Steady State
Main.SteadyState History
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nlc.imode = 1
apm.imode = 1
apm_option(server,app,'nlc.imode',1);
apm_option(server,app,'apm.imode',1);
apm_option(server,app,'nlc.imode',1)
apm_option(server,app,'apm.imode',1)
NLC.imode = 1
nlc.imode = 1 % MATLAB example apm_option(server,app,'nlc.imode',1); % Python example apm_option(server,app,'nlc.imode',1)
The first step in model creation and testing is a steady state simulation. Steady state model simulations are employed to converge new model units, verify relationships between key process variables, and allign process values to typical operating regions. The SS (#1) and RTO (#3) modes are used to obtain an initial condition solution for all other modes of operation. The initial condition files rto.t0 and ss.t0 override default values given in the apm file.
NLC.imode = 1
NLC.imode = 1
The first step in model creation and testing is a steady state simulation. Steady state model simulations are employed to converge new model units, verify relationships between key process variables, and allign process values to typical operating regions. The SS (#1) and RTO (#3) modes are used to obtain an initial condition solution for all other modes of operation. The initial condition files rto.t0 and ss.t0 override default values given in the apm file.
The DBS file parameter imode is used to control the simulation mode. This option is set to 1 for steady-state simulation.
NLC.imode = 1
Steady-state Simulation
The first step in model creation and testing is a steady state simulation. Steady state model simulations are employed to converge new model units, verify relationships between key process variables, and allign process values to typical operating regions. The SS (#1) and RTO (#3) modes are used to obtain an initial condition solution for all other modes of operation. The initial condition files rto.t0 and ss.t0 override default values given in the apm file.