MechNetIQ consulting for manufacturers

Reduce recurring production loss.Prove the result.

MechNetIQ helps manufacturers isolate controllable losses in downtime, diagnosis, recovery, scrap, and production support. We improve the workflow with supervised industrial AI only where it earns a measurable advantage, then validate the result against plant and financial metrics.

One production area, asset family, or recurring incident category. Fixed scope. Human-controlled by design.

MECHNETIQ / LOSS REVIEWCONTROLLED
LOSS SIGNALRecurring stop / recovery delay
TRACEDetection → diagnosis → validation
PROOFPlant metric + financial owner
OT-Praxis assurance remains separate from production control.

Customer promise

Find the loss. Prove the fix. Measure the result.

MechNetIQ helps manufacturers identify a specific source of production loss, determine which intervention is worth pursuing, and validate the result before scaling.

We begin with the operating problem—not the technology. Downtime, slow fault recovery, scrap, rework, quality losses, bottlenecks, material-flow problems, maintenance inefficiency, and other measurable losses can be evaluated against actual operating data.

Where should you invest to recover the greatest amount of production value—and what evidence supports that decision?

The MechNetIQ method

Move from loss signal to investment decision.

Each step narrows uncertainty and keeps the scope tied to an operating metric the plant already understands.

01

Find the Loss

Establish a measurable operating baseline across downtime, MTTR, throughput, first-pass yield, scrap and rework, cycle-time variation, schedule attainment, or bottleneck losses.

Translate the operating loss into economic terms where sufficient customer data exists.
02

Understand the Cause

Analyze the process, equipment, data, workflow, maintenance, controls, networking, and human dependencies contributing to the loss.

Do not assume AI is the solution.
03

Model the Alternatives

Compare interventions using historical analysis, lightweight simulation, production modeling, or controlled experiments where appropriate.

Possible interventions include process, maintenance, controls, workflow, information, automation, AI-assisted diagnostics, integration, training, or escalation changes.
04

Prove the Fix

Identify the smallest practical experiment capable of testing the recommended intervention.

Where human judgment or AI adoption affects the result, OT-Praxis can measure the proposed workflow before or alongside production deployment.
05

Measure the Result

Compare pilot performance against the agreed baseline and success criteria.

The question is not whether the technology worked; it is whether the production result improved enough to justify scaling.

Unplanned downtime

Mean time to repair

Constraint throughput

Cost of poor quality

Recovery expense

Schedule attainment

Initial engagement

Production Loss Diagnostic

A fixed-scope engagement that identifies one economically meaningful production loss, isolates the controllable portion, and defines a pilot with measurable acceptance criteria.

Typical duration2–4 weeks
ScopeOne facility area, line, asset family, or recurring incident
Historical baselineApproximately 8–12 weeks of available operating data where practical
OutcomeOne quantified opportunity and controlled pilot plan

What the diagnostic delivers

  • Production-loss baseline
  • Incident or loss Pareto
  • Controllable versus non-controllable loss analysis
  • Incident-time decomposition
  • Plant-system and role dependency map
  • Data availability and trust assessment
  • IT/OT and operational-risk boundaries
  • Recommended intervention
  • KPI and financial measurement definition
  • Controlled pilot plan
  • Executive readout

Capacity is not automatically revenue. Recovered time creates financial value only when the plant can use it; MechNetIQ does not double-count overlapping benefits.

Decision confidence

Forecasts should show uncertainty—not hide it.

MechNetIQ separates measured facts from modeled assumptions. Recommendations communicate historical loss, addressable opportunity, expected improvement range, implementation cost, payback, confidence, uncertainty, assumptions, and the experiment that would reduce them.

No investment recommendation should depend on a model that cannot represent the operating problem.

Production Loss Opportunity
Historical production loss$740K–$910K
Addressable opportunity$210K–$360K
Expected recovered value$241K
Modeled range$150K–$325K
ConfidenceModerate
Primary uncertaintyFault recurrence frequency

Illustrative example — not a MechNetIQ customer result.

Validation principle

Test the model before using it to justify investment.

Historical production↓Baseline model↓Backtest against observed performance↓Counterfactual experiments if representative↓Recommend a controlled pilot

If the model is not sufficiently representative, we do not use it to justify the investment. We do not advertise universal prediction accuracy.

Powered by OT-Praxis

Test the workflow before production has to depend on it.

Some production improvements depend on whether people can recognize the problem, gather evidence, diagnose correctly, challenge unsupported AI recommendations, escalate, act within authority, recover safely, and verify restoration.

For qualifying engagements, OT-Praxis can reproduce that decision environment in the fictional Meridian environment and compare the current workflow with a proposed intervention. This adds evidence before deployment; it does not prove simulated behavior automatically transfers to production.

01Representative incident
02Current workflow
03Proposed workflow
04Controlled simulation
05Performance measurement
06Deployment decision

Measures that may be evaluated

  • Diagnostic and recovery time
  • Hypothesis and evidence quality
  • Escalation and authorization behavior
  • AI verification and challenge
  • Recovery validation
  • Repeatability across changed conditions

Human-controlled by default: read-oriented access, approved data sources, visible provenance, explicit approval, action logging, named owners, rollback procedures, and bounded pilots. No direct PLC writes, safety-system interaction, autonomous restart, recipe changes, or unapproved vendor access.

