Pure Technology
Process Optimisation

Design and manage experiments with industrial discipline.

Plan, execute, document, and analyse designed experiments so process learning becomes repeatable organisational knowledge.

Real-time
Operational visibility
Plant-ready
Built for the shop floor
Connected
Works with your data
Measurable
Outcome-led rollout
FEATURES

Process Optimization Experiments

Conduct design of experiments trials under plant conditions with structured engineering logs.

Factorial Experiment Plans

Design trial runs with varied settings (speed, feed, heat) to map outputs.

Improvement: Finds sweet spot parameters.

Standard Execution Guides

Instruct line operators on specific trial conditions to avoid setup bias.

Improvement: Validates test criteria.

Knowledge Base Library

Retain test histories so engineering learnings aren't lost to turnover.

Improvement: Preserves R&D assets.

Response Surface Mapping

Plot yield results dynamically to identify optimal process windows.

Improvement: Maximizes yield gains.

Process Optimization Experiments
TRIAL MATRIX

Design of Experiments (DoE) Hub

Configure optimization experiments, input variables, and trials on a central engineering board.

Factor Setup

Configure input variables and level ranges for experiments.

Design Options

Support full, fractional factorial, Box-Behnken, and Taguchi matrices.

Constraint Checks

Identify and prevent hazardous parameter settings.

Result Logs

Record output metrics (e.g. strength, viscosity) for each trial.

Approval Signatures

Collect sign-offs from process managers before starting trials.

ANOVA Calculations

Partition variance to identify key parameter contributions.

DraftDoE Plan
8 Trials

DOE-2026: Extrusion Heat & Speed

98.2%
Target Yield
2 Factors
Inputs
Ready
Trial Status
8 Runs
DoE Scope
1Input Factor Ranges
Factor A: Temp Level (140°C vs 160°C)A
Factor B: Speed Level (10m/s vs 15m/s)B
Response: Casing Surface RoughnessResponse
2Trial Run Matrix
Run 1: Temp 140°C, Speed 10m/s
Run 2: Temp 160°C, Speed 10m/s
EXPERIMENT LOOPS

6-Step Process Optimization

Define objectives, configure factor sets, generate trial plans, execute trials, analyze results, and publish recipes.

Step 1 Detail

Objective Definition

Define optimization goals (e.g. increase yield, reduce defect rates).

Deploy This Flow
FIELD CHECKS

Log Trial Results

Step-by-step entry for operators to log parameter values and observations during trials.

Operator Guidance

Provide clear parameter instructions for each trial run.

Limit Checks

Flag and prevent out-of-safety-limit inputs.

Photo Attachments

Attach photos of trial components for records.

Offline Capture

Log trial measurements offline; sync once connected.

Record Trial Run
1
Select Trial Run

Run #4: Temp 160°C, Speed 15m/s

2
Record Readings

Enter surface roughness: 0.12 microns

3
Verify Compliance

Confirm trial stayed within safety limits

DoE Trial Calendar
Due Today
14
Planned DoEs
12
Approved
2
Due Review
Today
Extruder Temp Trial Run

Line 4 Extruder • Run #5-8 • Operator check

1:00 PM
Tomorrow
Mixer Impeller Test

Line 3 Mixer • Run #1-4 • Technician check

9:00 AM
EXPERIMENT SCHEDULES

Trial Calendars

Plan and track experiment timelines and approvals to ensure trials are executed on schedule.

Schedule Alerts

Notify team members when trial schedules are reached.

Approvals Workflows

Collect manager sign-offs before commencing trials.

Material Planning

Coordinate raw material releases with trial schedules.

Calendar Views

View all scheduled trials in a unified planner.

TRIAL ABNORMALITIES

Trial Process Deviations

Log instances where trial runs exceed safety or quality limits, halting experiments.

Safety Halts

Halt experiments immediately when safety thresholds are breached.

Deviation Logs

Record parameter histories leading up to anomalies.

Supervisor Alerts

Send anomaly reports to plant supervisors automatically.

CAPA Integration

Verify corrective actions are completed before restarting trials.

Trial Exception Log
DOE-ERR-02
Trial Parameter Excursion
Aug 13, 2026 • 11:45 AM
High Priority
168°C
Excursion Value (Max 165)
Run 4
Affected Run
Details

Core temperature spiked past safety limits during trial run #4. Trial immediately halted. Safe state verified.

Trial RCA File
RCA-DOE-02
1 Halted Run
Scope
Sensor Drift
Primary Cause
95%
Confidence
5 Whys Trace
Why did temperature spike? → Heating controller stayed open too long.
Why did it stay open? → Temperature sensor calibration drift caused low readings.
TRIAL ANALYSIS

Trial Defect Analysis

Audit failed trials to identify root causes and optimize safety limits.

Fault Correlations

Analyze historical sensor readings to identify drifts.

5 Whys Logging

Log structural explanations next to trial records.

