Machine Vision Lens for Automotive Fuse, Relay and Electrical Component Assembly Inspection: How to Check Presence, Orientation, Terminal Position and Seating

Automotive fuse, relay and electrical component assembly inspection is a common machine vision requirement in automotive electronics, fuse-box assembly, power-distribution modules, relay panels and electrical subassemblies. These stations may contain many small components positioned close together, with each component requiring verification for presence, orientation, terminal location and proper seating before the assembly proceeds to testing or final installation. Selecting the correct machine vision lens for automotive electrical component inspection is therefore important because the optical system may need to capture a complete multi-position assembly while still providing enough native spatial resolution to distinguish a slightly raised relay, rotated fuse, displaced terminal or incorrectly seated component.

Buyers searching for machine vision lens for fuse inspection, relay inspection camera lens, automotive electrical component assembly inspection, fuse box vision inspection, relay presence detection camera, component orientation inspection machine vision, terminal position inspection lens, or electrical assembly verification camera are usually balancing two competing optical requirements. A wider field allows many component locations to be inspected from one camera, but every individual fuse or relay occupies fewer pixels. Tighter framing provides more detail on terminal position and seating but reduces the number of assembly locations visible simultaneously. The Machine Vision Lens should therefore be selected around the smallest component feature or seating difference that must reliably trigger rejection.

The Kyptec Automation® Machine Vision Lens collection currently includes conventional 5 MP, 10 MP and 25 MP Machine Vision Lens families across multiple focal lengths and industrial camera formats. The collection includes 8 mm, 12 mm, 16 mm, 25 mm, 35 mm and 50 mm conventional Machine Vision Lens options, providing useful flexibility for complete fuse-box inspection, medium-field electrical assembly inspection and localized high-detail terminal or seating checks. Kyptec Automation® also lists automotive, electronics, machine vision systems, factory automation and special-purpose machinery among major application areas for current Machine Vision Lens models.

Start With the Smallest Assembly Error That Must Be Detected

A completely missing relay creates a large image difference and is comparatively easy to detect. A relay that is present but sitting slightly above the expected seating position can be much more demanding. Likewise, identifying whether a fuse exists is easier than determining whether it has been rotated, shifted or incompletely inserted.

The Machine Vision Lens should therefore be selected according to the smallest assembly condition that separates an acceptable product from a reject. If a terminal-position deviation of 0.5 mm must be detected, that physical difference should receive enough original sensor pixels at the final FOV. If the most demanding requirement is seating height or small orientation error, the optical system should be designed around that condition rather than simple presence detection.

Component Presence Is the First Inspection Layer, Not the Final One

Presence inspection determines whether an expected fuse, relay or electrical component occupies a defined assembly position.

In a structured fuse box or relay panel, each component location can be represented by an inspection region. The vision system can then determine whether the expected visible geometry exists within that region.

However, a component can be present while still being incorrect. It may be rotated, laterally displaced or incompletely seated.

A machine vision lens for fuse box inspection should therefore provide enough detail for the more difficult orientation and seating checks if the same camera is expected to perform all assembly-verification tasks.

Use Assembly References Instead of Fixed Camera Coordinates

An electrical module can move slightly inside a fixture while all components remain correctly assembled.

If individual fuse or relay positions are checked only against fixed image coordinates, normal module movement can create false positional errors.

A stronger approach locates stable reference geometry on the module or housing and establishes an assembly-centered coordinate system. Individual component positions can then be measured relative to that reference.

The Machine Vision Lens should include enough of the surrounding housing geometry to establish this coordinate system reliably.

Calculate Pixels per Millimetre From the Complete Assembly FOV

A useful starting relationship is:

Pixels per millimetre = sensor pixels across the measurement direction ÷ physical field of view in millimetres

If 4,000 horizontal pixels cover a 200 mm fuse-box field, simplified sampling is approximately 20 pixels/mm. A 0.5 mm component-position difference corresponds to approximately 10 pixels before practical optical, calibration and edge-localization effects are considered.

If the same camera covers 400 mm, sampling falls to approximately 10 pixels/mm and that 0.5 mm variation corresponds to approximately five pixels.

This is why unnecessary surrounding machine area should not be included when small electrical assembly errors must be detected.

