Scientific ComputingAI Agent Development

Agentic AI Platform for Computational Science

As lead consultants we built the multi-agent core of an enterprise computational-science platform — LangGraph orchestration for molecular dynamics, quantum chemistry, and cheminformatics agents — and hardened it for enterprise deployment.

3
Scientific agent domains
Enterprise SSO
Keycloak · Entra ID
E2E tracing
OpenTelemetry

Overview

An enterprise platform for computational science needed an agentic core: a system where scientists describe what they want in plain language, and specialized AI agents plan and execute the computational work — molecular dynamics simulations, quantum chemistry calculations, cheminformatics analyses — on distributed GPU compute. As lead consultants, we built that agentic layer and hardened the platform for enterprise deployment.

The Engagement

Scientific workloads are a hard fit for off-the-shelf agent frameworks. Jobs run for hours on GPU clusters, a single conversation can span multiple scientific domains, and enterprise customers demand strict identity, isolation, and auditability guarantees. The engagement covered both sides of that problem: making the agents genuinely capable, and making the platform trustworthy enough for enterprise procurement.

What We Delivered

The agentic layer

We built a multi-agent orchestration core on LangGraph, coordinating specialized scientific agents for molecular dynamics, quantum chemistry, and cheminformatics:

  • Intent routing — user requests are classified and dispatched to the right specialist agent, so a solvation-energy question and a similarity-search question take entirely different execution paths
  • Experiential memory — agents accumulate context from prior runs, improving how they plan and parameterize subsequent work
  • LLM failover — long-running workflows survive provider outages by failing over across LLM backends instead of dying mid-run
  • Distributed GPU execution — agent-planned jobs are dispatched to distributed GPU compute and tracked through completion, keeping multi-hour scientific workflows resilient end to end

Security

Enterprise deployment demanded defense in depth:

  • Enterprise SSO via Keycloak with Microsoft Entra ID federation, plus admin-managed access allowlists
  • Guardrail middleware validating and redacting both inputs and outputs around every LLM call
  • Isolated per-conversation workspaces, so one conversation's files and artifacts can never leak into another
  • Secure service-to-service token exchange between platform components

The enterprise platform

Beyond the agents themselves, we delivered the capabilities that make the product sellable to enterprises:

  • Multi-tenant realm architecture — each customer organization gets isolated identity and data boundaries
  • BYOK (bring-your-own-key) LLM provider key management — customers use their own model provider accounts and keys
  • Agent studio and marketplace — teams can build, publish, and share custom agents on the platform
  • Full observability — OpenTelemetry tracing across the agent graph, task queue, and services, so every workflow is debuggable in production

Stack

Python · LangGraph/LangChain · Next.js/React · Keycloak · Celery/Redis · PostgreSQL · Docker/Kubernetes

What This Demonstrates

Agent demos are easy; agent platforms are not. This engagement is what it takes to move from a working multi-agent prototype to something an enterprise will actually deploy: identity federation, tenancy, key management, guardrails, and observability — built around an agentic core that does real scientific work.


Building an agentic system that needs to survive enterprise scrutiny? Talk to us.