Friday, 22 July 2022

WHAT’S THE DIFFERENCE BETWEEN VISIBLE AND SWIR LENSES?

 Short-wave Infrared (SWIR) lenses are designed to operate in the 0.9-1.7 µm wavelength region. SWIR is close to visible light in that photons are reflected or absorbed by an object, providing the strong contrast needed for high-resolution imaging. SWIR is great for the Machine Vision and the Health & Sciences Industries because water vapor, fog, and certain materials such as silicon are transparent. SWIR imaging is also helpful because similar-looking colors visible to the human eye are easily differentiated using SWIR lenses.

HOW DOES IT WORK?

SWIR lenses are like visible cameras in the way they detect reflected light. Photons in the SWIR wavelength are reflected or absorbed by objects, allowing for high-resolution imaging with a strong contrast. This kind of technology is the only wavelength technology that can pierce through cloud coverage and capture a well-defined image.

For our ViSWIR series, according to Mr. Katsuya Hirano, Chief Optical Designer, CBC Group, for fully-corrected focus shift in visible and SWIR range (400nm-1,700nm): “By using ultra-low dispersion glass and low partial dispersion glass paired with superior design technology developed from Computar’s extensive optics experience, the focus shift is minimized within a few micron mm at a super wide range of wavelengths. With this, spectral imaging is achievable with a single sensor camera by simply syncing the lighting.”

With Computar's ViSWIR HYPER-APO lens series, it is unnecessary to adjust focus for differences. By adopting an APO floating design*, the focus shift is reduced at any wavelength and any working distance. This function makes SWIR lenses ideal for multiple applications, including machine vision, UAV, and remote sensing.

WHICH LENS IS THE BEST FOR MY INDUSTRY?

For the Machine Vision Industry as well as the Life Sciences Industry, we recommend our ViSWIR Series. These lenses achieve a clear and precise image visible to the SWIR range by applying a multilayer coating to absorb the specific light. A higher-resolution lens gives you greater specificity in designing and implementing the most efficient vision solutions. So, for medical devices and robotics, this is great for detail work and other short-range imaging.

For the Intelligent Transport Systems Industry and Government and Defense, a blend of visible and SWIR would be most helpful—visible imaging for distance and SWIR for detailed imaging.

Some lenses, such as ours, are designed to perform well with for both visible and SWIR, enabling cost-effective and performance imaging systems for a range of applications.

 TO KNOW MORE ABOUT HIGH RESOLUTION CAMERA DEALER IN INDIA CONTACT MENZEL VISION AND ROBOTICS PVT LTD OR CONTACT US AT (+ 91) 22 67993158 OR EMAIL US AT INFO@MVRPL.COM

Thursday, 23 June 2022

HOW DEEP LEARNING AUTOMATES PACKAGING SOLUTION INSPECTIONS

Increasingly, packaging products require their own custom inspection systems to perfect quality, eliminate false rejects, improve throughput, and eliminate the risk of a recall. Some of the foundational machine vision applications along a packaging line include verifying that a label on a package is present, correct, straight, and readable. Other simple packaging inspections involve presence, position, quality (no flags, tears, or bubbles), and readability (barcode and date/lot codes present and scannable) on a label.


But packaging like bottles, cans, cases, and boxes—present in many industries, including food and beverage, consumer products, and logistics—can’t always be accurately inspected by traditional machine vision. For applications which present variable, unpredictable defects on confusing surfaces such as those that are highly patterned or suffer from specular glare, manufacturers have typically relied on the flexibility and judgment-based decision-making of human inspectors. Yet human inspectors have some very large tradeoffs for the modern consumer packaged goods industry: they aren’t necessarily scalable.

For applications which resist automation yet demand high quality and throughput, deep learning technology is a flexible tool that application engineers can have confidence in as their packaging needs grow and change. Deep learning technology can handle all different types of packaging surfaces, including paper, glass, plastics, and ceramics, as well as their labels. Be it a specific defect on a printed label or the cutting zone for a piece of packaging, Cognex Deep Learning can identify all of these regions of interest simply by learning the varying appearance of the targeted zone. Using an array of tools, Cognex Deep Learning can then locate and count complex objects or features, detect anomalies, and classify said objects or even entire scenes. And last but not least, it can recognize and verify alphanumeric characters using a pre-trained font library.

Here, we are going to explore how Cognex Deep Learning does all of the above for packagers and manufacturers.

