Active Development · v0.1.0

Gas Turbine Design,
Powered by AI.

BraytonWorks is an AI-powered turbomachinery design platform specialized for gas turbine engines.
From thermodynamic cycle analysis to component-level meanline design, blade geometry generation, and CFD-ready output — all in one integrated web application.

Try Preview → Learn More

Why BraytonWorks?

An end-to-end gas turbine design platform that connects every stage of the process.

Cycle-to-Component Integration

Real-time matching between thermodynamic cycle analysis and individual component performance. Change a compressor PR and see the impact on turbine inlet temperature instantly.

Concurrent Design

Design all gas turbine components simultaneously — compressor, combustor, turbine — with automatic performance matching across the engine. No more isolated spreadsheets.

AI at Every Step

AI agents assist throughout the entire design process: parameter recommendations, result interpretation, design trade-off analysis, and knowledge-base verified guidance.

Features

Available now and coming soon.

Component Sizing

Axial compressor multi-stage sizing available now. Centrifugal compressor, axial turbine, and radial turbine sizing coming soon.

1D Meanline Solver

4-plane Mach-based solver with Koch-Smith loss model. Design-point analysis with choke detection. Off-design and performance maps coming soon.

Cycle Analysis

Gas turbine thermodynamic cycle analysis for various engine configurations: turbojet, turbofan, turboshaft, turboprop, and industrial gas turbines. Coming soon.

3D Blade & CFD

Parametric 3D blade generation, throughflow analysis, blade-to-blade (B2B), and 3D CFD integration. From meanline to high-fidelity validation. Coming soon.

Design Visualization

Meridional view, blade profile cascade (HMT overlay), geometry parameters, performance tables, and full flow states — all interactive in the browser.

AI Design Assistant

AI agents at every design step: sizing recommendations, result interpretation, trade-off analysis, and knowledge-base verified guidance. Coming soon.

Design Workflow

From engine-level cycle to component-level blade geometry — all connected.

1. Engine Cycle Thermodynamic cycle analysis Engine type, OPR, TIT, BPR | v 2. Component Sizing Axial/centrifugal compressor Axial/radial turbine +-- Velocity triangles +-- Annulus & blade geometry +-- Radial Equilibrium | v 3. Meanline Analysis Loss models & performance +-- Design-point solver +-- Off-design / speed map | v 4. 3D Blade & CFD Blade profile generation +-- Throughflow (S2) +-- Blade-to-blade (S1) +-- 3D CFD validation | v Concurrent cycle-component matching
  • Cycle
    Engine Thermodynamics — Turbojet, turbofan, turboshaft, turboprop, industrial GT cycle analysis. Real-time component-cycle performance matching.
  • Sizing
    Component Design — Axial compressor (available), centrifugal compressor, axial turbine, radial turbine. D-factor solidity, deviation compensation, RE blade angles.
  • Solver
    Meanline Analysis — 4-plane Mach solver, Koch-Smith loss model (profile, endwall, secondary, tip, shock). Design-point and off-design prediction.
  • 3D
    Blade & CFD — Parametric 3D blade, throughflow (S2), blade-to-blade (S1), and full 3D CFD. Progressive fidelity from meanline to high-resolution.
  • Match
    Concurrent Design — Real-time performance matching between cycle and components. Change compressor PR, see turbine impact immediately.
  • AI
    AI at Every Step — AI agents assist with parameter selection, result interpretation, design trade-offs, and knowledge-base verified recommendations.

Web-Based Design Interface

Create a project, enter design requirements, and get instant results — meridional view, blade profiles, geometry parameters, performance, and flow states.

BraytonWorks — Web App
BraytonWorks Web App Screenshot

Development Roadmap

Current progress and future plans.

Try It Now

BraytonWorks is free to use during the preview period.
Create your first axial compressor design in seconds.

Open Web App → Contact / Feedback

Industry Partners

Gas turbine OEMs, MRO companies, and turbomachinery manufacturers — provide real-world design requirements and validation data.

Development Partners

Engineers and developers in turbomachinery aerodynamics, CFD, AI/ML, and web development.