Computational Scientific Machine Learning Lab (CSML) avatar

Computational Scientific Machine Learning Lab (CSML)

Official

@csml-rpi · United States of America

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8Public Repos
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17Published Skills

A cross‑disciplinary research group working on transformative research to solve challenging problems in aerospace engineering.

Skills Distribution
DomainAI Models & ...Computational Flui.. (40%)Scientific Researc.. (30%)Simulation Mesh Op.. (30%)

Agent Skills by Computational Scientific Machine Learning Lab (CSML)

Showing 17 vetted skills indexed across 1 GitHub repositories.

csml-rpicsml-rpi
40

cfd-pipeline

Automate CFD research pipelines from literature review to publication.

Official
Advanced
csml-rpicsml-rpi
40

cfd-experiment

Automate OpenFOAM CFD case execution with validation and retry logic.

Official
Advanced
csml-rpicsml-rpi
40

cfd-hypothesis

Generate multiple CFD hypotheses with solver, geometry, and constraint specifications.

Official
Intermediate
csml-rpicsml-rpi
40

cfd-mesh-gate

Automate mesh refinement studies and lock optimal mesh parameters for CFD simulations.

Official
Advanced
csml-rpicsml-rpi
40

cfd-paper

Automates CFD research paper writing including LaTeX drafting and iterative reviews.

Official
Advanced
csml-rpicsml-rpi
40

cfd-open-discovery

Automate CFD model proposal, modification, simulation, and multi-metric scoring.

Official
Advanced
csml-rpicsml-rpi
40

cfd-code-modify

Implement custom turbulence, viscosity, or source models in OpenFOAM cases.

Official
Advanced
csml-rpicsml-rpi
40

cfd-requirements

Convert CFD hypotheses into FoamAgent requirement JSON files.

Official
Intermediate
csml-rpicsml-rpi
40

cfd-analyze

Aggregate CFD case data and calculate trends and correlations among key metrics.

Official
Intermediate
csml-rpicsml-rpi
40

cfd-literature

Retrieve and normalize CFD research papers from Semantic Scholar, OpenAlex, and arXiv into structured JSON.

Official
Basic
csml-rpicsml-rpi
40

cfd-viz

Generate CFD visualization figures with PyVista and vision-based QA.

Official
Intermediate
csml-rpicsml-rpi
40

cfd-interpret

Analyze CFD diagnostic images and logs to validate simulation results.

Official
Intermediate
csml-rpicsml-rpi
40

cfd-research

Automate CFD research workflows from literature review to result analysis.

Official
Advanced
csml-rpicsml-rpi
40

cfd-orchestrator

Route CFD research requests into appropriate simulation, analysis, or documentation pipelines.

Official
Advanced
csml-rpicsml-rpi
40

cfd-foamagent-runtime

Automate Foam-Agent CFD simulation workflows from planning through analysis.

Official
Advanced
csml-rpicsml-rpi
40

cfd-code-mod

Automate implementing, modifying, and testing custom OpenFOAM models in CFD cases.

Official
Advanced
csml-rpicsml-rpi
40

cfd-mesh-independence

Conduct mesh sensitivity studies and regression analysis for CFD simulations.

Official
Advanced

Frequently Asked Questions About Computational Scientific Machine Learning Lab (CSML)

FAQPage Schema
What specific research tasks are enabled by these capabilities?

These capabilities enable end-to-end research cycles, including literature normalization, hypothesis generation, OpenFOAM case execution, mesh refinement studies, and automated LaTeX drafting for publication. Users can manage complex simulation parameters, perform diagnostic image interpretation, and conduct regression analysis on multi-metric datasets derived from fluid dynamics experiments.

Which personas benefit from these research capabilities?

Aerospace engineers, computational fluid dynamics researchers, and scientific investigators benefit from these capabilities. The system is designed for professionals managing high-fidelity simulation environments who require rigorous validation, mesh independence verification, and structured documentation of complex physical models within the OpenFOAM ecosystem.

What are the primary dependencies for running these simulation environments?

The environment requires a functional OpenFOAM installation for solver execution and PyVista for visualization tasks. Users must provide structured JSON requirement files to define hypotheses, geometry constraints, and turbulence model modifications, which are then processed through the orchestrator to manage simulation runtime and data aggregation.