PACKAGING DEFECT DETECTION

Machine vision is invaluable to packaging inspections on bottles and cans. In fact, in most factories, it is machine vision which not only inspects the placement of labels and wrapping but also places and aligns them during manufacturing.

Labeling defects are well-handled by traditional machine vision, which can capably detect wrinkles, rips, tears, warpage, bubbles, and printing errors. High-contrast imaging and surface extraction technology can capture defects, even when they occur on curved surfaces and under poor lighting conditions. Yet the metal surface of a typical aluminum can might confuse traditional machine vision with its glare as well as the unpredictable, variable nature of its defects, not all of which need to be rejected. Add to those challenging surface inspections countless forms and types of defects—for example, long scratches and shallow dents—and it quickly becomes untenable to explicitly search for all types of potential defects.

Using a novel deep learning-based approach, it’s possible to precisely and repetitively inspect all sorts of challenging metal packaging surfaces. With Cognex Deep Learning, rather than explicitly program an inspection, the deep learning algorithm trains itself on a set of known “good” samples to create its reference models. Once this training phase is complete, the inspection is ready to start. Cognex Deep Learning can identify and report all defective areas on the can’s surface which deviate outside the range of a normal acceptable appearance.

PACKAGING OPTICAL CHARACTER RECOGNITION

Hiding somewhere on almost all consumable packages, regardless of material or type, lies a date/lot code. Having these codes printed cleanly and readable is important not only for end-users and consumers doing their shopping but also for manufacturers during the verification stage. A misprinted, smeared, or deformed date/lot code printed onto a label on a bottle or package of cookies, for example, causes problems for both.

Typically, traditional machine vision could easily recognize and/or verify that codes are readable and correct before they leave the facility, but certain challenging surfaces make this too difficult. In these cases, a smeared or slanted code printed on specular material like a metal soda case could be read with some effort by a human inspector but not with much reliability by a machine vision inspection system. In these cases, packagers need an inspection system that can judge readability by human standards but, critically, with the speed and robustness of a computerized system. Enter, deep learning.

Cognex's deep learning OCR tool is able to detect and read the plain text in date/lot codes, verifying that their chains of numbers and letters are correct even when they are badly deformed, skewed, or—in the case of metal surfaces—poorly etched. The tool minimizes training because it leverages a pre-trained font library. This means that Cognex Deep Learning can read most alphanumeric text out-of-the-box, without programming. Training is limited to specific application requirements to recognize surface details or retrain on missed characters. All of these advantages help ease and speed implementation and contribute to successful OCR and OCV application results without the involvement of a vision expert.

PACKAGING ASSEMBLY VERIFICATION

Visually dependent assembly verification can be challenging for multi-pack goods which may have purposeful variation, as in the case of holiday-themed or seasonal offerings. These packs showcase different items and configurations in the same case or box.

For these sorts of inspections, manufacturers need highly flexible inspection systems which can locate and verify that individual items are present and correct, arranged in the proper configuration, and match their external packaging. To do this, the inspection system needs to be able to locate and segment several regions of interest within a single image, possibly in multiple configurations that can be inspected line-by-line to account for variations in packaging.

To locate individual items by their unique and varying identifiable characteristics, a deep learning-based system is ideal because it generalize each item’s distinguishable characteristics based on size, shape, color, and surface features. The Cognex Deep Learning software can be trained quickly to build an entire database of items. Then, the inspection can proceed by region, whether by quadrant or line-by-line, to verify that the package has been assembled correctly.

PACKAGING CLASSIFICATION

Kitting inspections require multiple capabilities of its automated inspection system. Consumer product multi-packs need to be inspected for the right number and type of inclusions before being shipped. Counting and identification are well-loved strengths of traditional machine vision. But to ensure that the right items are included in a multi-part unit requires classifying included products by category—for example, does a sunblock multi-pack contain two types of sunblock, or does it contain an extra sunblock lip balm?

This categorization is important yet remains out of reach for traditional machine vision. Luckily, Cognex's deep learning classification tool can easily be combined with traditional location and counting machine vision tools, or with deep learning-based location and counting tools if the kitting inspection deals with variable product types and requires artificial intelligence to distinguish the generalizing features of these types.

Deep learning-based classification works by separating different classes based on a collection of labelled images and identifies products based on these packaging discrepancies. If any of the classes are trained as containing anomalies, then the system can learn to classify them as acceptable or unacceptable.