See OT-Praxis in Meridian →

Decision-quality commitment

The MechNetIQ Decision-Quality Guarantee.

We don’t manufacture ROI cases to justify technology. If the evidence says an intervention isn’t worth your capital, we’ll tell you.

Illustrative example: do not proceed.

A $500,000 expected loss becomes $65,000 realistically addressable against a $140,000 implementation.

Illustrative example — not a MechNetIQ customer result.

For qualifying diagnostics, the customer and MechNetIQ establish the required data, scope, baseline, validation criteria, responsibilities, and decision standard before work begins.

If the customer supplies those prerequisites and MechNetIQ cannot deliver the agreed decision-quality analysis, MechNetIQ will refund the applicable diagnostic professional fee, subject to the applicable Statement of Work.

A recommendation not to invest is a valid result.

Covered

  • The agreed decision-quality analysis is not delivered
  • The failure occurs despite the customer satisfying the documented prerequisites
  • The applicable Statement of Work identifies the scope, data, baseline, validation criteria, and decision standard

Not automatically covered

  • A particular dollar amount of savings
  • A universal OEE increase or fixed downtime reduction
  • Future production volume or equipment reliability
  • Customer implementation performance
  • Conditions outside the agreed scope, including production mix, staffing, materials, suppliers, or maintenance execution

Production results depend on implementation, mix, equipment, staffing, suppliers, schedules, and other conditions outside MechNetIQ’s control. Specific terms in the applicable Statement of Work govern each engagement.

Controlled improvement pilot

Then prove it under controlled conditions.

Use the smallest live experiment capable of testing a credible opportunity.

BASELINEMedian recovery time: 47 minutes
OBJECTIVEReduce median recovery time by at least 20%
GUARDRAILSNo unacceptable deterioration in safety, quality, cybersecurity, or stability
PILOTOne area · defined incidents · measurement period · pre-agreed criteria
DECISIONScale · optimize and retest · try another intervention · stop

Illustrative example — not a MechNetIQ customer result. Objectives and guardrails are established in the applicable Statement of Work.

1

Historical Analysis

What is the loss?

2

Baseline Validation

Can we adequately represent the relevant historical behavior?

3

Counterfactual Analysis

Which interventions appear economically promising?

4

Workflow Simulation

Can the affected people and process achieve the intended change?

5

Controlled Production Pilot

Does it work under real operating conditions?

6

Verified Result

What production value was actually recovered?

For qualified engagements with an established baseline and measurable outcome, MechNetIQ may structure a portion of its fees around agreed performance milestones.

Devon X. Beck, MechNetIQ founder and OT cybersecurity practitioner

Practitioner context

Built by a practitioner who understands plant consequences.

Devon X. Beck is an OT network and cybersecurity practitioner with more than a decade of experience across manufacturing technology, industrial security, network engineering, and infrastructure operations. He currently supports Ford Motor Company production environments through Sandalwood Engineering & Ergonomics, focusing on OT endpoint-security posture, policy and compliance recovery, application control, plant-floor asset reconciliation, vendor-system whitelisting, privileged access, and production-safe remediation. Previously, at General Motors, he worked across industrial cybersecurity, Splunk SIEM, CyberArk privileged access, IT/OT convergence, endpoint hardening, backup and recovery, penetration testing, and PLC and robotics security. Earlier, through Epitec at Ford Motor Company, he supported WAN planning, network segmentation, NetFlow capacity planning, FlexVPN, and routing modernization. He holds CISSP, CISM, CompTIA Security+, CompTIA SecAI+, and CCNA–CCNP credentials. That background informs MechNetIQ’s operating principle: production technology must be secure, supportable, measurable, and governed by the people accountable for plant outcomes.

Company names identify professional employment experience only and do not imply sponsorship, endorsement, or a consulting relationship with MechNetIQ or OT-Praxis.

Questions

Start with a problem the plant already knows.

Do we need an AI project already?

No. The engagement begins with an existing production loss. AI is recommended only when it offers a measurable advantage over process, documentation, network, ownership, or conventional engineering improvements.

What data is normally reviewed?

The exact sources depend on the problem. Useful inputs may include downtime logs, CMMS work orders, MES records, alarm and event history, shift reports, quality data, vendor-support records, and relevant financial costs.

Will MechNetIQ connect AI directly to PLCs or safety systems?

Not in the initial engagement. Early pilots are read-oriented, bounded, logged, and human-approved. Direct control, recipe changes, safety interaction, and autonomous restart are outside the initial scope.

How is value verified?

The baseline, eligible events, exclusions, operating metric, and financial conversion are agreed before the pilot. The result is reviewed using customer operating data and the appropriate operations and finance owners.

What is a suitable first problem?

A recurring incident or loss category that is economically meaningful, narrow enough to investigate, supported by some operating evidence, and owned by a reachable plant or engineering leader.

Next decision

Give us one measurable production loss.

Start with one line, cell, process, recurring failure, or operating constraint. We’ll determine what evidence is available, whether the opportunity can be credibly quantified, and what the smallest useful next step should be.

No production files or credentials are requested. Review the privacy notice before submitting.

Start with one measurable production problem. Do not send confidential production files or credentials.

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