ACRAZO Science Demo

Private formulation intelligence for coatings R&D.

A visual demo of how a client-owned ACRAZO LLM can combine public chemistry context with private formulas, TDS/MSDS files, old experiments, customer complaints, and technical service history — inside the customer’s own environment.

ACRAZO Science Formulation AI

Goal: improve adhesion + corrosion resistance without increasing cure time or VOC.

Input: customer complaint + target substrate + old formulation family
Private memory: 50–200 uploaded documents inside client environment
Output: ranked failure causes + five next experiments

The buyer sees a complete R&D workflow, not a generic chat page.

The demo is intentionally designed as a guided workflow. It is powerful enough for a CEO, CTO, or R&D director to understand the value, but realistic enough to build as a private pilot with templates, retrieval, structured outputs, and LLM reasoning.

01

Public starting context

Coatings chemistry, substrate types, binder families, common failure modes, public TDS logic, and technical vocabulary.

02

Private upload

TDS, MSDS, old formulations, test results, customer complaints, sales notes, and technical service history are uploaded only inside the client environment.

03

Question engine

The system asks missing questions: substrate preparation, humidity, film thickness, curing window, pigment volume, pretreatment, and field conditions.

04

Experiment narrowing

Instead of proposing thousands of random trials, the workflow narrows virtual combinations into a short, defensible DOE plan.

05

Decision output

Five prioritized experiments, predicted tradeoffs, customer-ready response, and internal technical report draft.

Public materials knowledge + private company memory
The visual is a demo metaphor: ingredients, failure modes, test history, customer requirements, and target properties are connected inside the client-controlled environment.

Demo input: field failure + formulation target

User note: “Customer reports edge corrosion and adhesion loss after 480h salt spray on phosphated steel. Current 2K epoxy primer passes initial adhesion but fails after humidity cycle. Need stronger corrosion resistance, same viscosity window, no major cost increase.”

250kvirtual candidate combinations screened as a demo scenario
42candidate formulation families clustered
5recommended experiments for first bench run
1customer-ready technical answer draft

Example AI output shown on the demo page.

The output looks serious without requiring impossible automation on day one. In the pilot, these cards can be generated from the customer’s private documents and controlled templates.

Likely failure causes

Insufficient barrier at edges, pretreatment inconsistency, pigment/binder imbalance after humidity cycling, possible under-cure window, and substrate contamination risk.

Formulation direction

Compare zinc phosphate / aluminum barrier pigment balance, silane pretreatment support, crosslink density adjustment, and lower water uptake resin package.

Customer answer

Generate a technical service response explaining likely causes, proposed corrective tests, and a controlled improvement plan without revealing internal formula details.

TrialPurposeChange to testExpected signalDecision rule
E-01Edge corrosion barrierIncrease lamellar barrier package within viscosity limitReduced creep at scribeKeep if salt spray improves without adhesion loss
E-02Substrate interfaceAdd silane-assisted pretreatment / primer interface checkBetter wet adhesion after humidity cycleKeep if cross-hatch remains stable
E-03Water uptakeAdjust resin/crosslink density while maintaining pot lifeLower blistering tendencyKeep if dry time remains acceptable
E-04Anti-corrosion pigmentCompare phosphate/chromate-free inhibitor balanceBetter corrosion delayKeep if cost impact stays within range
E-05Field condition robustnessTest film thickness and cure window sensitivityReduced failure variabilityKeep if performance holds under low-temperature cure
Privacy message shown inside the demo: confidential formulas and customer documents are not sent to ACRAZO. They are uploaded into the client’s private ACRAZO LLM environment on a private cloud, on-prem server, or offline workstation selected by the customer.

What the pilot proves in 60 days.

  • Can the private LLM answer technical questions using the customer’s own documents?
  • Can it convert scattered history into a structured DOE plan?
  • Can it generate a customer-ready technical service response?
  • Can R&D, sales, and technical service use one controlled knowledge layer?
Request Science Pilot

What it does not overpromise.

This demo does not claim automatic discovery of a perfect formula from nothing. It shows a realistic private AI decision workflow: retrieval from private documents, structured reasoning, expert review, experiment ranking, and reusable technical output templates.