New deep learning-enabled vision systems differ from traditional machine vision because they are essentially self-learning and trained on labeled sample images without explicit application development. These systems can also be trained on new images for new inspections at any time, which makes it a valuable long-term asset for growing businesses.

Deep learning-based software is also quick to deploy and uses human-like intelligence which is able to appreciate nuances like deviation and variation and outperform even the best quality inspectors at making reliably correct judgments. Most importantly, however, is that it is able to solve more complex, previously un-programmable automation challenges.

Manufacturers in the packaging industry are increasingly demanding faster, more powerful machine vision systems, and for good reason: they are expected to make a great number of products at a higher quality threshold and for less cost. Cognex is meeting customers’ rigorous requirements head-on by offering automated inspection systems that marry the power of machine vision with deep learning in order to manufacture packaging more cost effectively and robustly.

TO KNOW MORE ABOUT MACHINE VISION DEALER INDIA FOR PACKAGING SOLUTIONS CONTACT MENZEL VISION AND ROBOTICS PVT LTD OR CONTACT US AT (+ 91) 22 67993158 OR EMAIL US AT INFO@MVRPL.COM

Wednesday, 1 June 2022

3D VISION SOLUTIONS FOR FOOD AND BEVERAGE APPLICATIONS

 In the food and beverage industry, packaging quality verification protects a brand’s image and prevents product spoilage, but the system requires precision. The following three vignettes highlight food and beverage inspection challenges and how they are solved with the right machine vision solution.

CAN INSPECTION

Inspecting aluminum cans for missing or damaged features must be done quickly to prevent bottlenecks. A small dent in a can or a tab lifted by just two degrees can result in a failure. Defects this small are difficult or impossible to identify with 2D imaging systems. However, moving to a 3D solution may disrupt production and require retraining workers. Every second counts in high-speed applications, where a few seconds may represent hundreds or thousands of products.


To achieve higher levels of detection without disrupting production or implementing long training programs, Cognex developed the In-Sight 3D-L4000 vision system. This high-performance smart camera delivers the best-quality patented laser imaging. It can detect:


  • Blobs or volumes.
  • Edges.
  • Surface angles.
  • Step heights, etc.

With both 2D capabilities and true 3D vision, the In-Sight 3D-L4000 can simultaneously run both a 2D and 3D inspection of the part. The In-Sight 3D-L4000 is available in three models to meet specific requirements for a range of applications, such as can, packaging, and product inspection.


FINAL PRODUCT INSPECTION

Food comes in many shapes and sizes. Identifying different candies, verifying frostings and decorations are correct and determining whether a finished product will fit inside its packaging are all complex tasks for automated imaging systems. To keep up with industry, 3D solutions and easy-to-use software work together to make the food and beverage industry even sweeter.

Brand image is important. If a customer sees a missing cookie, broken cereal bars, or cupcake frosting smashed into the lid of a container, they may not purchase the product, and instead associate the brand with poor quality. To verify a product’s quality, 3D vision solutions are needed. Tasks include:


  • Detecting defects.
  • Identifying parts – e.g., cookie versus frosting.
  • Verifying heights.
  • Ensuring proper volume.
  • Checking flatness.
  • Verifying presence and absence of components.

High-quality optics and smart cameras are needed to accurately detect features and to determine volumes. The In-Sight 3D-L4000 provides the performance needed to guarantee product quality. However, the biggest challenges may not be solved with the camera alone. The next application demonstrates the need for software interfaces that are easy to set up, operate and maintain.

CEREAL BAR INSPECTION

For a cereal bar application, the key to success is finding software that works easily and effectively without extended training or third-party technicians. Intuitive In-Sight software allows in-house technicians to quickly set up tools. Then the software handles the rest — determining every pixel above and below the set plane with linear measurements and highlighting features in a simple interface to communicate results clearly to every user.

Many production line workers are already familiar with In-Sight’s spreadsheet programming paradigm, while new operators can learn the system in minutes. In one example, 50 new users were trained on the 3D In-Sight program in less than three hours. Additionally, the In-Sight 3D-L4000 high-performance smart camera detects products that have been rotated or tilted. Its high-quality 2K resolution, with up to 4 kHz scan rate and patented speckle-free blue laser optics, provide a range of machine vision solutions with fast, accurate, and repeatable results.


