Machine Vision Lens Price and Buying Guide: Which Specifications Affect Lens Cost?
Machine vision lens prices can vary significantly even when two lenses appear similar at first glance. A buyer may find two C mount industrial camera lenses with the same focal length but very different prices because one supports a larger sensor, higher optical resolution, wider aperture, more demanding distortion control or a specialized wavelength range.
This is why comparing machine vision lens cost only by focal length can lead to the wrong buying decision.
An 8 mm lens is not automatically cheaper than a 50 mm lens. A 25 mm machine vision lens is not a single product category with one standard price. Even two 25 mm C mount lenses can belong to very different optical classes depending on whether they are designed for a 2/3 inch 5 MP camera, a 1 inch 10 MP camera or a larger high resolution 25 MP sensor.
For OEMs, machine builders, industrial camera buyers and system integrators, the more useful question is not simply “How much does a machine vision lens cost?” It is “Which specifications am I paying for, and does my application actually need them?”
Kyptec Automation® offers a broad Machine Vision Lens range covering different focal lengths, resolution classes, image formats and industrial imaging requirements. Comparing these specifications makes it easier to understand why machine vision lens prices differ and how to avoid paying either too little for an inadequate lens or too much for optical performance the camera cannot use.
Why Machine Vision Lens Prices Vary So Much
A machine vision lens is not priced only according to the amount of glass inside the housing.
Its cost reflects how difficult the optical requirement is to achieve.
A lens designed for moderate resolution on a relatively small sensor can be less demanding than one required to maintain high contrast across a large high resolution sensor.
As sensor size increases, the lens must form a larger useful image circle. As camera pixels become smaller, the lens must preserve finer spatial information. As aperture becomes wider, controlling aberrations becomes more difficult. As distortion requirements tighten, optical correction becomes more demanding.
Mechanical requirements also contribute. Industrial lenses need stable focusing, robust housings and adjustment mechanisms suitable for repetitive machine vision use.
This means machine vision lens pricing is best understood as the combined cost of optical performance, sensor coverage, mechanical design and application requirements.
Resolution Class Is One of the Biggest Price Drivers
One of the clearest factors affecting industrial camera lens cost is optical resolution.
A 5 MP machine vision lens and a 25 MP machine vision lens may share the same focal length, but the higher resolution lens is designed to preserve finer details for a denser image sensor.
That requires stronger optical performance.
A higher resolution optical system may require more demanding lens element design, tighter manufacturing tolerances and better correction across the image area.
This does not mean a 25 MP lens is automatically the better purchase.
If your industrial camera and inspection task only need moderate resolution, paying for substantially greater optical capability may not improve inspection results.
For example, Kyptec Automation® KL-1208 25 mm 5 MP Machine Vision Lens is intended for a 2/3 inch 5 MP class application, while Kyptec Automation® KL-1240 25 mm 25 MP Machine Vision Lens provides the same nominal 25 mm focal length but targets a substantially higher resolution and larger image format.
From a purchasing perspective, this is an important comparison. The focal length is identical, but the optical requirement is not.
Sensor Format Also Changes Lens Cost
A larger camera sensor requires a larger useful lens image circle.
A lens designed for a 2/3 inch sensor does not have the same coverage requirement as one designed for a 1 inch or larger sensor.
Maintaining image quality across a larger image area can increase optical complexity, particularly when the camera also has high resolution.
This is why a buyer should not compare the price of a 2/3 inch machine vision lens directly with a larger format lens without considering sensor coverage.
The larger format product is solving a different optical problem.
For example, Kyptec Automation® KL-1208 provides a 25 mm focal length for a 2/3 inch format, while Kyptec Automation® KL-1216 25 mm 10 MP Machine Vision Lens supports a larger 1 inch class sensor at the same nominal focal length.
The difference between these products is therefore not simply megapixels. Sensor coverage also changes.
Why Larger Image Circles Cost More to Produce
The centre of an optical image is generally easier to control than its extreme edges.
As the lens needs to cover a larger sensor, the optical design has to maintain useful illumination, sharpness and aberration control farther from the optical axis.
This becomes even more demanding when the larger sensor also contains many small pixels.
A low quality image circle that simply reaches the sensor corners is not enough for industrial inspection. The outer image regions may contain measurement edges, OCR text, barcodes or defects that are just as important as features in the centre.
The price of a larger format machine vision lens therefore reflects not only coverage but the need to provide useful imaging across that coverage.
