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Reverse Lab

Development & Operations Services

Instrument & Industrial Systems Engineering

Full-cycle development of instruments, industrial devices, and technological systems. Engagements include custom device development, industrial equipment design, and related work — all under NDA.

  • custom device development
  • industrial equipment design
  • instrumentation engineering
  • electromechanical system design
  • embedded control systems
  • production-ready prototyping
Under NDACustom scopingGlobal delivery

Overview

About Our Instrument And Industrial Systems Engineering

Full-cycle engineering of custom instruments, industrial devices, equipment, and technological systems — concept, system architecture, mechanical, electronics, embedded, control, prototyping, and production preparation.

Engagements are scoped to a fixed deliverable list before kickoff and run under a written NDA. Daily lab notes and weekly written status keep the work auditable from your side at every step.

From concept to production

Mechanical, electronics, embedded, and control engineering — designed as one system.

Engineering Lead — anonymized portrait

Engineering Lead

Anonymized pre-NDA

How we work

How we work

Engineering decisions, not reused templates

Every engagement starts from the operational requirement, not a stock catalog. When reverse engineering is part of the work, we adapt and improve — never blind-copy — so the deliverable fits the customer's actual task rather than imitating prior art that may have been built against a different problem.

Engineering analysis

Mathematical & physical modeling, where the project needs it

As part of both reverse engineering and custom development projects, we perform in-depth engineering analysis based on mathematical and physical modeling. Depending on project requirements this may include structural calculations, fluid dynamics, gas flow analysis, thermal processes, stress and load simulations, process modeling, and validation of engineering assumptions affecting system performance and operational reliability — used for design verification, technology assessment, process optimization, and validation of technical parameters for production and commercial deployment.

When you call us

When You Need Instrument And Industrial Systems Engineering

Patterns we see across engagements. Each can stand alone or combine with adjacent capabilities.

  • Custom instrument and laboratory device development

    Bespoke measurement, dosing, control, and analytical instruments — designed and built for a specific operational or research need rather than adapted from a stock catalog.

  • Industrial equipment and machinery development

    Custom production equipment, process machinery, and industrial systems — full-cycle from concept and process engineering through prototyping, build, and commissioning.

  • Electromechanical system design for production

    Integrated mechanical, electronics, and control system design where the hardware, embedded firmware, and operating logic are designed as one product.

  • Embedded control systems for instrumentation

    Hardware-in-the-loop control systems and embedded firmware for instruments and industrial devices that require deterministic behavior, sensor integration, and operator interfaces.

  • Adaptation and improvement of existing devices

    Engineering changes to existing instruments or industrial systems where the off-the-shelf solution doesn't fully match the operational requirement — design and validation of the modification.

  • Production-ready prototyping and engineering validation

    Working prototypes built against a production-spec engineering package — not concept models. Engineering validation, test plans, and the manufacturing documentation needed to move to production.

Methodology

Our Instrument And Industrial Systems Engineering Process

Vertical phasing — each step's deliverables agreed before kickoff, and not closed until you sign off.

  1. 01

    Phase 01

    Concept and feasibility

    Engineering brief, feasibility study, and high-level system architecture. Cost, manufacturability, and operational-environment constraints set in writing before detailed design begins.

  2. 02

    Phase 02

    System architecture

    Mechanical, electronics, embedded, and control architecture defined as one system. Interface contracts between subsystems documented. Critical engineering calculations and physical-modeling assumptions validated.

  3. 03

    Phase 03

    Detailed engineering

    Mechanical CAD, PCB design, embedded firmware, and control software developed in parallel against the architecture. Adapt-and-improve approach when prior art exists — we never blind-copy.

  4. 04

    Phase 04

    Prototyping

    Working prototype built to the engineering package. Test plan executed against the original requirement. Findings flow back into the engineering package as production-ready revisions.

  5. 05

    Phase 05

    Engineering validation

    Structural, thermal, electromagnetic, and process-engineering validation as the device demands. Documentation reaches audit-grade quality.

  6. 06

    Phase 06

    Production preparation

    Final manufacturing prints, BOM, assembly documentation, and supplier-ready packages. Handover to the production team — yours or the manufacturer's.

Stack

Our Tech Stack

The languages, frameworks, and infrastructure we use in production. We don't list anything we aren't shipping with.

  • Tool

    SolidWorks / Autodesk Inventor / Onshape

    Production use — versioned per-engagement and pinned in our build.

  • Tool

    Altium Designer / KiCad

    Production use — versioned per-engagement and pinned in our build.

  • Tool

    STM32 / NXP / Nordic / ESP32 toolchains

    Production use — versioned per-engagement and pinned in our build.

  • Tool

    ANSYS / SolidWorks Simulation

    Production use — versioned per-engagement and pinned in our build.

  • Tool

    Finite element analysis (structural / thermal)

    Production use — versioned per-engagement and pinned in our build.

