Application & Industry
What Testing Equipment Does My Industry Need?
Choose a test system from the product risk, applicable method and decision you need to make—not from a broad industry label or a machine name alone.
Start with the decision the test must support
A machine is useful only when its result supports a defined decision. An R&D engineer may need force-versus-displacement data to compare two frame designs. A quality-control team may need a fast pass/fail cycle at the end of a production line. A third-party laboratory may need documented method control, measurement uncertainty and traceable records for many clients.
These applications can involve the same product but require different fixtures, sensors, software permissions, reporting and throughput. Before discussing capacity, write one sentence: “This test will determine whether…” That statement prevents an RFQ from becoming a list of attractive but unnecessary features.
Match equipment to the stage of your workflow
| Use case | What matters most | Typical equipment priorities |
|---|---|---|
| Product R&D | Understanding behavior and comparing designs | Flexible control, multiple channels, raw-data export, adjustable fixtures and programmable sequences |
| Design verification | Showing that a defined design meets specified requirements | Clause-based procedures, controlled tolerances, repeatable setup and complete test records |
| Incoming inspection | Screening components or supplier batches | Fast changeover, simple recipes, operator guidance and clear pass/fail limits |
| End-of-line QC | High throughput and defect detection | Short cycle time, barcode/MES options, interlocks, automated judgment and maintainability |
| Third-party laboratory | Method coverage and defensible results | Traceable calibration, access control, uncertainty inputs, audit trail and adaptable fixtures |
Translate industry risks into test functions
Bicycles and frames
Frame, fork, handlebar, saddle, crank and wheel assemblies experience different combinations of cyclic force, impact and torque. Selection should begin with the bicycle type, component interface, maximum sample dimensions and the exact edition of the applicable method. Relevant starting points include Derui’s bicycle and frame testing equipment; final configuration still depends on the clause matrix and sample drawings.
E-scooters and personal light electric vehicles
Scooters combine structural risks at the stem, deck, folding mechanism and handlebars with braking, wheel and powered-function requirements. A laboratory may therefore need dynamic durability, fatigue, impact and performance systems rather than one universal bench. Product propulsion, maximum design speed, rider load and target market should be confirmed before standards or fixtures are selected.
Motorcycles and electric two-wheelers
Motorcycle programmes may include frames, wheels, suspension, braking systems, controls and complete-vehicle powertrain performance. Component fatigue equipment and a chassis dynamometer solve different questions. For an electric vehicle, the specification may also need voltage, current, CAN data, regenerative operation and safety interlocks.
Fitness equipment and other mechanical products
Treadmills, exercise bikes, locks, casters, motors and consumer components each bring their own duty cycles and failure modes. The reusable engineering elements are actuators, drives, load cells, torque sensors, displacement measurement, environmental conditioning and control software. Their ranges and boundary conditions must be adapted to the product.
Build the machine specification in six steps
Capacity should not be selected by copying the largest number in a brochure. The required working range, expected overloads, fixture mass and desired measurement quality must be considered together. An oversized sensor can survive the load yet provide poor usable resolution at the normal test point.
When is a standard machine enough?
A standard model is a good fit when the method, specimen interface and required range are stable and already covered by the machine. It normally reduces engineering time, delivery risk and validation effort. Confirm coverage clause by clause rather than accepting a general “compliant” statement.
A configurable or custom test machine becomes appropriate when products vary widely, multiple methods share a platform, unusual geometry changes the load path, production integration is required, or the test procedure is proprietary. Customization should remain controlled: define the common base system, changeable fixtures, approved recipes and acceptance tests before manufacture.
| Question for the supplier | Evidence to request |
|---|---|
| Which exact clauses can this configuration perform? | Clause-to-function compliance matrix |
| Will all sample variants fit without changing the load path? | Fixture drawing and sample-envelope review |
| Can the system measure accurately at our normal operating point? | Sensor ranges, stated performance and calibration plan |
| How will we accept the machine? | FAT protocol with representative samples and objective tolerances |
| What happens after installation? | Training, maintenance, calibration and technical-support scope |
What should you send with an equipment RFQ?
- Product name, intended use and target markets
- Applicable standard edition and clause list
- Dimensioned drawings, photos or CAD files
- Minimum and maximum sample dimensions and mass
- Test loads, speeds, strokes, frequencies, cycles and conditions
- Measurements, tolerances, sampling and data-export requirements
- Expected tests per shift and changeover frequency
- Safety, utilities, installation and training requirements
- Calibration documentation and factory-acceptance criteria
A detailed RFQ lets the supplier identify conflicts early—for example, a fixture that fits one model but blocks another, or a requested speed that changes the actuator choice. It also makes quotations comparable because each supplier is responding to the same measurable scope.
Frequently asked questions
Can one test system serve several product models?
Yes, when the base frame, actuator and sensors cover the complete operating envelope and changeable fixtures preserve the required boundary conditions. Each model still needs a verified setup or recipe.
Should I choose equipment by maximum force only?
No. Working range, control stability, sensor performance, fixture stiffness, alignment, speed and overload protection all affect whether the machine is fit for the test.
Can a custom machine claim compliance with a standard?
The equipment can be designed to perform specified methods, but conformity depends on the complete test process, current standard, specimen, procedure, calibration and acceptance criteria—not the machine name alone.
Turn your test method into a workable machine specification
Send Derui your product drawings, applicable clauses, sample range, test parameters and required report format. Our application engineers can review fixtures, controls, measurements and factory-acceptance requirements before quotation.
Reference note
Use the current licensed edition of every applicable standard and confirm market-specific requirements with a competent laboratory or conformity-assessment specialist. Equipment selection is only one part of a valid test process.

Derui chamber