Does Focal Length Affect Machine Vision Lens Price?
Yes, but not in a simple “longer means more expensive” relationship.
Focal length influences optical design, physical dimensions and the field of view the lens must provide, but it is only one part of the total specification.
Within one lens family, several focal lengths may have similar prices because they are designed around the same resolution class and sensor format.
Other focal lengths can cost more because achieving the required wide angle or long focal length performance is optically more difficult.
A very short focal length lens that covers a large sensor while controlling distortion can be particularly challenging.
This means an 8 mm machine vision lens can sometimes cost more than a 25 mm or 35 mm product within the same broad series.
Buyers should therefore avoid assuming that price should increase in direct proportion to focal length.
Why Wide Angle Machine Vision Lenses Can Be More Expensive
A short focal length lens provides a wide field of view.
Creating that wide view while maintaining image quality across a large sensor can require substantial optical correction.
Distortion becomes especially important.
A wide lens may naturally tend toward stronger geometric distortion, yet many machine vision applications need predictable image geometry.
Maintaining acceptable sharpness and illumination in the image corners can also become difficult.
This is why a high resolution wide angle industrial camera lens can be relatively expensive even though its focal length number is small.
For example, Kyptec Automation® KL-1234 8 mm 25 MP Machine Vision Lens combines a very short focal length with a high optical resolution class and larger image coverage. That combination places very different demands on the optical system from a basic 8 mm lens intended for a smaller lower resolution camera.
Aperture Range Can Affect Lens Price
The maximum aperture determines how much light the lens can transmit when opened.
A lens with a very wide maximum aperture can be valuable in applications where short exposure time is required.
High speed inspection is a common example.
If the product moves rapidly, exposure time must often be reduced to prevent motion blur. A wider aperture allows more light to reach the sensor during that short exposure.
However, creating a lens that performs well at a wide aperture is optically demanding.
Aberrations become harder to control when more of the lens diameter is being used.
This means aperture capability can influence machine vision lens cost, particularly when wide aperture performance must remain strong across a high resolution sensor.
Buyers should not pay for an extremely wide aperture automatically. If the machine has powerful controlled illumination and sufficient exposure time, a more moderate aperture may be entirely suitable.
Why F Number Should Be Considered Before Comparing Prices
Two lenses with the same focal length and megapixel rating may still have different aperture specifications.
That difference can affect whether they are suitable for the application.
A high speed conveyor may benefit from a wider aperture because it helps support shorter exposure.
A measurement station inspecting stationary components may have much more freedom to use illumination and exposure time.
Therefore, comparing price without comparing F number can be misleading.
The lower priced lens may actually be the better engineering choice when the system does not need extreme light gathering capability.
A good buying process identifies the required exposure and lighting conditions before deciding whether a wide maximum aperture is worth paying for.
Distortion Control Can Increase Machine Vision Lens Cost
Not every inspection cares equally about distortion.
For presence detection, some distortion may have little effect.
For barcode reading and OCR, moderate distortion can sometimes be handled by software.
For dimensional measurement, geometric distortion can directly affect accuracy.
A lens designed for better geometric fidelity can therefore be more valuable in measurement systems.
Correcting distortion across a wide field while maintaining resolution and sensor coverage increases optical design complexity.
This is one reason machine vision lenses intended for precise industrial imaging can cost more than ordinary imaging optics with similar focal length.
Buyers working on measurement applications should compare distortion requirements rather than simply choosing the cheapest lens that produces a sharp picture.
Edge to Edge Resolution Has a Cost
A lens can appear extremely sharp in the centre while being much weaker near the corners.
For many consumer imaging applications, this may be acceptable.
Industrial machine vision often uses the entire sensor.
A defect can appear near the edge. A component measurement can cross the frame. A barcode may not always arrive in the centre.
The lens therefore needs useful performance across the complete inspection region.
Maintaining high optical resolution over the full sensor is more difficult than producing good centre sharpness alone.
High resolution larger format machine vision lenses often cost more partly because this broader image quality requirement is more demanding.
When comparing lens price, engineers should ask whether the application uses the full image or only a small central region.
Specialized Wavelength Lenses Cost More for a Reason
A conventional visible light machine vision lens is not necessarily suitable for infrared or other specialized imaging wavelengths.
Specialized lenses may require different optical materials, coatings and design considerations.
This can increase cost.