Fuse Orientation Can Be Determined From Directional Housing Features

Many fuse or electrical component designs contain visible geometry that provides an orientation reference.

The system can detect the component outline, notch, asymmetric body feature or other repeatable directional geometry and compare its orientation with the expected assembly direction.

A machine vision lens for component orientation detection should provide enough complete component geometry to establish direction reliably.

A tightly cropped or poorly resolved component may still be detectable as present while its orientation remains ambiguous.

Orientation and Position Should Be Evaluated Independently

A fuse can be correctly centered in its cavity but rotated incorrectly.

A relay can have the correct orientation while being shifted laterally from its intended position.

These are different assembly errors and should therefore be measured separately.

Position should be calculated relative to the module coordinate system, while orientation should be calculated from the directional geometry of the individual component.

The Machine Vision Lens must preserve enough information for both calculations if the same station performs both checks.

Multi-Position Fuse Boxes Create a Field-of-View Challenge

Automotive fuse boxes and relay panels can contain many component positions distributed over a comparatively large physical area.

Capturing the complete module in one image improves inspection efficiency, but every individual fuse and relay then occupies a smaller fraction of the sensor.

The optical design should therefore calculate not only pixels per millimetre across the entire fuse box but also how many pixels represent the smallest component, terminal feature and minimum seating error.

A 16 MM 10 MP Lens Can Support Broader Electrical Assembly Coverage

For compatible 2/3" camera systems, the Kyptec Automation® KL-1226 16 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens can be evaluated where a broader portion of a fuse box, relay panel or electrical module must remain visible. Kyptec Automation® lists automotive, electronics, factory automation and special-purpose machinery among major application areas for its current Machine Vision Lens family.

This focal-length class can be useful when several assembly positions need to remain visible simultaneously, provided the smallest relay, fuse or terminal feature still receives enough native image sampling.

A 25 MM 10 MP Lens Can Provide More Controlled Assembly Framing

Where fewer component positions need to remain visible, the Kyptec Automation® KL-1228 25 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens provides 25 mm focal length, 10 MP resolution, C-mount, 2/3" image format and an F2.8–16 aperture range. Its official product information lists automotive and electronics among the major application areas.

A tighter legitimate FOV can allocate more sensor pixels to each fuse or relay, improving the optical basis for orientation, terminal-position and seating inspection.

Relay Body Position Should Be Measured Relative to the Socket or Module

A relay may be present but shifted from the intended cavity position.

The system can identify the relay body and compare its center or outer edges with the expected position defined by the module coordinate system.

This is more reliable than simply asking whether a dark or rectangular object appears inside the general region.

The Machine Vision Lens should show sufficient housing context to distinguish true relay displacement from movement of the complete assembly.

Terminal Position Should Not Be Confused With Connector Pin Inspection

Individual connector-pin inspection focuses on pin pitch, missing pins or bent-pin geometry. Fuse, relay and electrical-component assembly inspection is different: the objective is to verify how the component and its visible terminal references relate to the component housing or assembly location.

Where terminals remain visible after assembly, their position can help verify component orientation and seating.

The Machine Vision Lens should provide enough resolution for the relevant terminal-to-body relationship without turning the inspection into a separate microscopic pin-quality task.

Terminal Position Can Confirm Component Orientation

Some electrical components contain terminals arranged asymmetrically.

If those terminals or related visible features remain available to the camera, their relative positions can provide additional orientation evidence.

The system can compare terminal geometry with the expected component orientation rather than relying only on the outer housing.

This can improve robustness when the outer body itself is nearly symmetric.

Terminal-to-Housing Distance Can Reveal Assembly Shift

Where a visible terminal should appear at a known distance from the component housing, that relationship can be measured.

A component shifted laterally or incorrectly inserted may change the visible terminal position even when the overall component still occupies approximately the correct region.

The Machine Vision Lens should provide sufficient pixels on both the terminal reference and component body for this relative measurement.

Seating Inspection Requires a Visible Geometric Cue

Proper seating is more difficult than simple component presence because a partially inserted component may still occupy the expected cavity.

A useful inspection therefore needs a visible geometric difference between fully seated and incompletely seated conditions.

