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Selection Tool

Machine Vision Lighting Selection Brief Builder

Use the brief builder to turn an inspection problem into a lighting RFQ request. Define the target feature, material behavior, field of view, working distance, camera, lens, speed, trigger, mechanical constraints, and sample images before selecting a light family.

LuxMV machine vision lighting brief builder staging
Optical selection and coaxial geometry brief setup visual.

Selection considerations

Selection follows the observable condition, the optical setup, and the production constraint.

Inspection Signal & Target Feature

Define what feature or defect needs contrast (e.g. scratch, edge, fiducial, OCR, or oil).

Technical considerations
  • Determine target part finish, reflectivity, transparency, and mechanical envelope.

Optical Geometry & Light Path

Select candidate geometry: backlight for silhouette, low-angle bar for scratches, coaxial for specular marks, or dome for glossy curves.

Technical considerations
  • Determine wavelength and filter combinations based on material color and sensor sensitivity.

Camera & Controller Constraints

Specify FOV, working distance (WD), lens focal length, exposure time, and line speed.

Technical considerations
  • Select controller mode: continuous, strobe, overdrive, or time-sharing pulse control.

RFQ Output & Next Steps

Generate a structured engineering brief containing optical requirements and fixture constraints.

Technical considerations
  • Submit brief details to LuxMV application engineers for sample testing or quotation.

Questions for the engineering discussion.

What information makes a machine vision lighting RFQ easier to evaluate?

The most useful RFQ information includes inspection target, material, surface behavior, target feature, field of view, working distance, camera, lens, speed, exposure, trigger mode, mechanical limits, sample images, failed images, drawings, and pass/fail criteria.

Does the lighting brief replace sample testing?

No. The brief helps define a first test path and the information useful for discussion. Final lighting geometry, wavelength, controller mode, mounting, and model selection can then be confirmed with real samples and production constraints.

Can this brief identify a final light model?

The brief identifies a practical first test path and relevant LuxMV light families. Final model selection is easier after discussing real part reflection, camera angle, exposure, mounting space, and sample variation.

What information is useful with the generated brief?

Send good and bad sample images, the current failed image if available, a part drawing, field of view and working distance, camera and lens information, line speed, trigger method, and any fixture or environmental constraints.

Interactive selection intake

Build a lighting RFQ brief

Answer the engineering questions that usually decide the first lighting test path. The result is a structured brief with suggested options, risk checks, and the project details LuxMV can use for quotation or sample testing.

0%RFQ readiness
Inspection goal

RFQ-ready brief

LuxMV machine vision lighting selection brief
Inspection goal: [add inspection goal]
Target feature or defect: [add target feature, defect, tolerance, or pass/fail condition]
Material / part: [add material, color, finish, coating]
Surface behavior: [add reflective, matte, transparent, curved, oily, textured, etc.]
Field of view: [add FOV]
Working distance: [add WD]
Camera: [add sensor, resolution, area-scan/line-scan if known]
Lens: [add focal length, aperture, telecentric/macro if known]
Motion / production state: [add static, indexed, conveyor, line-scan web, robot-held]
Speed / takt / exposure: [add line speed, parts/min, exposure, frame rate]
Trigger / controller mode: [add continuous, strobe, overdrive, PLC trigger, encoder, current mode]
Mechanical limits: [add mounting, light position, cable exit, heat, enclosure limits]
Environment: [add ambient light, dust, washdown, temperature, vibration, ESD if relevant]
Images and files available: [add good/bad images, failed image, drawing, line video, datasheets]
Recommended first test path: Ring, bar, coaxial, dome, and backlight screening set
Why this path: The current inputs are not yet specific enough to lock one light family. A comparison set reduces the risk of choosing by catalog category too early.
Alternative tests: Sample testing to narrow geometry before model selection; Controller support if exposure, speed, or repeatability is uncertain
Risk checks: Missing FOV, WD, surface, or speed details can change the recommended family. Final model selection still depends on real sample images and mounting constraints.
LuxMV families to discuss: Machine vision lighting, Sample testing service, Light controllers
Additional notes: [add current failure mode, reference model, or project constraint]

The brief is stored locally in your browser when you continue to the contact form. Do not include confidential files until a secure transfer method is agreed.

Selection matrix

How inputs change the first lighting path

Inspection signalLikely first test pathRisk to validate
Silhouette, edge, hole, contour, or dimensional checkBacklight or collimated backlightWorks well when there is access behind the part and the working distance can be checked.
Shallow scratch, dent, metal texture, or directional defectLow-angle bar or low-angle ringDefect direction and part curvature can require multi-angle tests.
Flat reflective mark, glass surface, circuit line, or planar featureCoaxial or narrow-angle coaxial lightingUneven or curved surfaces may still produce glare.
Glossy curved part, solder area, reflector, or mixed-angle surfaceDome, diffuse, or polarization comparisonDiffuse light can suppress useful defect shadow if the target is texture-based.
OCR, print, stain, glue, contamination, or color separationVisible wavelength plus filter comparisonLot-to-lot material variation can change color contrast.
Moving web, film, strip, fabric, or long scan widthLine-scan light and controller timing supportUniformity, heat, exposure, encoder timing, and duty cycle work well when checked together.