LLM Trading Systems
Deployed decision pipelines across FX, commodities, and options using DeepSeek-V3.1, MiniMax-M2, gpt-oss-120b, and a DPO-QLoRA fine-tuned Llama-3.1-8B served on vLLM.
AI/ML Engineer · Production LLM & Quantitative Systems · PhD
US Permanent Resident
I build and operate live ML- and LLM-driven systems end-to-end—from multimodal retrieval and tool-using agents to quantitative trading platforms running against real brokers. My work spans model fine-tuning and serving, evaluation, APIs, cloud infrastructure, and the production reliability required to keep automated systems running unattended.
PhD in Engineering Mechanics from UT Austin; author of 10 peer-reviewed publications with 400+ citations.
Deployed decision pipelines across FX, commodities, and options using DeepSeek-V3.1, MiniMax-M2, gpt-oss-120b, and a DPO-QLoRA fine-tuned Llama-3.1-8B served on vLLM.
Built Bayesian volatility-arbitrage signals, a live HMM/NSGA-II equity portfolio, and a Chronos-T5 LoRA plus TabPFN interday options platform.
Built an MCP tool-calling signal-mining agent and a full-stack PDF research assistant with CLIP page embeddings, Qdrant retrieval, and a two-pass Qwen vision-model RAG workflow.
Shipped containerized, scheduled systems with persistent state, cached model artifacts, broker integrations, failure recovery, and automated deployment.
I joined during the early integration phase of a surgical navigation platform combining imaging and robotic actuation. My work centered on implementing TCP/UDP communication protocols for robotic arm motion control, supporting end-to-end product packaging and deployment, and helping stage a live demonstration that anchored the company's successful $8.2M Series A.
I adapted physics-informed modeling originally developed for fusion experiment data to financial time series. The resulting production pipeline used sparse regression for PDE construction and signal generation, paired with a CAGR-maximizing Bayesian TPE optimizer driving a swing-trading system deployed on AWS Lambda.
I generated hydrocarbon production estimates for a real shale site by replacing 3D discrete fracture network geometry with a graph-based reduced-order model of flow and transport. I also built a computational framework for fast estimation of fault stability and ground deformation for field-scale CO2 storage in faulted oilfields.