Depending on the assembly view, this may be a change in exposed body height, visible edge position, gap to a housing reference or another repeatable two-dimensional cue.

The Machine Vision Lens should be selected so that the minimum unacceptable seating difference produces a measurable image change.

Seating Depth Should Be Defined Physically

Terms such as “slightly raised relay” or “not fully inserted fuse” are not adequate optical specifications.

The OEM should define the minimum exposed-height, gap or visible edge-position change that must cause rejection.

Once that value is expressed physically, the required pixels per millimetre can be calculated.

This provides a much stronger Machine Vision Lens specification than selecting optics only from camera megapixels.

A Top View and an Angled View Solve Different Seating Problems

A direct top view is often excellent for presence, X-Y position and orientation because the component body is clearly visible relative to the module.

However, small vertical seating differences may produce limited two-dimensional change from a perfectly perpendicular view.

Where seating is critical, a controlled angled camera geometry can sometimes create a stronger visible displacement or gap cue.

The Machine Vision Lens should therefore be chosen together with the inspection view rather than independently of camera geometry.

High Resolution Helps When Many Small Components Must Remain Visible

If a complete fuse box contains many small components, reducing FOV may conflict with the requirement to inspect the entire assembly in one image.

Higher total camera and optical resolution can then provide more pixels per component while retaining the required module coverage.

For compatible larger-format camera systems, the Kyptec Automation® KL-1238 16 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens provides a higher-resolution 16 mm focal-length option. Its official page identifies model KL-1238, 25 MP resolution, C-mount and an F2.8–16 aperture range, with automotive and electronics among the listed major applications.

This type of configuration can be evaluated where broader module coverage must coexist with comparatively small component or terminal features.

More Megapixels Matter Only When They Increase Pixels per Component

A 25 MP system does not automatically improve electrical assembly inspection if the physical FOV is expanded proportionally.

The important question is how many original sensor samples are allocated to each fuse, relay, terminal and seating feature.

The stronger design approach is to establish the minimum legitimate assembly FOV first and then use higher total resolution to increase native sampling on the actual components.

Small Fuses Can Create the Hardest Optical Requirement

A relay may occupy hundreds of pixels in a complete module image, while a small fuse can occupy far fewer.

If both must be inspected by the same camera, the smallest component should be evaluated separately.

The optical configuration should not be qualified only using large relays because that can overestimate the resolution available for smaller electrical parts.

Repeated Component Locations Need Consistent Image Quality

A fuse box may contain dozens of cavities spread from the center to the outer part of the image.

If orientation or seating inspection is required at every location, the Machine Vision Lens should maintain useful detail across the complete field.

Final qualification should therefore test borderline components at central and outer assembly positions rather than inspecting only one conveniently centered location.

Different Component Types May Need Different Acceptance Logic

A fuse, relay and electrical module can have different shapes, sizes and orientation references.

The Machine Vision Lens can provide one common optical image, but the inspection should apply component-specific geometric acceptance criteria.

A small fuse may be evaluated from body orientation and cavity position, while a relay may require body position, seating and terminal-reference checks.

Missing Component Detection Should Use Expected Cavity Geometry

An empty cavity can often be distinguished from an occupied one by comparing its visible geometry with the expected assembled condition.

However, the system should locate the complete module first so that each expected cavity region follows actual module position.

This avoids false missing-component decisions when the entire assembly shifts slightly on the fixture.

Wrong-Component Detection Requires Visible Geometric Difference

Machine vision can sometimes identify that the wrong physical component type has been inserted when the two variants have measurably different visible dimensions or geometry.

This should not be assumed when components are externally identical.

From the Machine Vision Lens perspective, the important question is whether the distinguishing visible feature is physically large enough and sufficiently represented by native image pixels.

Component Rotation Can Affect Seating Interpretation

A component inserted at an incorrect orientation may also appear raised because its body does not enter the cavity properly.

The inspection should therefore evaluate orientation before or alongside seating.

This helps distinguish a purely vertical insertion problem from an incorrect rotational assembly condition.

A 35 MM 10 MP Lens Can Support Additional Stand-Off

Automotive assembly stations can include fixtures, robotic tooling and protective structures that limit camera placement.