The In-Sight 3D-L4000’s unique blue-laser optical design has several benefits including:

  • 2M eye safe operation.
  • More light delivered to the surface than competing solutions.
  • Accurate 3D point clouds for measurements.
  • Capability to capture a scan even with a percentage of the laser is blocked by debris.

This last feature is an unprecedented achievement in 3D laser scanning, made possible by the patented speckle-free laser optics. Most laser scanning applications limit the designer’s option to mount the scanner upside down because of concerns about debris blocking the laser light.

A HEALTHIER TECHNOLOGY

When it comes to the food and beverage industry, inspection can be the difference between success or millions in lost revenue. Having less product in a container than advertised can damage a brand’s image, and too much product may cause packaging errors downstream. Challenges increase as food production lines become faster, more automated, and more dynamic.

Even a simple packaging or product line may require advanced solutions for inspecting various volumes, surfaces, and features. With easy-to-use spreadsheets for effective communication, the In-Sight 3D-L4000 delivers accurate data for inspection and keeps the food and beverage lines moving.


TO KNOW MORE ABOUT MACHINE VISION SYSTEM PRODUCT DEALER IN MUMBAI INDIA CONTACT MENZEL VISION AND ROBOTICS PVT LTD CONTACT US AT (+ 91) 22 67993158 OR EMAIL US AT INFO@MVRPL.COM

Monday, 23 May 2022

FIVE EDGE INSPECTION TECHNIQUES IN MACHINE VISION TECHNOLOGY

Finding an edge is one of the most critical functions in machine vision systems, whose algorithms comb through the pixels in a digital image in search of lines, arcs and geometric shapes. Software translates this data into edges, which tell machine vision software which areas to focus on and which ones to ignore.

Thus, edge-inspection tools bear a substantial responsibility for the accuracy and efficiency of machine vision systems. The fundamentals of edge inspection tools illustrate some of the core functions of machine vision.

HOW EDGE DETECTION WORKS IN A FACTORY SETTING

Here’s a common edge-inspection scenario based on Cognex’s machine vision software:
A completed piston assembly must be inserted into a V-8 engine block. A machine vision application takes a photograph of the piston assembly and uses machine vision algorithms to identify its edges. Another picture finds the edges within the engine to block that reveal the piston assembly’s installation location.

Edge-inspection tools are configured to direct the machine vision system to focus its attention on specific areas of the piston assembly and engine block while filtering out everything else. This is crucial because computer processors must scan every pixel within an image, which requires processing time and energy. The system runs best if it scans only the required pixels.

In our example, a machine vision system uses edge inspection data to set up a quality-control application that scans images of the piston assembly and engine block for evidence of defects. Once they pass inspection, they proceed down the assembly line to a robot arm that uses edge-inspection data to tell the robot exactly where to place the piston within the engine block.

Operations like this play out in almost infinite variety, given the widespread prevalence of machine vision technology in distribution centers and factory automation.


5 TOOLS FOR ACQUIRING ACCURATE EDGE INSPECTION DATA

Here’s a common edge-inspection scenario based on Cognex’s machine vision software:
A machine vision system sets up a series of parameters to determine if an item being scanned should progress through the production environment or be rerouted to an area for addressing defects. Every item photographed or scanned gets a pass or fail rating.

Edge inspections can be configured to establish tolerances. Any object falling outside these tolerances can be rejected, while everything within the tolerances passes.

To visualize how edge inspections work, imagine a modern-day factory creating reproductions of old-fashioned wagon wheels, which have three principal parts: the outer rim, the spokes and the hub. Edge inspection parameters are critical to using industrial robots to automate the manufacturing process.

These five edge inspection techniques come into play:

  • Distance. In a wagon wheel, the distance between spokes, rims and hubs must fall within tight tolerances. Edge inspection tools measure the distance between these components in a scanned image, enabling both quality control and alignment for robotic production.
  • Angle. Each spoke of the wagon wheel has to be installed at an exact angle. An angle edge inspection tool gives the robot accurate guidance on spoke alignment.
  • Circle diameter. Manufacturing or distribution flaws might deliver the wrong rims or hubs to the robot. A circle diameter edge inspection measures the distance from the center to the edge, creating data for flagging production errors.
  • Circle concentricity. The wagon wheel’s rim and hub share the same center, which makes them concentric. A circle concentricity edge inspection helps the robot align the rims and hubs.
  • Radius. The radius of each rim and hub provides more data to ensure that the robotic automation gets them into precise alignment.

