What is manufacturing simulation software used for?
Manufacturing simulation software helps engineering teams model and evaluate a system before physical testing or production decisions. SimTurbo is specialised for gas turbine systems, enabling users to configure engine components, assess thermodynamic performance, examine fuel use and thrust or power, and study operating behaviour. It is useful for concept development, design refinement, research, control validation, and engineering education.
What types of gas turbine systems can SimTurbo model?
SimTurbo supports gas turbine configurations for aerospace propulsion, industrial power generation, marine propulsion, research, and education. Its component-based environment can model items such as inlets, compressors, combustors, turbines, nozzles, shafts, recuperators, and afterburners. Users can explore single-spool and dual-spool turbojet concepts as well as advanced cycle configurations and custom engine architectures.
Can SimTurbo analyse both steady-state and transient engine performance?
Yes. Steady-state analysis supports cycle calculations, component matching, performance mapping, fuel-consumption studies, thrust or power prediction, and off-design evaluation. Transient simulation addresses dynamic events such as start-up, shutdown, throttle changes, acceleration, deceleration, load changes, actuator behaviour, sensor response, and fault conditions. Using both views helps engineers understand expected performance and dynamic response.
Does the software support gas turbine control-system design?
Yes. SimTurbo supports control-system modelling and validation for gas turbine applications. Users can develop PID controllers, fuel schedules, start and shutdown logic, gain scheduling, engine protection strategies, limiters, and FADEC concepts. Closed-loop simulation allows teams to evaluate stability, transient response, and control-law behaviour before applying a strategy to a physical system or hardware-in-the-loop workflow.
Can simulation data be exported for additional analysis?
Yes. SimTurbo is designed to support post-processing beyond the simulation environment. Data can be exported for analysis in tools such as Excel, MATLAB/Simulink, and Python. This allows engineers and researchers to create custom plots, compare test cases, conduct further calculations, document results, and integrate simulation outputs into established engineering and research workflows.
Is SimTurbo appropriate for universities and engineering students?
Yes. SimTurbo supports classroom demonstrations, laboratory experiments, propulsion and thermodynamics courses, capstone projects, faculty research, and graduate or undergraduate training. The platform’s graphical, component-based approach helps learners connect engine architecture with performance behaviour. University class, lab, and student licensing options are available, including discounted programmes tailored to academic use cases.
How accurate are SimTurbo gas turbine models?
Model accuracy depends on the available component data, assumptions, and intended operating range. SimTurbo reports validation against NASA Lewis Research Center J85-GE-21 engine test data, with reported results within plus or minus 2 percent. Engineers should still define appropriate inputs, compare results with available test information, and use simulation as part of a disciplined verification and validation process.
Is there a trial or demonstration available before licensing?
SimTurbo offers a free 30-day trial for its gas turbine control-system design capability, with full product features during the trial period. A free 30-minute online demonstration for single-spool turbojet simulation is also available by appointment through the SimTurbo booking calendar. These options allow prospective users to review the interface, modelling approach, and relevant capabilities before selecting a licence.