Postdoctoral Researcher · ETH Zurich

Soheyl Massoudi

I develop AI methods that generate and evaluate executable engineering models, tools, and optimization code. My work builds on robust design, simulation, and CAD for coupled physical systems.

Physical systemsrobust optimization of coupled turbocompressor systems
Executable AIengineering models, tool-using agents, and reusable optimization code
Open researchpublic software, datasets, checkpoints, and experimental traces

Research

Research areas

My work has developed through three related areas: robust mechanical design, software for simulation and CAD, and AI methods for engineering workflows.

01

Robust system design

Multi-objective optimization of tightly coupled turbocompressor systems under manufacturing variation.

Methods and results
02

Learning-enabled tools

Ensemble surrogates, real-time simulation, and parametric CAD that connect optimization results to inspectable geometry.

Tools and artifacts
03

AI for engineering design

Executable models, tool-using agents, engineering benchmarks, and reinforcement learning for reusable solvers.

Current research

Projects

Selected projects

Comparison of incorrect and corrected simulated annealing acceptance logic in generated code

arXiv preprint · 2026

Reinforcement learning for reusable solver synthesis

A code model trained to generate standalone optimization programs rather than solve each instance through repeated sampling. The study includes compile-once evaluation, semantic analysis of generated code, and public training and evaluation artifacts.

Project details
Design-State Graph and multi-agent engineering workflow

Journal of Mechanical Design · 2026

Agentic LLMs for conceptual systems engineering

A structured comparison of nine-role and two-agent systems for requirements extraction, functional decomposition, and executable physics-model generation. The study reports both gains in design granularity and unresolved limitations in requirement coverage and code fidelity.

Project details
Integrated robust design framework for a turbocompressor system

Doctoral research · EPFL · 2020–2024

Robust, all-at-once system optimization

A family of methods for optimizing interdependent compressor, rotor, and gas-bearing subsystems while treating efficiency, operating range, constraints, and manufacturing robustness together.

Project details

Contact

Contact and academic profiles

For research collaborations, technical discussions, invited talks, or student projects, email is the best way to reach me.