For compatible 2/3" systems, the Kyptec Automation® KL-1230 35 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens provides 35 mm focal length, 10 MP resolution, C-mount and an F2.8–16 aperture range. Automotive and electronics are among its listed application areas.

This focal-length class can be evaluated when the mechanical layout requires more camera stand-off while the resulting FOV still covers the required fuse-box or relay-panel region.

A 50 MM 25 MP Lens Can Support Localized High-Detail Seating Inspection

Some machines may use a dedicated inspection station for one critical relay, fuse bank or electrical component region.

For compatible larger-format systems, the Kyptec Automation® KL-1244 50 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens provides 50 mm focal length, 25 MP resolution, C-mount and an F2.8–22 aperture range. Its official page lists automotive, electronics, factory automation and special-purpose machines among the major applications.

This type of configuration can be evaluated where a localized component region should occupy more of the sensor and sufficient working distance is available.

Tight Framing Must Retain the Reference Geometry Needed for Seating

A close view gives more pixels per millimetre but can remove surrounding module geometry needed to interpret whether a component is correctly seated.

For example, a relay body may look sharp in a tightly cropped image, but without the socket or nearby housing edge the system may have no stable seating reference.

The FOV should therefore retain the minimum surrounding geometry required by the inspection measurement.

Product Height Variation Can Affect Focus Across the Assembly

A fuse-box assembly can contain components of different heights.

If the camera is mounted at an angle or the parts occupy significantly different object planes, one component type can be sharply focused while another moves toward the edge of the usable depth of field.

The Machine Vision Lens aperture and focus should therefore be validated using the actual assembly height range.

Depth of Field Should Cover Valid Assembly Height Without Hiding Seating Errors

Increasing depth of field can help keep multiple component heights sharp, but seating inspection itself may depend on observing small height-related geometric differences.

The objective is not to blur all height variation into one acceptable image. The optical system should keep all legitimate regions sharp enough for measurement while preserving the visible positional cue created by an incorrectly seated component.

Multiple Fuse Boxes in One Image Reduce Per-Component Resolution

A production station may attempt to inspect more than one electrical module simultaneously.

This increases throughput but also expands the required FOV.

Each individual fuse, relay or terminal then occupies fewer sensor pixels.

The smallest component should therefore be recalculated against the complete multi-module field before deciding whether one camera can satisfy the inspection tolerance.

Digital Zoom Cannot Improve Fuse or Relay Inspection Resolution

Software enlargement can make a small fuse appear larger on the monitor, but it cannot create optical detail that was not captured.

If a terminal-position difference or seating gap occupies only a few original sensor pixels, digital zoom simply enlarges those pixels.

Reliable component inspection must therefore come from correct FOV, sensor resolution, working distance and Machine Vision Lens selection.

Calibration Cannot Recover an Under-Resolved Terminal or Seating Gap

Calibration can convert pixels into physical units and establish component coordinates, but it cannot recreate missing spatial information.

If the minimum seating difference is represented ambiguously, applying a calibration scale does not make that difference reliable.

The Machine Vision Lens should first provide adequate native detail before quantitative assembly measurements are performed.

Final Qualification Should Use Borderline Assembly Errors

A completely missing relay or obviously upside-down fuse is useful during early development but does not prove production capability.

Final qualification should include slightly displaced components, orientation errors close to the permitted angular limit, terminals near positional limits and partially seated parts near the minimum rejectable condition.

These samples should also be tested across the different component locations within the module so the complete usable image field is validated.

Why Kyptec Automation® Is a Practical Choice for Automotive Fuse, Relay and Electrical Component Assembly Inspection

Kyptec Automation® provides a broad Machine Vision Lens portfolio covering conventional 5 MP, 10 MP and 25 MP lens families across multiple focal lengths and sensor formats. The current collection contains 31 products overall and includes conventional Machine Vision Lens options from wide 8 mm focal lengths through 50 mm, giving automotive OEMs and special-purpose machine builders flexibility to match complete-module coverage, component size, working distance and minimum inspection tolerance.

For compatible 2/3" camera systems, Kyptec Automation® KL-1226 16 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens can support broader fuse-box or relay-panel views, while Kyptec Automation® KL-1228 25 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens provides more controlled framing when additional sensor area should be devoted to individual electrical components. Kyptec Automation® officially lists automotive and electronics among the major applications for the 25 mm 10 MP model.