Kyptec Automation® separates its conventional machine vision products from its SWIR Camera Lens range, which is useful because a buyer working with short wave infrared imaging should not compare SWIR lens cost directly with ordinary visible light C mount lens pricing.
The products solve different optical problems.
If your application uses only standard visible illumination, paying for specialized wavelength performance is unnecessary.
If the application genuinely requires SWIR imaging, a conventional lower priced lens may not work correctly even if the focal length and mount appear compatible.
Line Scan Lenses Can Also Fall into a Different Price Class
Area scan and line scan imaging place different demands on the optical system.
A line scan camera captures the image one line at a time while the object or camera moves.
High resolution line scan systems can use very wide sensors and require strong optical performance across the complete line.
This can make line scan camera lenses a different purchasing category from standard area scan lenses.
Kyptec Automation® lists dedicated line scan optics within its wider machine vision offering.
If your camera is an area scan camera, there is normally no reason to pay for a specialized line scan optical design unless the application specifically requires it.
The camera architecture should therefore be identified before comparing industrial lens prices.
Mechanical Build Quality Also Affects What You Pay
Industrial camera lenses operate in machines, not only on optical benches.
Focus and aperture adjustments need to remain stable.
The housing must hold optical elements in alignment.
Mechanical tolerances influence whether different lenses of the same model behave consistently.
A cheaper lens may appear attractive during initial testing but become expensive if the focus drifts, the housing is difficult to lock or replacement units do not reproduce the same setup.
For OEM production, mechanical repeatability has real commercial value.
The lowest component price is therefore not always the lowest system cost.
Why OEM Buyers Should Think About Repeatability, Not Only Unit Price
A system integrator purchasing one lens can spend time manually optimizing that individual camera.
An OEM producing hundreds of machines has a different requirement.
Every replacement lens should behave predictably.
Mounting dimensions should remain consistent.
Focus and iris adjustments should be manageable.
Datasheets should clearly identify optical specifications.
Product availability should also be considered because redesigning a machine around another lens later can cost far more than the original price difference.
Kyptec Automation® supports bulk and OEM requirements through its OEM Orders page, which can be relevant when machine builders need repeatable procurement rather than single unit purchasing.
Lens Price Should Be Compared Against the Cost of a Failed Inspection
The purchase price of a lens can be small compared with the financial impact of unreliable inspection.
Imagine a lower priced optical system that occasionally misses a defect because the feature is not resolved clearly enough.
The resulting cost can include rejected customer shipments, rework, additional manual inspection or production downtime.
The reverse is also true.
Buying a very expensive high resolution lens for a simple presence detection task can waste capital without creating measurable inspection improvement.
The goal is not to minimize lens price.
It is to minimize the cost of achieving the required inspection reliability.
The Cheapest Compatible Lens Is Not Always the Best Value
Compatibility only means the lens can work with the camera in principle.
Value depends on whether it meets the application reliably.
Suppose two lenses both use C mount and both cover the camera sensor.
One provides enough resolution for the inspection while the other is near the limit.
The slightly more expensive option may provide greater optical margin and reduce commissioning difficulty.
But if both perform identically for the actual inspection, the higher priced one may offer no meaningful advantage.
This is why practical sample testing is valuable when the cost difference between lens options is significant.
The Most Expensive Lens Is Not Automatically the Best Choice
High specification optics can be technically impressive but still unnecessary.
A 25 MP lens cannot create additional inspection value when connected to a low resolution camera that already provides sufficient image quality.
A very large image format lens offers no special advantage if the sensor is much smaller and another compatible lens provides the required performance.
A wide aperture may be unnecessary when the inspection object is stationary and powerful lighting is available.
A specialized wavelength lens is wasted on ordinary visible imaging.
A good machine vision buying decision therefore removes specifications the application does not need.
Worked Buying Example: 5 MP vs 10 MP vs 25 MP at 25 mm
Consider three systems that all require approximately 25 mm focal length.
The first uses a moderate resolution 2/3 inch camera for basic component verification.
A product such as Kyptec Automation® KL-1208 can be considered because it provides 25 mm focal length, 5 MP optical resolution and 2/3 inch coverage.
The second system uses a higher resolution 1 inch camera for more detailed industrial imaging.
Kyptec Automation® KL-1216 provides the same nominal 25 mm focal length but a 10 MP optical class and larger 1 inch image format.
The third system uses a larger high resolution sensor for detailed defect inspection.
