See how we helped BASF explore AI-driven plant optimization. Read the recap on LinkedIn

We optimize chemical processes
with AI

Increase yield, margin, and energy efficiency with recommendations grounded in the simulators, constraints, and plant data your engineers already trust.

What plants are up against

Chemical plants face shifting conditions, competing performance targets, and growing pressure to operate sustainably.

Normal range ▲ excursion ▲ excursion ▲ excursion xC₁ Methane mol fraction xC₂ Ethane mol fraction xC₃ Propane mol fraction

Plants never operate in a single steady state

Feedstock composition varies over time, ambient conditions vary with weather and seasons, and upstream disturbances cascade through the process. Whether the response requires updated steady-state setpoints or a dynamic trajectory adjustment, operations must adapt continuously. One-off optimization studies capture a snapshot, but the plant has already moved on.

  • Feedstock variability in composition, flow rate, and quality
  • Upstream and downstream upsets that propagate through units
  • Conditions shift faster than periodic optimization studies can keep up

Your simulator. Our AI. Better operations.

We build digital twins from the tools your engineers already trust, then use AI to find operating improvements that manual studies can't reach.

YOUR PLANT Feed HX Column Product YOUR DATA DIGITAL TWIN DPOptimize: Digital Twin T=185°F Q=1.2 MW P=42 psi F=2.1k bbl Validated ✓ Ready to optimize ✓

We build a validated digital twin from your simulator

Starting from CHEMCAD, Aspen, or the simulator your team already uses, we create a calibrated digital twin of your process. Your operating data shapes the model. No new software, no black boxes.

  • Works with your existing process simulator
  • Calibrated against your historical plant data
  • Your team keeps the twin after the project

From data to optimized operations

We start from your existing simulator and operating data, define the objective with your team, and return recommendations your engineers can review and validate.

Phase 1

Build the twin

  • Build and validate a digital twin using the simulators and data your team already trusts.
  • Define the objective, constraints, and safety limits with your team.
  • Set the decision variables and operating ranges the model should explore.
Phase 2

Train and test

  • Train the AI agent across simulated operating conditions until the policy converges.
  • Test performance across disturbances, constraints, and changing feed conditions.
Phase 3

Deliver insights

  • Deliver controller setpoint recommendations and improved operating conditions.
  • Package the digital twin and insights so your team can reuse them after the project.

Built on tools you trust. Every recommendation is grounded in your real process model, so engineers can review, validate, and act on the results with confidence.

Real results

A practical operating view that ties optimization behavior back to the units, streams, and economics your team already monitors.

DP Optimize
Process Recycle
Feed Heat Exchanger Column Compressor Cooler Product Recycle
Process feed built from your historical operating data.
Focused metric

Best Reward

Optimization outcome

Engineers can see whether the policy is still learning or has stabilized around better setpoints.

What you receive

Recommendations your engineers can review and validate

Not a black-box score. You get setpoint recommendations, expected tradeoffs, and supporting context that can be checked against your simulator before anything reaches the plant.

Simulator-native Built around the simulator and workflows your team already uses
Constraint-aware Grounded in safety limits and process constraints
Operator-ready Recommendations tied to units, streams, and site economics

What you can optimize

Start with the business objective, then let the model search within real process constraints. Profitability, throughput, emissions, water use, and controllability can all be part of the same optimization problem.

Uphold safety

Every recommendation is constrained by process limits and safety parameters, so optimization stays grounded in the way your plant actually operates.

Improve profitability

We optimize against your economics, not generic objectives, helping teams improve throughput, yield, and operating margin in the same workflow.

Environmental impact

Energy use, emissions, water, and waste can all be included in the objective function so improvements support both performance and sustainability goals.

Flexible objectives

GHG reduction, controllability, spec quality, or another site-specific target. You define the objective and the model follows your priorities.

Workforce efficiency

Optimization runs become repeatable and easier to share, giving engineers more time for high-value decisions instead of manual scenario hunting.

Why teams trust us

Chemical engineering, applied AI, and industry advising in one team, so recommendations are technically grounded and practical to implement.

HD

Henry Diehl

Co-Founder & CEO

MP

Michael Perry

Co-Founder & CTO

RW

Robert Wygle, PE

Advisor

MG

Micah Green, PhD

Advisor

JR

Jack Rodden, MBA

Advisor

We combine process intuition with modern machine learning so optimization is easier to trust, explain, and maintain after the engagement ends.

Talk through a first project

In a 30-minute intro, we can review your process, constraints, and economics to see whether AI optimization is a fit and what a practical first project could look like.

Typical starting points
  • Improve yield, margin, or throughput on an existing unit
  • Reduce energy, emissions, water use, or waste within constraints
  • Build a digital twin your team can keep using after the project
Direct outreach

Bring a specific unit, plant objective, or data problem. We will help you assess likely value, rough scope, and the right first step.

Selected affiliations, research ties, and ecosystem relationships