Syngas vs Natural Gas Turbocharged SI Engine MATLAB Two Zone Simulation

Syngas vs Natural Gas | Turbocharged SI Engine – MATLAB Two-Zone Simulation 📘 Description This video builds a two-zone combustion model in MATLAB to compare Syngas (H₂/CO blend) versus Natural Gas (NG) in a turbocharged spark-ignition (SI) engine. We simulate in-cylinder thermodynamics, heat release, and emissions with a modern workflow that you can reuse for coursework or research. 📦 Project Files & Guidance: 🌐 www.matlabprojectscode.com 📧 matlabprojectscode@gmail.com 📱 WhatsApp: +91 8300015425 What’s inside ✅ Two-zone model (burned/unburned) with Wiebe heat-release, variable γ, and Woschni/Annand heat transfer ✅ Boosted operation: intake pressure/temperature from compressor map (simplified) ✅ Mixture properties for Syngas vs NG (LHV, Cp(T), laminar burn trends via Wiebe tuning) ✅ Knock margin proxy (end-gas T–p and ignition delay correlation) ✅ Full plots: P–θ, T–θ, HRR–θ, MFB–θ, V–θ ✅ Performance: Brake Power, Torque, BSFC, BTE vs RPM/CR/ϕ/Boost ✅ Emissions trends: NOx, CO, CO₂, UHC vs ϕ (phenomenological) ✅ Comparative dashboards: Syngas vs NG (NA vs Turbocharged) Why it matters Syngas enables fast burning and lean operation; turbocharging recovers power while controlling BSFC. This model shows trade-offs in efficiency, emissions, and knock tendency across boost and equivalence ratio. Who should watch UG/PG/PhD students in IC engines, clean fuels, and powertrain modeling Researchers evaluating alternative gaseous fuels under boost MATLAB users building custom engine simulators & maps What you’ll learn Setting up a robust two-zone SI model in MATLAB Calibrating Wiebe parameters from burn duration / MFB points Conducting parametric sweeps (CR, ϕ, RPM, boost) and reading the results like a dyno Chapters 00:00 Intro & goals 01:05 Two-zone theory (burned vs unburned) 03:10 Fuel property setup (Syngas vs NG) 05:20 Turbocharging assumptions & compressor inlet states 07:10 Heat release & heat transfer models 10:30 Knock margin proxy 12:00 Results: P–θ, T–θ, HRR–θ, MFB–θ 15:00 Performance & emissions comparisons 18:00 Key takeaways + next steps 🔔 Subscribe for more MATLAB engine, combustion, and clean-fuel simulations. Syngas engine MATLAB simulation, natural gas engine MATLAB, turbocharged SI engine modeling, MATLAB two zone combustion model, combustion simulation tutorial, MATLAB engine research, university engineering projects UK, US engineering students MATLAB, mechanical engineering MATLAB tutorial, automotive simulation project, combustion research MATLAB, thermodynamics engine simulation, engine modeling for university students, turbocharged SI engine MATLAB, alternative fuel simulation, syngas vs natural gas comparison, internal combustion engine MATLAB, MATLAB project for MSc mechanical students, PhD combustion modeling tutorial, MATLAB for engineering students UK, MATLAB for university students US, powertrain modeling MATLAB, combustion heat release MATLAB, two zone engine theory, MATLAB research project, energy systems simulation, mechanical engineering coursework MATLAB, MATLAB automotive engineering project, engineering students UK USA, college engineering MATLAB tutorial, graduate research MATLAB engine #MATLAB #EngineSimulation #TwoZone #Turbocharged #Syngas #NaturalGas #SIEngine #Combustion #HRR #BSFC #BTE #AltFuels #Powertrain #Emissions #Knock #MATLAB #EngineSimulation #Combustion #Syngas #NaturalGas #TurbochargedEngine #TwoZoneModel #MechanicalEngineering #AutomotiveEngineering #EngineeringStudents #UniversityProjects #PhDResearch #PowertrainModeling #AlternativeFuels #Thermodynamics #MATLABTutorial #EngineeringUK #EngineeringUSA #GraduateResearch #STEMEducation