Manufactured components as simple as a wagon wheel or as complex as a smartphone circuit board all benefit from these kinds of edge inspection applications.


CHOOSING THE RIGHT EDGE INSPECTION TECHNOLOGY

At Cognex, we’ve been perfecting the art and science of machine vision for decades. Our InspectEdge tool is one of the core assets in our machine vision software suite, which was designed to make it easy for anybody to set up a vision application, even if they don’t have advanced certifications or college degrees.

Other tools in our software suite accomplish essential tasks like bead inspection, pattern matching, identification and image processing. Whether you’re running a distribution center or automating a factory environment, these tools will give you an edge in quality control and efficiency.

TO KNOW MORE ABOUT MACHINE VISION SYSTEM PRODUCT DEALER IN MUMBAI INDIA CONTACT MENZEL VISION AND ROBOTICS PVT LTD CONTACT US AT (+ 91) 22 67993158 OR EMAIL US AT INFO@MVRPL.COM


Thursday, 19 May 2022

HOW TO SELECT THE CORRECT MACHINE VISION LENS FOR YOUR APPLICATION

 When setting up your automated vision system, the lens may be one of the last components you choose. However, once your system is up and running, your data flows from the lens first. That makes your lens choice one of the most impactful decisions that affect how well your vision system works for you.

Resolution is a priority. A higher resolution lens gives you greater specificity in designing and implementing the most efficient vision solutions.

Don't let the lens be the weak link in your Machine Vision (MV) system. Choosing a great lens tailored to your system's needs can be daunting. To select the ideal lens, one should consider several factors. So, what is the best way to choose the right lens for a machine vision application?

Selecting a Machine Vision Lens Checklist

1. What is the distance between the object to be inspected and the camera, i.e., the Working Distance (WD)? Does the distance affect the focus and focal length of the lens?

2. What is the size of the object? Object size determines the Field of View (FOV).

3 . What resolution is needed? The image sensor, as well as the pixel size, are determined here.

4. Is camera motion or special fixturing required?

5. What are the lighting conditions? Can the lighting be controlled, or is the object luminous or in a bright environment?

6. Is the object or camera moving or stationary? If it is moving, how fast? Motion between the object and camera has shutter speed implications, affecting the light entering the lens and the f-Number.

These variables and more make selecting the proper lens a challenge, but an excellent place to start is with three significant features: type of focusing, iris, and focal length.

Choosing a great lens tailored to your system's needs can be daunting, but we are here to help. Talk to a lens specialist at Computar today and find out how we can assist in selecting the correct lens for you.

TO KNOW MORE ABOUT MACHINE VISION SYSTEM PRODUCT DEALER IN MUMBAI INDIA CONTACT MENZEL VISION AND ROBOTICS PVT LTD CONTACT US AT (+ 91) 22 67993158 OR EMAIL US AT INFO@MVRPL.COM

Monday, 25 April 2022

HOW A VISION SYSTEM WORKS


The architecture of a vision system is strongly related to the application it is meant to solve. Some systems are “stand-alone” machines designed to solve specific problems (e.g. measurement/identification), while others are integrated into a more complex framework that can include e.g. mechanical actuators, sensors etc. Nevertheless, all vision systems operate are characterized by these fundamental operations:


Image acquisition. The first and most important task of a vision system is to acquire an image, usually by means of light-sensitive sensor. This image can be a traditional 2-D image, or a 3-D points set, or an image sequence. A number of parameters can be configured in this phase, such as image triggering, camera exposure time, lens aperture, lighting geometry, and so on.

Feature extraction. In this phase, specific characteristics can be extrapolated from the image: lines, edges, angles, regions of interest (ROIs), as well as more complex features, such as motion tracking, shapes and textures. Detection/segmentation. at this point of the process, the system must decide which information previously collected will be passed on up the chain for further elaboration.

