JV
Javal Vyas profile photo

London, UK / tech + quantitative research

Javal Vyas

ML / Optimization Researcher - Reliable Decision Systems

I build research-grade software for constrained decision-making: optimization models, ML systems, knowledge-grounded agents, and validation loops. My work sits between tech and quantitative research: turning complex system data into reliable, testable decisions.

ML systems Constrained optimization Knowledge-grounded agents Validation loops Python research engineering

Build

Research systems that run

Python packages, reproducible experiments, and deployable evaluation workflows

Model

Optimization + ML under constraints

Scheduling, unit commitment, surrogate models, and process-system decisions

Validate

Reliable actions before deployment

Simulation checks, deterministic validators, and failure-mode analysis

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Selected Work

A curated set of research systems and open-source projects across ML, optimization, validation, and process intelligence.

Agentic decision framework that turns fault signals into constraint-aware recovery plans, then checks candidate actions through simulation and deterministic validators.

Type Research system
Focus Safe action
LLM Agents Validation Control
  • Multi-agent monitoring, planning, action synthesis, simulation, and reprompting
  • Benchmarks action reliability under process constraints before execution

Multimodal language-model workflow for extracting equipment tags and reconstructing process topology from P&ID drawings.

Venue SCT 2026
Focus Graph extraction
Multimodal ML Graphs Structured Data
  • Separates visual extraction from topology reasoning
  • Targets scalable, semantically reliable P&ID digitization

Python package for solving resource-task-network scheduling problems with Pyomo, including experiment and visualization utilities.

Type OSS package
Domain Scheduling
Python Pyomo Optimization
  • Resource-task-network inputs
  • Gantt, resource-level, and network visualizations

Optimization models and decomposition algorithms for meeting electricity demand at minimum cost under combinatorial commitment constraints.

Objective Min cost
Control Combinatorial
Energy Systems Optimization Scheduling
  • Decomposition method paired with EGRET unit commitment models
  • Benchmarked across four power-system cases

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Selected Research

Key papers and preprints. The full list remains available on Google Scholar.

current positions

  • Reliable agentic control
    Decision agents that move from fault detection to safe action through context retrieval, validators, and simulation.
  • Optimization-aware ML
    Surrogate models and structured features that improve feasibility, scheduling, and operational decision support.
  • Structured process intelligence
    Multimodal extraction of equipment, topology, and operating semantics from engineering artifacts.
Google Scholar

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Notes

Public writing and maintained profiles for research context.

Medium 2026

Writing on reliability, validation, and decision-time controls for AI systems.

Google Scholar 2026

Complete publication list, including papers not shown in this curated site view.

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Stack

A compact toolchain for quantitative modelling and reliable decision systems.

Research Engineering

Python Git Linux Docker CI/CD

Optimization

Optimization Scheduling MILP / MINLP Decomposition Experiment design

ML Systems

Machine learning Uncertainty diagnostics Validation loops Surrogates Model evaluation

Agents / Knowledge

Agentic workflows Retrieval / Graph RAG Knowledge graphs Tool use Semantic constraints

Systems Domain

Process control Fault handling Energy systems Digital twins P&ID digitization

LANG

Python, TypeScript

OPT

Pyomo, MILP/MINLP, decomposition

ML

Evaluation, uncertainty, surrogates

SYS

Git, Docker, CI/CD, Linux

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Contact

For quantitative ML, optimization, controls, and decision-system conversations.