For compatible high-resolution larger-format systems, Kyptec Automation® KL-1238 16 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens can support broader high-resolution module imaging, while Kyptec Automation® KL-1244 50 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens provides a longer-focal-length option for localized high-detail component inspection. Kyptec Automation® KL-1230 35 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens adds another practical focal-length choice where machine layout requires increased stand-off.

This range makes Kyptec Automation® useful for OEMs and system integrators that need to select a Machine Vision Lens according to actual fuse-box dimensions, component size, seating tolerance, terminal-position requirement, camera format and available mechanical working distance.

Frequently Asked Questions About Machine Vision Lenses for Automotive Fuse, Relay and Electrical Component Assembly Inspection

1. What is the best Machine Vision Lens for automotive fuse-box inspection?

The correct Machine Vision Lens depends on the physical dimensions of the fuse box, number of component positions, smallest fuse or relay, minimum seating error, terminal-position tolerance, camera sensor format and available working distance. A complete module may require a wider FOV, while individual component inspection can use tighter framing. Kyptec Automation® provides multiple 10 MP and 25 MP focal-length options so the lens can be selected according to real assembly geometry rather than focal length alone.

2. Can machine vision detect a missing fuse or relay?

Yes. When the fuse box or relay panel is located relative to stable housing references, the system can define expected component regions and verify whether the required visible component geometry is present. Missing-component inspection is normally less demanding than orientation or seating inspection, so if several checks are performed together the lens should be chosen according to the smallest geometric requirement.

3. Can machine vision detect an incorrectly oriented fuse?

Yes, when the fuse or its visible housing contains an asymmetric feature that reveals orientation. The system can calculate the component direction relative to the module coordinate system and compare it with the permitted orientation. The Machine Vision Lens must provide enough complete component geometry for that directional feature to be resolved reliably.

4. Can machine vision inspect relay orientation?

Yes. Relay body edges, asymmetric housing features or visible terminal references can be used to determine angular orientation. A relay can be present in the correct cavity but rotated incorrectly, so orientation should be evaluated independently from simple presence.

5. Can machine vision detect a relay that is not fully seated?

Yes, provided incomplete seating creates a repeatable visible geometric change such as exposed body height, gap, edge displacement or altered relationship with the socket. The smallest unacceptable seating difference should be defined physically and translated into pixels before selecting the Machine Vision Lens.

6. Is a 16 mm Machine Vision Lens suitable for fuse-box assembly inspection?

It can be when the resulting FOV covers the required module area from the available working distance. Kyptec Automation® offers both 10 MP and 25 MP 16 mm Machine Vision Lens options for compatible camera formats, including Kyptec Automation® KL-1238 16 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens. The verified product page lists automotive and electronics among its application areas.

7. When should a 25 mm Machine Vision Lens be considered for relay or fuse inspection?

A 25 mm focal length can be useful when the assembly region can be framed more tightly and additional pixels per component are desirable. Kyptec Automation® KL-1228 25 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens provides 25 mm focal length, 10 MP resolution, C-mount and 2/3" format for compatible systems.

8. Can machine vision check terminal position on assembled electrical components?

Yes, where the relevant terminal remains visible after assembly. The system can measure terminal location relative to the component body, socket or module reference. This can help identify displacement or incorrect orientation, provided the Machine Vision Lens supplies adequate native resolution on both the terminal and its reference geometry.

9. Can one camera inspect component presence, orientation and seating together?

Yes, when all required component regions fit inside the image and the smallest seating or terminal-position difference still receives enough optical sampling. Presence is normally the easiest task, so the Machine Vision Lens should be selected according to the more demanding orientation, terminal or seating requirement.

10. Can one camera inspect an entire fuse box with many components?

Yes, provided the complete FOV still allocates enough sensor pixels to the smallest component. A module containing many small fuses can require high total image resolution because the overall assembly is comparatively large while individual inspection features remain small. Pixels per component should be calculated before selecting the lens-camera combination.

11. When should a 25 MP Machine Vision Lens be considered for electrical assembly inspection?

A 25 MP configuration can be valuable where a large fuse box or relay panel must remain visible while small fuses, terminals or seating gaps still require substantial image sampling. Kyptec Automation® KL-1238 16 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens provides a wider high-resolution option for compatible larger-format systems.

