Advanced Automated Valve and Control Solutions

Automated valve and control simulation uses a digital model to evaluate how control logic, actuators, sensors, fuel schedules, and limits affect a gas turbine system. It enables engineers to test commands and responses before hardware implementation. With SimTurbo, users can study closed-loop behavior, operating constraints, transient events, and component interactions through graphical, physics-based engine models.

Yes. SimTurbo supports PID controller development as part of gas turbine control-system design. Engineers can integrate PID logic with fuel scheduling, actuator and sensor models, gain scheduling, engine protection functions, and start or shutdown sequences. This makes it possible to assess closed-loop stability and tune transient response while keeping the controller connected to a component-based engine model.

SimTurbo can simulate startup, shutdown, throttle changes, acceleration, deceleration, load changes, emergency conditions, sensor response, actuator dynamics, faults, and environmental variation. These studies help teams understand how an engine responds away from steady-state operation. They are particularly useful for validating control logic, identifying stability concerns, and comparing response behavior across operating scenarios.

Yes. SimTurbo supports exporting data for post-processing in tools such as Excel, MATLAB/Simulink, and Python. Exported results can be used to compare operating cases, document control-law performance, create custom visualizations, or integrate simulation findings into broader engineering workflows. This flexibility helps teams preserve traceability between model inputs, control settings, and reported outcomes.

The platform supports turbojet and related gas turbine configurations through component-based modeling. Available elements include inlets, compressors, combustors, turbines, nozzles, shafts, recuperators, and afterburners. Users can model single-spool and dual-spool turbojet concepts, study complete engine architectures, and evaluate advanced cycles such as recuperated, regenerated, reheated, and intercooled systems.

SimTurbo offers a 30-day free trial for its control-system design capability, with full product features available during the trial period. This allows engineering teams, researchers, and educators to evaluate modeling workflows, PID development, transient response analysis, and control validation before selecting a license. Trial access is intended to provide a practical, hands-on assessment of the software environment.

Yes. SimTurbo supports engineering education through university class and lab programs, student licensing, classroom access, research use, and campus-oriented deployments. The software can be used for demonstrations, laboratory experiments, propulsion and thermodynamics courses, capstone projects, and graduate research. Its graphical approach helps students connect component behavior, cycle performance, controls, and transient engine response.

SimTurbo provides engineering consultation for projects involving gas turbine design, propulsion analysis, performance optimization, simulation-model development, troubleshooting, feasibility assessment, and control-system engineering. Consultation can help teams define modeling objectives, evaluate technical options, validate system behavior, or develop custom simulation approaches. It is applicable across aerospace, marine, power-generation, industrial, and research-oriented engineering work.