Kyptec Automation® KL-1240 provides 25 mm focal length with a substantially higher 25 MP resolution class and larger format coverage.
These lenses cannot be compared only by asking which 25 mm model is cheapest.
Each product is designed around a different level of camera and optical requirement.
The correct purchase is the least expensive configuration that fully satisfies the real sensor and inspection requirement with suitable margin.
Worked Buying Example: When a Higher Lens Price Can Reduce Total System Cost
Suppose a machine builder needs to detect fine printing defects over a relatively large field.
One approach uses a moderate resolution camera and lens but requires two cameras because one view cannot provide enough pixel density.
Another approach uses a higher resolution camera and suitable high resolution lens that covers the complete inspection in one view.
The individual high resolution lens may cost more.
However, the complete system may avoid the cost of a second camera, second cable, second light, second mounting bracket, additional image acquisition bandwidth and extra integration time.
Lens cost should therefore be considered at system level.
A more expensive optical component can sometimes reduce the total bill of materials when it enables a simpler inspection architecture.
Worked Buying Example: When a Cheaper Lens Is the Better Decision
Now consider a packaging line that only confirms whether a cap is present and correctly positioned.
The inspected feature is large.
The field of view is moderate.
The camera has sufficient pixels.
The line already uses strong controlled illumination.
In this situation, purchasing a high resolution larger format 25 MP lens simply because it represents a higher specification may add cost without improving the inspection result.
A suitable moderate resolution lens can be the better engineering and commercial choice.
Machine vision value comes from specification matching, not specification maximization.
Does Country of Manufacture Decide Machine Vision Lens Quality or Price?
Country of manufacture alone is not a reliable way to determine whether an industrial camera lens is suitable.
The relevant questions are optical specifications, consistency, mechanical design, datasheet transparency, availability and application support.
A buyer should compare products according to measurable requirements rather than assuming a particular origin guarantees performance.
Kyptec Automation® is useful to buyers seeking industrial machine vision optics because the product pages identify focal length, resolution class, image format, lens mount and aperture information, allowing a technically informed comparison instead of relying only on price.
Why Datasheet Availability Has Commercial Value
A lens with clear technical information can reduce engineering time.
Without reliable specifications, an engineer may need more trial and error before determining whether a product suits the camera.
For OEMs, this becomes even more important because the lens has to be documented in the machine design.
Focal length, sensor format, mount, aperture and resolution should be known before purchase.
Datasheet availability does not directly improve image quality, but it can lower integration risk.
Engineering time is part of the true cost of a machine vision component.
Why Availability and Replacement Cost Matter
A machine vision lens may remain installed for years.
If that model later becomes unavailable, replacing it with another product can require new focus settings, calibration or even mechanical redesign.
OEM buyers should therefore consider supply continuity and replacement availability when comparing prices.
The lowest price today can become expensive if the component is difficult to source when a production machine needs service.
A standardized lens family with multiple focal lengths and resolution classes can simplify long term procurement.
This is another reason selecting from a coherent industrial range can be valuable.
Bulk Orders Can Change the Effective Buying Cost
OEMs and system integrators rarely evaluate price exactly like a single unit buyer.
Volume requirements, repeat orders, logistics and support can change the effective procurement cost.
A product that appears slightly more expensive as a single unit may become more competitive when purchased in volume.
Conversely, a low online price may not be attractive if availability is inconsistent for production quantities.
Machine builders planning repeat requirements can use the Kyptec Automation® OEM Orders page to discuss bulk industrial requirements rather than evaluating the project entirely from single unit pricing.
How to Compare Machine Vision Lens Prices Correctly
Start by grouping only technically comparable products.
The focal length should suit the same field of view requirement.
The sensor format should cover the same camera.
The optical resolution should be sufficient for the same pixel density and inspection feature.
The mount should be compatible.
The aperture capability should satisfy the same exposure requirement.
Only after these requirements are aligned does price become a meaningful comparison.
Comparing a 5 MP 2/3 inch lens with a 25 MP larger format lens solely because both are 25 mm is not a like for like price comparison.
What Should You Pay Extra For?
Pay more when the specification solves a real application requirement.
Higher optical resolution is worth paying for when the camera and inspection actually need finer image detail.
Larger sensor coverage is worth paying for when the industrial camera has a larger sensor.
A wider useful aperture is valuable when exposure needs to be short and available light is limited.
Better distortion performance is valuable when the system performs dimensional measurement.