12. Can a 35 mm Machine Vision Lens be used when the camera must be mounted farther from the electrical assembly?

It can when the sensor size and working distance produce the required physical FOV. Kyptec Automation® KL-1230 35 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens provides 35 mm focal length, 10 MP resolution, C-mount and 2/3" format for compatible camera systems.

13. Can a 50 mm Machine Vision Lens be used for detailed relay seating inspection?

Yes, where a localized component region needs tighter framing and adequate working distance is available. Kyptec Automation® KL-1244 50 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens provides 50 mm focal length, 25 MP resolution, C-mount and an F2.8–22 aperture range for compatible larger-format systems.

14. Why can a relay look present but still fail automated seating inspection?

Presence and seating are different conditions. A relay may occupy the correct cavity while its upper body remains slightly raised because insertion is incomplete. Reliable seating inspection therefore needs a visible positional reference and enough pixels to measure the minimum unacceptable gap or edge displacement.

15. Does component height variation affect focus in fuse-box inspection?

It can. Fuses, relays and other electrical components may sit at different heights above the module surface. The Machine Vision Lens aperture and focus should therefore provide enough usable depth for all critical features while maintaining sufficient sharpness for small terminal and seating measurements.

16. Can different fuse-box models use the same Machine Vision Lens?

They can if every module fits within the required FOV and the smallest component in every variant still receives enough native sensor pixels for its tightest inspection tolerance. The largest fuse box may determine physical coverage, while a smaller module containing tiny components may determine resolution. Each product family should therefore be evaluated independently.

17. What information should I provide before buying a Machine Vision Lens for fuse, relay or electrical assembly inspection?

Provide the maximum assembly width and height, smallest fuse or relay dimensions, number of components visible in one image, minimum positional error to detect, allowed orientation variation, terminal-position tolerance, minimum unacceptable seating gap, camera sensor format and resolution, expected assembly-position variation and available working distance. These parameters allow a Kyptec Automation® Machine Vision Lens to be evaluated according to actual FOV, pixels per millimetre and the smallest assembly condition rather than camera megapixels alone.

Design Electrical Component Assembly Inspection Around the Smallest Seating or Position Error, Not Only Component Presence

Reliable automotive fuse, relay and electrical component assembly inspection requires separating several fundamentally different conditions. Presence confirms that a component exists, orientation determines its directional alignment, terminal-position inspection checks local component geometry, and seating inspection determines whether the component has reached the intended assembly position. A fuse or relay can therefore appear present while still being incorrectly rotated, displaced or incompletely seated.

The strongest optical design begins with complete module dimensions, smallest component size, minimum terminal-position deviation, allowable orientation error, smallest unacceptable seating gap and available working distance. The minimum legitimate FOV is then established, pixels per millimetre are calculated, and focal length, sensor format and optical resolution are selected so the components use the available sensor efficiently. Final qualification should include borderline orientation errors, slightly displaced terminals, partially seated components and realistic module-position variation across the complete inspection field.

Kyptec Automation® provides a comprehensive Machine Vision Lens portfolio with conventional 5 MP, 10 MP and 25 MP lens families across multiple focal lengths and camera formats. Verified examples relevant to different electrical-assembly geometries include Kyptec Automation® KL-1226 16 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens for broader compatible inspection fields, Kyptec Automation® KL-1228 25 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens for more controlled framing, Kyptec Automation® KL-1238 16 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens for compatible high-resolution module inspection, Kyptec Automation® KL-1230 35 MM Machine Vision Lens With 10 MegaPixel & 2/3" Format Lens where greater stand-off may be useful, and Kyptec Automation® KL-1244 50 MM Machine Vision Lens With 25 MegaPixel & 1.1" Format Lens for localized high-detail inspection.

By matching the appropriate Kyptec Automation® Machine Vision Lens to fuse-box size, component dimensions, orientation tolerance, terminal-position requirement, seating criterion, camera format and machine working distance, automotive OEMs and system integrators can establish a stronger optical foundation for automated fuse presence verification, relay orientation inspection, terminal-position checking and electrical component seating inspection.