Software Engineering Services for Complex Systems

SimTurbo supports gas turbine engineering work from conceptual architecture through performance and control evaluation. Users can configure component-based engine models, analyze steady-state and transient operation, study turbojet configurations, develop control logic, and review interactive performance graphs. The platform is intended for aerospace, marine propulsion, power-generation, research, and engineering-education applications where physics-based system insight is important.

Yes. Transient simulation can represent operating events such as engine startup, shutdown, throttle changes, acceleration, deceleration, load changes, sensor and actuator dynamics, environmental variation, and fault conditions. This helps users assess dynamic response, stability, and control behavior rather than relying only on steady-state operating points. It is especially useful when validating control strategies or studying operating-envelope behavior.

Yes. SimTurbo supports control-system development and validation with functions including PID controller development, fuel scheduling, gain scheduling, protection logic, actuator and sensor modeling, and closed-loop response analysis. Engineers can use the simulation environment to evaluate start and shutdown logic, acceleration behavior, limits, and fault responses before progressing to more advanced validation or hardware-in-the-loop migration activities.

The platform supports gas turbine configurations that include inlets, compressors, combustors, turbines, nozzles, shafts, recuperators, and afterburners. Available modeling work includes single-spool and dual-spool turbojets as well as recuperated, regenerated, reheated, and intercooled cycle concepts. This flexibility allows users to compare conventional and advanced architectures for propulsion, industrial, marine, or power-system studies.

Yes. SimTurbo is designed to support downstream analysis by exporting data for post-processing in tools such as Excel, MATLAB/Simulink, and Python. This enables teams to integrate simulation outputs into reporting, custom calculations, visualization workflows, optimization studies, or broader engineering models. Export capability helps preserve a practical workflow when multiple tools are used on one design or research project.

Yes. SimTurbo offers academic-oriented options for universities, engineering colleges, research laboratories, faculty, and students. These may include discounted student licenses, classroom and laboratory licenses, research access, and campus-oriented deployments. The platform can support demonstrations, thermodynamics and propulsion coursework, laboratory experiments, capstone projects, graduate research, and simulation-based learning with industry-focused gas turbine models.

A 30-day free trial is available for the control-system design offering with full product features during the trial period. SimTurbo also offers a free, 30-minute online demonstration for single-spool turbojet simulation, scheduled by appointment through its booking calendar and delivered via Zoom. A demonstration can help prospective users review the graphical workflow and relevant modeling capabilities before selecting an option.

SimTurbo reports validation against NASA Lewis Research Center J85-GE-21 engine test data, with reported accuracy within plus or minus 2 percent. Model results should still be evaluated against the assumptions, component data, operating conditions, and validation requirements of each project. Engineers can use the component-based environment to inspect configurations and refine parameters for their specific analysis objectives.