of input differential voltage. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| LOGI | Calculates the decimal logarithm of input current. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| LOGV | Calculates the decimal logarithm of input voltage. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| LOGVR | Calculates the decimal logarithm of input differential voltage. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| MAXV | Maximum of two voltages. | ||||||
| MAXVR | Maximum of two differential voltages. | ||||||
| MINV | Minimum of two voltages. | ||||||
| MINVR | Minimum of two differential voltages. | ||||||
| MULTI | Multiply input currents. | ||||||
| MULTV | Multiply input voltages. | ||||||
| MULTVR | Multiply input voltages. | ||||||
| POWI | Raise input current to power specified by EXP
parameter. Calculate xy.
Parameters:
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| POWV | Raise input voltage to power specified by EXP
parameter. Calculate xy.
Parameters:
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| POWVR | Raise input voltage to power specified by EXP
parameter. Calculate xy.
Parameters:
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| PWRI | Raise input current to power specified by EXP
parameter. Use the absolute value of the input. Calculate |x|y.
Parameters:
|
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| PWRV | Raise input voltage to power specified by EXP
parameter. Use the absolute value of the input. Calculate |x|y.
Parameters:
|
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| PWRVR | Raise input voltage to power specified by EXP
parameter. Use the absolute value of the input. Calculate |x|y.
Parameters:
|
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| PWRSI | Raise input current to power specified by EXP
parameter. If input current is negative, output current will also be
negative.
Parameters:
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| PWRSV | Raise input voltage to power specified by EXP
parameter. If input voltage is negative, output voltage will also be
negative.
Parameters:
|
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| PWRSVR | Raise input voltage to power specified by EXP
parameter. If input voltage is negative, output voltage will also be
negative.
Parameters:
|
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| RADI | Returns to the output terminals the value of the current through the input terminals converted from degrees to radians. | ||||||
| RADV | Returns to the output terminals the value of the voltage present at the input terminals converted from degrees to radians. | ||||||
| RADVR | Returns to the output terminals the value of the voltage present at the input terminals converted from degrees to radians. | ||||||
| RMSV | Root Mean Square. | ||||||
| SGNI | The output current is -1 volt if the current through the input terminals is negative, 1 volt if it is positive and zero if the input current is zero. | ||||||
| SGNV | The output voltage is -1 volt if the voltage at the input terminals is negative, 1 volt if it is positive and zero if the input voltage is zero. | ||||||
| SGNVR | The output voltage is -1 volt if the voltage at the input terminals is negative, 1 volt if it is positive and zero if the input voltage is zero. | ||||||
| SINHI | Hyperbolic sine of input current. | ||||||
| SINHV | Hyperbolic sine of input voltage. | ||||||
| SINHVR | Hyperbolic sine of input differential voltage. | ||||||
| SINI | Sine of input current. | ||||||
| SINV | Sine of input voltage. | ||||||
| SINVR | Sine of input differential voltage. | ||||||
| SOFTLIM | Outputs a voltage constrained to the limits set by the LO and HI parameters.
Uses a continous curve limiting function (tanh).
Parameters:
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| SQRTI | Return the square root of input current. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| SQRTV | Return the square root of input voltage. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| SQRTVR | Return the square root of input differential voltage. If the argument becomes less than zero, the absolute value of the argument is used. | ||||||
| STPI | If the current through the input terminals is negative then the output current is zero, otherwise the output current is 1 amps. | ||||||
| STPV | If the voltage at the input terminals is negative then the output voltage is zero, otherwise the output voltage is 1 volt. | ||||||
| STPVR | If the voltage at the input terminals is negative then the output voltage is zero, otherwise the output voltage is 1 volt. | ||||||
| SUBI | The difference of input currents. | ||||||
| SUBV | The difference of input voltages. | ||||||
| SUBVR | The difference of input voltages. | ||||||
| TANHI | Hyperbolic tangent of input current. | ||||||
| TANHV | Hyperbolic tangent of input voltage. | ||||||
| TANHVR | Hyperbolic tangent of input differential voltage. | ||||||
| TANI | Tangent of input current. | ||||||
| TANV | Tangent of input voltage. | ||||||
| TANVR | Tangent of input differential voltage. | ||||||
| UNARYI | Unary minus of input current. | ||||||
| UNARYV | Unary minus of input voltage. | ||||||
| UNARYVR | Unary minus of differential input voltage. | ||||||
| URAMPI | If the current through the input terminals is negative then the output current is zero, otherwise the output current is equal to the input current. | ||||||
| URAMPV | If the voltage at the input terminals is negative then the output voltage is zero, otherwise the output voltage is equal to the input voltage. | ||||||
| URAMPVR | If the voltage at the input terminals is negative then the output voltage is zero, otherwise the output voltage is equal to the input voltage. |
Note: