Engagements set out in the detail an engineer would want. Client identities are withheld; the work is not. Each case links straight through to the service that delivers it and the in-house capability that stands behind it, so you can go from an example to the people who do it in one step.
Each case sets out what the client was facing, what we did about it, and what they were left with. Jump to the one closest to your situation, or read straight through.
A data sheet said one thing and the material said another. We ran the flexural program in-house and settled it.
Jump to detail ↓A lighter panel meant an unproven deflection. Composite FEA answered it before a prototype existed.
Jump to detail ↓A hole punched through aramid webbing was the failure point. We engineered it out and took the part to production.
Jump to detail ↓A daily manual re-key between accounting and the shop floor, reduced to one click and carried through a platform migration.
Jump to detail ↓Unreliable pull-test results meant the method was the problem. We corrected it, sourced the machine, and laid out the floor around it.
Jump to detail ↓An old machine still had the muscle. It just needed a voice, and then a lab built around it.
Jump to detail ↓Several of the cases below came out of complete laboratory build-outs. The full capability, from the standards a product has to meet through to a documented working lab, is set out at the end of this page. Lab setup and development.
A supplier's data sheet said one thing. The material said another. We ran the test that settled it.
In brief: A manufacturer needed to know whether a fiber-reinforced plastic actually met the supplier's published values before relying on it. We planned and ran the flexural testing in-house to ASTM D790, interpreted the results against the data sheet, flagged where the material fell short, and managed the vendor and lab follow-up through to a defensible answer.
A manufacturer relying on a fiber-reinforced plastic laminate from two vendors needed independent confirmation that the material performed the way its data sheets claimed, in both the lengthwise and crosswise directions, before committing to it. Rather than send the work out and wait on a data sheet in return, we planned the program, cut and conditioned the specimens, and ran the flexural tests in-house to ASTM D790, then interpreted the results ourselves.
The testing showed most specimens met or exceeded the published strength, but that the crosswise modulus on several specimens fell below the supplier's nominal value, and that one specimen exhibited a double-peak failure that warranted a repeat. We wrote it up in a formal, sealed report with the full data, stress-strain curves, and a direct comparison to the product-sheet values, so the client had a defensible basis for the conversation with the supplier rather than a bare pass or fail.
From there we managed the parties through to a fix: we reviewed the external lab's tensile results, identified an inconsistency in how modulus had been calculated, raised the discrepancy with the material supplier, and coordinated the re-cutting of specimens and the repeat testing needed to close it out.
Specimen matrix across two vendors, two thicknesses, and both material directions, conditioned and tested to ASTM D790.
Ran the program directly rather than outsourcing, keeping interpretation and turnaround under one roof.
Compared measured strength and modulus against published values and flagged the specimens that fell short.
Full data, curves, observations, and a defensible comparison the client could take to the supplier.
Reviewed the external lab's tensile results, raised a modulus-calculation discrepancy with the supplier, and managed the repeat testing to close it out.
A lighter panel meant an unproven deflection. FEA answered it before a prototype existed.
In brief: An industrial manufacturer needed a new lightweight sound-barrier panel to meet deflection codes before committing to tooling, but testing full-scale panels to failure was impractical. We ran composite FEA to predict deflection and map stress, then identified a design change that brought it within code, clearing the path to first prototypes.
An industrial manufacturer developing a new acoustic sound-barrier wall panel line needed to confirm the product would meet municipal and industry deflection codes before committing to tooling, with deflection between supporting column spans identified as the critical unknown. Because the panels were large, wind-loaded, and intended to remain lightweight for faster installation, physical testing to failure was impractical and long-term wind-induced deflection could not be observed directly.
We built a 3D composite material model of the panel system and ran finite element analysis using industry-standard simulation software to predict deflection under load, mapping stress concentration zones and identifying where failure would initiate first. Iterating on the model, we identified a perforated sheet configuration as the design change needed to bring deflection within code, redistributing and minimizing peak stress so the panel would resist failure significantly longer than the baseline design.
The analysis gave the client a defensible basis to move to first prototypes and pursue market validation without building and destructively testing full-scale panels.
3D material model of the panel system analyzed under load with industry-standard simulation software.
Predicted deflection between column spans against municipal and industry codes without destructive full-scale testing.
Identified where failure would initiate first under wind and service loading.
Identified a perforated sheet configuration that brought deflection within code and extended failure resistance beyond the baseline.
Gave a defensible basis to move to first prototypes and market validation.
A hole through aramid webbing was the failure point. We engineered it out.
In brief: A transit-equipment manufacturer was punching mounting holes through ballistic-grade aramid webbing, weakening it at every fastener. We redesigned the attachment to remove the holes entirely, validated it through prototyping and pull testing, and carried it to production.
A transit-equipment manufacturer producing a ballistic-grade aramid webbing product was securing its clamps by punching mounting holes directly through the protective webbing, compromising material integrity at every fastening point and leaving the hardware visually mismatched to the rest of the product line. We led a full redesign to eliminate the through-holes entirely while developing a mounting geometry unique to the customer's product.
Early concepts were iterated through PLA 3D-printed prototypes to validate fit, form, and mounting feasibility against the existing product family. Once a concept was selected, we developed the detailed design and reprinted in PLA for a further round of fit and function checks, then produced metal 3D-printed prototypes for pull testing, benchmarking strength directly against the incumbent clamp design.
With performance confirmed equal to or exceeding the original, we sourced and qualified a manufacturing vendor capable of producing the part by molding in the customer's required material, managed first article inspection, and carried the part through to quality control and release. The clamp is now in active use in the field.
Eliminated through-holes in the protective webbing with a mounting geometry unique to the product.
Validated fit and function through successive PLA 3D-printed rounds, then metal 3D-printed prototypes for pull testing.
Confirmed strength equal to or exceeding the incumbent clamp.
Sourced and qualified a molding vendor in the required material and managed first article inspection.
Carried the part through quality control to release; now in active field use.
From a daily manual re-key to one click.
In brief: An established manufacturer was re-keying accounting data by hand to make labels and schedule production. We automated the whole path from order to shop floor: import, per-team sorting, labeling, live inventory, and real-time floor displays, then carried it through a platform migration.
An established manufacturer was producing shipping and box labels by hand, re-entering order details that already existed in its accounting platform onto separate spreadsheets, then sorting and assigning the work by due date across teams. We built an automation layer that pulled open orders directly from the accounting platform, eliminating the duplicate entry, then structured the data to sort and break down work orders by due date and product line, and split them into per-team views so each team could see exactly what to run and when.
On top of that, we automated label production for both box and card labels, matched to customer-specific formats, paper stock, and printers, and generating barcodes and QR codes as required. A live inventory layer deducted the relevant components from stock on each recorded sale into a running ledger, with counts pushed to shop-floor displays so ownership could time reorders against each part's lead time. Scheduling was automated alongside it, so recurring dates and appointments were created without manual entry.
The system was later carried forward through the company's migration from a desktop accounting platform to its cloud version, so the automation kept running through the change of underlying software.
Pulled open orders directly from the accounting platform and eliminated manual re-entry.
Split per team, giving each one a clear daily breakdown of what to run and when.
Box and card labels with barcodes and QR codes, matched to customer-specific formats, stock, and printers.
Automatic component deduction per sale into a running ledger, tied to lead-time-based reorder visibility.
Real-time inventory and work status pushed to floor displays for ownership.
Recurring dates and appointments created automatically, without manual entry.
System carried through the migration from desktop to cloud accounting software.
Unreliable results on a strain-rate sensitive plastic meant the test method was the problem, not the product.
In brief: When an established manufacturer's pull-test results proved unreliable on a strain-rate sensitive plastic, we corrected the method, sourced a compliant test machine within budget, built the reporting pipeline, and reorganized the warehouse and lab around clean material flow.
An established manufacturer testing a strain-rate sensitive plastic product was getting unreliable pull-test results from a preliminary setup unsuited to the material's behaviour. We advised on a proper test methodology and identified the need for a dedicated tensile test machine within a tight budget. Unable to find a suitable used unit domestically, we located and offshore-sourced a machine that met the requirement, managed import logistics, and verified compliance with Canadian standards before installation.
We commissioned the machine, developed documentation and best-practice testing procedures aligned to ASTM standards for different test speeds, and built a post-processing pipeline so results could be reported and analyzed consistently. When the same client later needed multi-axis fatigue testing to evaluate long-term field performance, we defined the technical requirements and supported procurement of a suitable machine within budget.
Beyond the equipment itself, we laid out the client's warehouse to streamline material flow from intake to finished goods, integrated the lab space into that flow, and introduced a testing documentation system to support QC/QA recordkeeping and vendor change tracking going forward.
Diagnosed the preliminary pull-test setup as unsuited to strain-rate sensitive behaviour and specified a proper method.
Located a compliant tensile machine abroad within budget, and managed import logistics and Canadian-standards verification.
Installed and commissioned the machine and developed ASTM-aligned procedures for multiple test speeds.
Automated consistent reporting and analysis of test results.
Defined requirements and supported procurement for long-term field-performance testing.
Laid out the warehouse for material flow from intake to finished goods and integrated the lab into that flow.
Introduced recordkeeping to support quality control and vendor change tracking.
An old machine still had the muscle. It just needed a voice.
In brief: An aging test machine had the mechanical capability but no digital output, and replacement was off the table. We retrofitted it with custom signal-acquisition electronics and software, then expanded the work into a full lab build-out now in daily use.
An established manufacturer testing the adhesive bond and overall performance of composite skin-and-core panels was working with an aging test machine that performed well mechanically but produced no digital output, while budget constraints ruled out a full replacement. We sourced and retrofitted a functionally sound used machine with custom signal-acquisition electronics that read the machine's output directly, and a data-capture interface we built in-house to bring live test data onto a computer.
The interface let technicians run tests, record results live, export to standard file formats, and compare datasets side by side, effectively digitizing a legacy machine without the cost of a new one.
The same engagement expanded into a full laboratory build-out. We planned the lab layout, specified the equipment lineup including a drop-weight impact machine, consulted with a specialist design firm on its development, and managed procurement, testing, and commissioning of the new equipment. The lab is now fully operational and in regular use.
Added custom signal-acquisition electronics to a mechanically sound used machine to capture its output digitally.
In-house software to run tests, record live, export to standard formats, and compare datasets side by side.
Planned the layout and specified the equipment lineup, including a drop-weight impact machine.
Consulted with a specialist design firm on equipment development.
Managed procurement, testing, and commissioning; the lab is now in regular use.
A lab that works from day one, not a pile of boxes and a wiring diagram. Standing up a lab is where budgets quietly go wrong: the wrong instrument gets bought, the space fights the workflow, and the results, once they arrive, are not defensible because nothing was documented. We take on the whole environment, from the standards a product has to meet through to a working lab with records behind it.
We start with the standards the product has to meet and the tests that follow from them, so the equipment and procedures are driven by real requirements rather than guesswork.
We specify the machinery each test needs, source it including internationally when that is where the right unit is, and handle export-country and import logistics and compliance through to delivery.
When a test has no off-the-shelf machine, we design and build it: robotic fatigue cells, drop-weight and falling-weight impact testers, and bend, peel, and climbing-drum fixtures, each built to the applicable standard.
We install and commission the equipment and, where needed, operate it and run the quantification and analysis, so the lab is producing usable results rather than simply powered on.
We write the operating procedures, equipment manuals, and test briefs, and set up sample sorting and full records of every tested sample, so the lab is traceable and audit-ready from the first test.
We lay the lab and the surrounding floor out around how material and people actually move, and adjust existing plant layout where a better process flow is possible.
We imported a tensile test machine from overseas at a fraction of domestic cost and managed the full export and import logistics and compliance. We designed a multi-axis robotic fatigue-test cell, installed and operated it, ran the quantification analysis on the results, and reworked the plant layout for better process flow.
The mechanical program covers tensile and breaking strength of webbing to ASTM D6775 and D638, tear propagation to D1938, and durometer hardness to D2240. Alongside it, the lab supports the transit fire-safety testing the product line depends on: flame spread to ASTM E162, smoke density to E662, heat and smoke release by cone calorimeter to E1354, and FMVSS 302 flammability. The lab now runs the company's R&D, QA, and QC testing day to day.
The sourcing side of this build, in detail ↑We purchased a tensile test machine and retrofitted it with digital data capture, added a falling-weight impact tester, and built fixtures for three-point bend flexural, T-peel, and climbing-drum peel testing, each matched to its governing standard.
T-peel runs to ASTM D1876 and climbing-drum peel to D1781, with impact resistance evaluated by the Gardner falling-weight method to D5420, and further characterization by sandwich-core density to C271 and double-lap-shear adhesive strength to D3528. We developed the SOPs for all of them, so the lab was documented and repeatable rather than dependent on one operator's memory.
The retrofit side of this build, in detail ↑Building or expanding a lab of your own? The service page sets out how an engagement is scoped, and the capabilities page covers the testing infrastructure behind it.
The engagements on this page are not one-offs. Each one draws on the same in-house capability set, scoped and delivered under one accountable point of contact.
Behind the supplier verification and the clamp benchmarking. Failure investigation, second opinions, supplier qualification, and QC/QA systems.
Explore the service →Behind the acoustic panel analysis. FEA from linear static to nonlinear, 3D modelling, and design-for-manufacture review.
Explore the service →Behind the order-to-floor system and the lab data pipelines. Inventory, labels, reporting, and integrations that run themselves.
Explore the service →Behind both laboratory build-outs. Lab design from scratch, machinery selection, test-protocol development, and procurement.
Explore the service →Behind the offshore machine sourcing and the molding-vendor qualification. Vetting, offshore sourcing, customs, and purchasing.
Explore the service →Behind the clamp redesign and the retrofit electronics. Prototype design and build, control systems, and integration.
Explore the service →The first conversation is always free, with no obligation to proceed.