High-level processing. The input at this point usually consists of a narrow set of data. The purpose of this last step can be to:


  • Classify objects or object’s feature in a particular class
  • Verify that the input has the specifications required by the model or class
  • Measure/estimate/calculate specifics parameters as position or dimensions of object or object’s features

TO KNOW MORE ABOUT MACHINE VISION SYSTEM PRODUCT DEALER IN MUMBAI INDIA CONTACT MENZEL VISION AND ROBOTICS PVT LTD CONTACT US AT (+ 91) 22 67993158 OR EMAIL US AT INFO@MVRPL.COM

Tuesday, 1 September 2020

ROCK AND ROLL! MACHINE VISION CAMERAS FOR VR IN LIVE CONCERTS

 AUGUST, 2020  ARTICLE

Machine Vision Cameras Dealer India - Menzel Vision and Robotics | Rock and roll! Machine vision cameras for VR in live concerts


Not long ago, virtual reality was little more than the stuff of science fiction books and movies. Today, virtual reality is not only making inroads in actual high-end science and technology, but also in ways that affect the life of everyday people from interactive gaming and data-driven sports broadcasting, to video conferencing, education & training, and live music & concerts.

Many music and concert lovers may have had the experience of been shoved around in the audience or had a very limited view of their favorite artists as they struggle to get the best possible view of the stage from the audience. Some people prefer to avoid the front crowds and prefer to sit back in the lawn area or back bench seats where the rowdy crowd behavior is minimal. But choosing this option means there is a risk of missing out on the details of the artists performance or the expressions conveyed to listeners within the proximity of eye contact with the performer. Such moments add to the live feel and reality of a concert experience.

In addition, since the quasi-collapse of the music industry where revenues for physical music tumbled drastically between 2001 and 2018, the industry has turned to live music as its main source of income. With several hundreds of live concerts taking place globally each year, it is impossible for fans to be physically present at all times.

Another challenge for live concerts is that they place a natural limit on the number of people who can attend them. This again, has made it harder for music fans to see their favorite artists. To meet these challenges, virtual reality has stepped in and is now playing a key role in bringing live concert experiences from the front rows to the living rooms of fans and audiences worldwide.

Virtual reality concerts are a win-win situation for the music industry and the music fans. In addition to those who pay to actually be present at a concert, the music industry can monetize everyone who couldn't obtain tickets, or who didn’t always feel like going out to see their favorite musicians perform. Virtual reality lets the music industry combine the best of both worlds: the apparent spontaneity and singularity of live music with the reproducibility and accessibility of recorded music.

Camera technology plays a key role in enabling virtual reality in live concerts. This is because the concerts are captured live from various angles using high-end cameras. The live images are then processed in almost real time to enable remotely-located audiences to choose and view the concert from positions of their choice (e.g., viewed from the front rows, viewed from different acompanists such as percussionsts, guitarists or piansts, different views of the crowds, etc.) all while delivering an immersive experience that goes far beyond that provided by a traditional concert DVD.

From a display perspective, like in sports imaging, the horizontal pixel resolution plays an important role in the quality of virtual reality. This resolution can either be actual or interpolated from a higher or lower raw image format.

4K horizontal resolution for VR has been around for quite some time. 4K, also known as Ultra HD, has a pixel resolution of 4,096 x 2,160 pixels. When compressing video streams from 4K to HD-streamable video the images are clearer, sharpner and cleaner. Shooting at such a high resolution gives editors and image processing engineers an opportunity to zoom far into images and reframe without losing information.

Using an 8K horizontal resolution, also known as Full Ultra HD, allows the user to zoom in twice as much and still get a 4K image. However, achieving real 8K horizontal resolution for virtual reality applications is difficult even if the cameras support 8K horizontal resolutions. This is because most virtual reality installations prefer each camera to have an ultra-wide field of view to give viewers a panoramic or hemispherical view while reducing the equipment handling complexities during live concerts.

The only way to achieve such ultra-wide fields of view is by using fish-eye lenses. Combining a fish-eye lens with a camera using a rectangular sensor is only possible by having an image circle that is smaller than the sensor. Today, sensors with 8K horizontal resolution are able to achieve 5324 pixels in real horizontal resolution when paired with a fish-eye lens of 4.3 mm focal length. This helps to achieve an angle of view of 250° with 21 pixels per degree, which is a good number of pixels for high quality image processing and enhancement. Interpolation can then be used to achieve an 8K horizontal screen resolution.

Obviously, the higher the camera resolution, the closer one can get to achieving real 8K horizontal resolution. But it is important to remember that these are live action events. Higher VR resolution is only useful if a camera speed of at least 30 FPS can be maintained. This limits the choice of cameras that can be used for VR applications.

One final requirement for cameras used in virtual reality applications is reliable data transmission at low noise levels over long distances. Concert venues are typically quite large, and cameras may need to be placed at locations far away from the crowds. CXP and optical interfaces (e.g., SFP+) are reliable and well-known interfaces to handle both the dist