CAPA Workflows

Generate gauge calibration tasks directly from root causes.

Insight Archive

Search past RCA records to resolve similar process anomalies.

EXPERIMENT RANGE

Supported DoE Methods

Select from multiple design of experiment techniques depending on variable counts.

Factorial Designs

Evaluate multiple variables and interactions simultaneously.

Response Surface Methods (RSM)

Optimize parameters by mapping multidimensional response curves.

Taguchi Methods

Optimize quality and stability under varying operating conditions.

Screening Designs

Identify key variables from hundreds of potential inputs.

INTEGRATION SYSTEM

Connected DoE Pipeline

Connect experimental designs with active control plans, historians, and registers.

Historian Data

Import trial parameter values from historian databases automatically.

Control Plans

Publish optimized setpoints to control plans automatically.

LIMS Platforms

Link trial runs directly with laboratory test results.

Asset Registry

Log trial histories and parameter levels against physical assets.

Outcomes that matter

Numbers from real engagements.

Faster
Learning cycles

Bring structure to test-and-learn work on products and processes.

Repeatable
Experiments

Preserve how trials were run rather than relying on individual memory.

Stronger
Process knowledge

Turn results into controlled, usable guidance for the next team.

Built for teams that need this to just work.

Who this is for

  • Process and R&D Engineers designing structured experiments to optimize product quality.
  • Quality Assurance Teams validating process windows and operating boundaries.
  • Plant and Operations Managers who need permanent, documented trial records rather than tribal knowledge.
  • Manufacturers transitioning from trial-and-error testing to structured, repeatable DOE methodologies.
Solution coverage

The operational building blocks your team needs.

Configure experimental inputs and responses, compile trial matrices, enforce safety thresholds, and store analysis records.

1

Experiment planning

Define factors, responses, constraints, trial plans, and owners before a production experiment starts.

2

Execution records

Capture observations and results against the approved experimental conditions.

3

Knowledge library

Retain experiment history, findings, and validated settings for future engineering work.

Built for adoption

From the shop floor to the leadership view.

Enforce safety boundaries, guide operators through active trials, and convert validated setups into standard settings.

1

Log Trial Run

Guide operators through active trial parameters and capture results directly at the workstation.

2

Safety Halts

Automatically halt experiments and alert supervisors if process telemetry breaches safety thresholds.

3

ANOVA & Analytics

Calculate main effects, interaction curves, and response surfaces directly from logged results.

4

Standard Settings

Convert optimal, validated factor setpoints into standard operating procedures automatically.

5

Experiment Approvals

Require manager reviews and safety signs before releasing experiment matrices to the line.

6

Knowledge Registry

Archive all past trials, designs, and statistical outcomes in a central, searchable library.

How we work

A repeatable path, every time.

1

1. Discover Scope (Weeks 1-2)

Identify the target process, define experimental objectives, and list critical factors (inputs) and responses (outputs).

2

2. Configure Safety (Weeks 3-4)

Set up the DoE hub with factor limits, safety constraints, operator logging views, and trial matrix templates.

3

3. Launch Trial Pilot (Weeks 5-6)

Execute a full, structured experiment cycle on a single production line, validate operator logging, and run initial analysis.

4

4. Scale Registry (Weeks 7-8)

Roll out the structured experimentation workflow across remaining lines and plants to establish a central, searchable trial registry.

Technology Expertise

Industrial technology your operation can rely on.

We combine industrial data, connected workflows, and secure integrations to make this solution practical for real plant operations.

Core

Factor/Response Model

DoE Hub configuration

FactorsResponsesConstraints
Advanced

Statistical Engine

ANOVA & RSM calculation

ANOVARSMRegression
Live

AI Experiment Designer

Trial optimization generator

Active LearningMatrices
FAQ

The questions we hear most.

Which experimental design types are supported (factorial, RSM, Taguchi)?+

We support Full and Fractional Factorial designs, Response Surface Methodologies (RSM like Box-Behnken and Central Composite), and Taguchi Orthogonal Arrays depending on your variable count and trial budget.

Can this calculate ANOVA and interaction effects automatically?+

Yes. Once trial run response measurements are logged, our statistical engine automatically performs Analysis of Variance (ANOVA), generates main effects/interaction plots, and calculates regression models.

How are safety limits enforced during trial runs?+

Safety boundaries and interlock conditions are defined in the experiment plan. If SCADA telemetry registers any parameter excursions past these limits during a trial, operators are alerted and runs are immediately flagged as halted.

Can we search past experiment history before designing a new trial?+

Yes. All completed and drafted experiments are archived in a central, searchable knowledge registry. You can search by factor keywords, equipment type, or product SKU to review past trial configurations.

Does the AI designer account for constraints between factors?+

Yes. You can define parameter constraint rules (e.g., 'Temperature + Pressure must not exceed X'). The AI experiment designer respects these constraints when generating trial matrices.

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