Specialized wavelength performance is necessary when the imaging system works outside the normal visible range.
Mechanical repeatability is valuable in OEM equipment.
The principle is simple: pay for engineering value, not specification prestige.
What Should You Avoid Paying Extra For?
Avoid buying optical capability that the system cannot use.
Do not pay for 25 MP resolution simply because a 25 MP lens sounds more advanced if the camera and application are comfortably served by a moderate resolution system.
Do not buy a much larger sensor format solely as a precaution when the camera format is fixed and unlikely to change.
Do not pay for specialized SWIR optics for a visible light application.
Do not choose an unusually wide aperture when illumination and exposure are already well controlled.
Every unused specification increases cost without necessarily increasing inspection reliability.
Frequently Asked Questions About Machine Vision Lens Price and Buying Cost
1. Why are two machine vision lenses with the same focal length priced differently?
Focal length is only one specification. Two 25 mm lenses can differ in sensor format, optical resolution, aperture range, distortion performance and mechanical design. For example, Kyptec Automation® offers 25 mm products across 5 MP, 10 MP and 25 MP classes for different sensor formats. Compare the complete specification before deciding that two lenses should cost the same.
2. Is a higher priced machine vision lens always sharper?
No. Price can reflect several factors besides resolution, including sensor coverage, specialized coatings, focal length complexity or wavelength range. A higher priced lens may also be designed for a larger sensor than your camera uses. The correct test is whether the lens provides sufficient optical detail for your camera and application.
3. Why do high megapixel machine vision lenses usually cost more?
Higher resolution optics need to preserve finer spatial detail for small camera pixels. Achieving this performance across the required sensor area generally demands tighter optical design and manufacturing control. A 25 MP lens is therefore solving a more demanding imaging requirement than a basic moderate resolution lens.
4. Is it worth buying a 25 MP lens for future camera upgrades?
It can be, but only when the future camera is reasonably expected to use a compatible sensor format and higher pixel density. If the future camera uses a larger sensor, the existing lens may still become unsuitable despite its high resolution rating. Future proofing should consider image format, focal length and resolution together.
5. Why can an 8 mm industrial camera lens cost more than a 25 mm lens?
A short focal length wide angle design can be optically difficult, especially when it must cover a large high resolution sensor while controlling distortion and edge performance. Price does not increase simply with the focal length number. The complete optical complexity determines the cost.
6. Does C mount make machine vision lenses cheaper?
C mount is a widely used standardized mechanical interface, but mount type alone does not determine price. Two C mount lenses can have very different resolution, sensor coverage and optical performance. A C mount 25 MP larger format lens can cost substantially more than a C mount 5 MP lens for a smaller sensor.
7. Should I buy the lowest priced lens that covers my camera sensor?
Sensor coverage is only one requirement. The lens must also provide the correct focal length, enough optical resolution, suitable aperture performance and acceptable image quality for the inspection. The lowest priced compatible lens is a good purchase only when it meets all of those needs with adequate margin.
8. Why are specialized SWIR machine vision lenses more expensive than standard lenses?
SWIR imaging uses a different spectral range and can require specialized optical materials, coatings and design. These requirements differ from conventional visible light imaging. If your application needs SWIR, compare products within the SWIR category rather than directly against standard visible machine vision lens pricing. Kyptec Automation® provides a dedicated SWIR Camera Lens range for these applications.
9. Is a larger sensor format lens worth the extra cost on a small camera sensor?
Sometimes, but not automatically. A larger format lens can comfortably cover the smaller sensor and may provide upgrade flexibility, but if a smaller compatible lens already provides the required resolution and field of view, the larger format product may not improve the inspection enough to justify its extra cost.
10. How much of my machine vision system budget should go toward the lens?
There is no universal percentage. The correct budget depends on how demanding the optical task is relative to the camera, lighting, computing and mechanical system. A simple presence inspection may need modest optics, while fine defect detection or precision measurement can justify a larger share of the system budget for the lens.
11. Is it cheaper to use one expensive high resolution lens or two lower resolution cameras?
Either configuration can be cheaper depending on the application. One higher resolution camera and lens can reduce hardware count, cabling and integration, but only if it still provides enough pixels and suitable perspective across the whole inspection. Multiple cameras can be more practical when different regions need different views. Compare total system cost rather than lens price alone.
