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<< Click to Display Table of Contents >> Navigation: Explain™ Control Language > Library Routines > Curve classes > class PWR > Pwr.Run() |
Run the curve.
When Pwr.Run() is executed, the acquired data are displayed in a real-time curve. There are three buttons active during Pwr.Run():
Terminates the entire experiment. |
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Pause the experiment at current step. Continue again. |
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Skips to the next phase of the experiment, either past the end of this curve or to the next region of the signal generator's operation. |
The active run can be halted in several ways:
1.When the signal generator is finished.
2.If the operator hits a Skip/F2 button.
3.If one of the stopping criteria is met. The stopping criteria can be enabled or disabled using the Pwr.StopAt functions.
Result = Pwr.Run()
Result |
INDEX |
•NO_STOP = Normal termination or Skip/F2 button pressed. •STOP_V_UNDER = V < Vmin •STOP_V_OVER = V > Vmax •STOP_V_STABLE = Abs(dV/dt) < dV/dtmin •STOP_V_RUNAWAY = Abs(dV/dt) > dV/dtmax •STOP_V_DECREASING = dV/dt < dV/dtmin •STOP_V_INCREASING = dV/dt > dV/dtmax •STOP_I_UNDER = I < Imin •STOP_I_OVER = I > Imax •STOP_I_STABLE = Abs(dI/dt) < dI/dtmin •STOP_I_RUNAWAY = Abs(dI/dt) > dI/dtmax •STOP_I_DECREASING = dI/dt < dI/dtmin •STOP_I_INCREASING = dI/dt > dI/dtmax •STOP_A_UNDER = A < Amin •STOP_A_OVER = A > Amax •STOP_A_STABLE = Abs(dA/dt) < dA/dtmin •STOP_A_RUNAWAY = Abs(dA/dt) > dA/dtmax •STOP_A_DECREASING = dA/dt < dA/dtmin •STOP_A_INCREASING = dA/dt > dA/dtmax •STOP_Q_UNDER = Q < Qmin •STOP_Q_OVER = Q > Qmax •STOP_Q_STABLE = Abs(dQ/dt) < dQ/dtmin •STOP_Q_RUNAWAY = Abs(dQ/dt) > dQ/dtmax •STOP_Q_DECREASING = dQ/dt < dQ/dtmin •STOP_Q_INCREASING = dQ/dt > dQ/dtmax •STOP_P_UNDER = P < Pmin •STOP_P_OVER = P > Pmax •STOP_P_STABLE = Abs(dP/dt) < dP/dtmin •STOP_P_RUNAWAY = Abs(dP/dt) > dP/dtmax •STOP_P_DECREASING = dP/dt < dP/dtmin •STOP_P_INCREASING = dP/dt > dP/dtmax •STOP_E_UNDER = E < Emin •STOP_E_OVER = E > Emax •STOP_E_STABLE = Abs(dE/dt) < dE/dtmin •STOP_E_RUNAWAY = Abs(dE/dt) > dE/dtmax •STOP_E_DECREASING = dE/dt < dE/dtmin •STOP_E_INCREASING = dE/dt > dE/dtmax •STOP_T_UNDER = Temp < TempMin •STOP_T_OVER = Temp > TempMax •STOP_T_STABLE = Abs(dTemp/dt) < dTemp/dtMin •STOP_T_RUNAWAY = Abs(dTemp/dt) > dTemp/dtMax •STOP_T_DECREASING = dTemp/dt < dTemp/dtMin •STOP_T_INCREASING = dTemp/dt > dTemp/dtMax |