  • Tool

    CFD for fluid and gas dynamics

    Production use — versioned per-engagement and pinned in our build.

  • Tool

    MATLAB / Simulink (control system modeling)

    Production use — versioned per-engagement and pinned in our build.

  • Tool

    Embedded RTOS (FreeRTOS / Zephyr)

    Production use — versioned per-engagement and pinned in our build.

  • Tool

    Production-grade prototyping (CNC / 3D print / PCB fab)

    Production use — versioned per-engagement and pinned in our build.

design@workshop ~ system

$ fea analyze frame.step --load 14kN --case worst

Max stress 184 MPa · safety factor 1.62 · deflection 0.41 mm

$ build firmware --target stm32-h7 --release && flash

Built 184 KB · flashed · bench-up · sensor handshake OK

$

Deliverables

What You Receive from Our Instrument And Industrial Systems Engineering

Artifacts handed over at close-out. Each is reproducible and self-contained.

  • Full mechanical CAD package with manufacturing drawings
  • PCB design files, schematics, and BOM
  • Embedded firmware source with build pipeline
  • Control system specification and operating logic
  • Engineering analysis report (structural / thermal / process)
  • Working prototype against the engineering package
  • Test plan, validation report, and methodology appendix
  • Production-ready manufacturing documentation

Sample deliverable

instrument-industrial-systems-engineering · final report

rev.04 · pdf

Engagement summary

Findings

Our practice

Full-cycle engineering, owned end-to-end.

Custom instruments, industrial devices, and technological systems — designed and built across mechanical, electronics, embedded, control, firmware, and process engineering. We design the device, prototype it, validate it, and prepare it for production. Reverse engineering, when relevant, sits inside the same engagement; we adapt and improve, never blind-copy.

Multi-disciplinary engineering team prototyping a custom industrial device at the bench

On the bench

Mechanical, electronics, embedded, control, and process engineering — one team, one design.

Anonymized senior engineer — Engineering Lead

Engineering Lead

Anonymized pre-NDA

Anonymized senior engineer — Mechanical Engineer

Mechanical Engineer

Anonymized pre-NDA

Anonymized senior engineer — Electronics Engineer

Electronics Engineer

Anonymized pre-NDA

Anonymized senior engineer — Embedded / Controls

Embedded / Controls

Anonymized pre-NDA

We design devices and systems — not just write code that runs on someone else's hardware.

Engineering Lead, Reverse Lab

Questions

Instrument And Industrial Systems Engineering FAQ

Pulled from real client conversations. If yours isn't here, ask directly.

  • Full-cycle means we own the engagement from concept through production preparation — same team across mechanical, electronics, embedded, control, and process engineering. We don't hand the design off between disciplines mid-project, and we don't subcontract the engineering responsibility. The same practice that drew the first sketch is on site at the prototype's first power-up.

  • Both. Many engagements start with an existing device that doesn't fully satisfy the customer's task — we redesign or augment it rather than starting over. We do not blind-copy; every adaptation is an engineering decision against the operational requirement, not a clone of prior art.

  • Custom presses, automated production lines, controlled-environment chambers, dispensing and feeding systems, grippers and manipulators, energy-recovery systems, instrumentation for clinical use, and one-off industrial prototypes — see the case-study portfolio for documented engagements.

  • Yes. As part of both reverse engineering and custom development projects, we perform in-depth engineering analysis based on mathematical and physical modeling — structural calculations, fluid and gas dynamics, thermal processes, stress and load simulations, process modeling, and validation of engineering assumptions affecting system performance and operational reliability. This is used for design verification, technology assessment, process optimization, and validation of technical parameters for production and commercial deployment.

  • Software, firmware, and application development appear as supporting engineering disciplines within the broader industrial engineering context — never as the headline. A custom industrial device usually needs embedded firmware, a control application, and sometimes a web or mobile operator interface; we build all of them, but the engineering of the device itself is the load-bearing decision.

  • We deliver to a production-ready engineering package — the documentation a manufacturer needs to build at volume. We are an engineering practice, not a manufacturer; production manufacturing happens either at the customer's facility, at a partner facility, or at a manufacturer of the customer's choice. We support the production handoff.

  • Engagements start with a paid concept-and-feasibility phase that produces a scope letter with engineering deliverables, milestones, and fixed pricing for the design phase. Larger programs run in stages, with each stage scoped on the output of the previous one.

Selected work

Engagements where this capability carried significant scope.

Case studies for this service available under NDA

Most of our work in this area is covered by mutual NDA. Request anonymized references during your inquiry — we share them with prospective clients after NDA execution.

Engage

Ready to discuss your instrument and industrial systems engineering project?

All inquiries reviewed under NDA. We respond within two business days with a scoped engagement plan and fixed deliverables list.

Senior engineers · Anonymized pre-NDA