12. Does buying machine vision lenses in bulk reduce cost for OEMs?
Volume purchasing can change the commercial terms and overall procurement economics. OEMs should also consider supply continuity, repeatability and logistics rather than single unit price alone. Kyptec Automation® provides a dedicated OEM Orders page for machine builders and bulk industrial requirements.
13. Why do machine vision lens prices differ even within the same megapixel series?
Resolution class does not make every lens optically identical. Focal length, aperture design, sensor coverage and wide angle complexity can still differ. A short focal length larger format lens may be more difficult to design than a moderate focal length lens within the same megapixel family.
14. Should I include the cost of filters and accessories when comparing machine vision lenses?
Yes. If the application requires a polarizer, spectral filter, protective window, adapter or special mounting hardware, include those items in the total optical cost. A lower priced lens that needs several additional components can become more expensive than another solution that integrates more easily.
15. What information should I send when asking for the price of a machine vision lens?
Provide the camera model, sensor format, resolution, required field of view, working distance, likely focal length, smallest inspection feature, lens mount and any special requirements such as low distortion, high speed imaging or non visible wavelengths. This allows Kyptec Automation® to narrow the Machine Vision Lens range to technically relevant products rather than quoting lenses that do not suit the application.
A Better Machine Vision Lens Buying Process
The strongest purchase decision begins by setting a technical minimum specification.
Determine the camera sensor format.
Determine the camera pixel resolution and smallest feature that must be inspected.
Calculate the field of view and focal length requirement.
Decide how much aperture is needed from the available illumination and production speed.
Identify whether the application is sensitive to geometric distortion.
Confirm whether ordinary visible light optics are sufficient or whether a specialized wavelength lens is required.
Only after these parameters are fixed should products be compared by price.
This approach prevents a cheap lens from becoming expensive through failed inspection performance.
It also prevents a highly specified lens from consuming budget without adding measurable value.
How Kyptec Automation® Fits into a Cost Conscious Buying Strategy
Kyptec Automation® offers multiple machine vision lens classes rather than forcing all camera systems toward one optical specification.
For moderate 2/3 inch imaging, products such as Kyptec Automation® KL-1208 provide a 5 MP class option.
For higher resolution cameras, Kyptec Automation® KL-1216 provides 10 MP performance with 1 inch sensor coverage at 25 mm focal length.
For demanding larger format imaging, Kyptec Automation® KL-1240 provides 25 MP class optics at the same 25 mm focal length.
Other focal lengths are available within these broader families, giving engineers room to match optical geometry without automatically moving into the most expensive specification.
This is particularly useful for OEMs because the machine can be designed around the level of optical performance each product variant actually requires.
Buyers can review the current Kyptec Automation® Machine Vision Lens collection for available configurations, while larger production requirements can be discussed through the OEM Orders page.
Final Answer: Which Specifications Affect Machine Vision Lens Price Most?
Machine vision lens price is mainly influenced by the difficulty of the optical and mechanical requirement.
Higher resolution generally increases cost because the lens must preserve finer detail.
Larger sensor formats can increase cost because the lens must maintain useful imaging across a larger image circle.
Wide angle designs can cost more because controlling distortion and corner performance becomes difficult.
A wide maximum aperture can increase optical complexity.
Low distortion and strong edge to edge performance can add cost for measurement and high accuracy applications.
Specialized wavelengths such as SWIR require different optical designs and materials.
Industrial mechanical stability, repeatability and production consistency also contribute to real component value.
Focal length affects cost, but focal length alone does not determine price.
For a buyer, the correct objective is therefore not to find the cheapest machine vision lens or the highest specification lens.
The objective is to find the lowest total cost lens that fully meets the camera and inspection requirement with adequate reliability margin.
A simple industrial camera may be perfectly served by a 5 MP 2/3 inch lens.
A higher resolution camera may justify 10 MP optics.
A demanding high resolution larger sensor may require a 25 MP machine vision lens.
A visible light application does not need SWIR optics.
A straightforward presence inspection does not necessarily need measurement grade optical performance.
Specification matching is what creates value.
Kyptec Automation® makes this comparison practical by offering machine vision lenses across several focal lengths, image formats and resolution classes, giving engineers, OEMs and system integrators the ability to choose the optical performance appropriate for the actual application rather than paying for unnecessary specification.
Before buying, determine what the camera needs, what the inspection needs and what the machine environment needs.
Then compare price.
That order leads to a much stronger machine vision lens purchase than choosing by cost first and solving the optical problems later.

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