Farhad Davaripour, PhD.
As an MLOps developer, simulation specialist, and research engineer with 7 years of experience, I specialize in creating innovative data-driven solutions. My expertise includes leveraging machine learning, generative AI, and synthetic data from finite element simulations to analyze stress in steel pipelines and tackle complex industry challenges. Currently, at Arcurve Inc., I utilize cloud services (e.g., Azure, AWS) and analytical platforms (e.g., Databricks, Snowflake) to design and develop end-to-end machine-learning and ETL pipelines, as well as GenAI-based applications, to address critical industry needs.
Webinar Series
Arcurve Webinar Series Ep. 1: Research Agent - An Application of Agentic Workflow
Arcurve Webinar Series Ep.2: Deep Dive into the Research Agent Leveraging AI Agentic Workflows
Arcurve Webinar Series Ep.3: Bridging AI and Engineering Standards - Design & Compliance Handling
Arcurve Webinar Series Ep.4: Augmenting Simulation Engineering with AI Agents: Integrating Finite Element Analysis With Agentic AI
Educational Contents/Apps
2. Next Token Prediction
In this lecture, you will learn how Temperature and Top-P control the randomness in LLM-generated outputs
Dashboard: Link
9. AI Assisted FEA
This lecture explores implementing Abaqus (a Finite Element Analysis tool) as part of a ReAct agent powered by OpenAI's LLM, automating finite element simulations, including input generation, job execution, stress analysis, parametric studies, and sensitivity analysis, streamlining workflows for improved decision-making.
GitHub page: Link
Distilled Notes
Educational Contents for Pipeline Engineers
AI in Pipeline Engineering
This course explores various machine learning (ML) implementations specifically targeting preventative maintenance in pipeline engineering challenges.
GitHub page: Link
GenAI in Pipeline Engineering
This course explores various advanced GenAI (e.g., ReAct Agentic Workflows) implementations in the field of pipeline engineering.
GitHub page: Link
Applications
CFRP Reinforced Pipe Bend
This project employs machine learning and synthetic dataset to predict the peak equivalent stress imposed on a CFRP-wrapped HDD overbend.
GitHub Page: Link