tft lcd eye strain in stock

I understand. I was hoping, that someone else with a similar sensitivity as me, could perhaps suggest a technology that is very similar to the aforementioned CCFL-backlit screen. A technology that is easy on sensitive eyes. Like my AMOLED screen on my Samsung Galaxy S2 phone or S2 Tab. It is also relatively mild on the eyes, for me at least.

Not to sound rude but, I am getting a bit tired of people who think that I need a: flicker-free, IPS, high resolution, or whatever monitor and that the problem will magically go away. I tried so many different monitors, and somehow, the only one that my eyes can fully handle is the TFT LCD (as I wrote in my original message).

I have never seen a regular PC monitor that looks like the one on the pictures that I posted. Dark green, glossy, visible "pixels". So I am starting to wonder what was so special about those monitors back then. And which current technology could be a good replacement. (eye sensitivity wise)

Whether you are working, reading, or mindlessly scrolling social media, screens are our constant companion these days. If you"ve noticed your eyes are feeling more tired, dry, and irritated than ever, that"s because of our new best friend the screen as well. In order to keep our eyes hydrated, our body is internally wired to blink roughly every 13 seconds, releasing the oil that makes up our tear film with every blink. But when we are looking at screens, our blink rates plummet by as much as 66%, meaning less tear film released onto the surface of the eyes, and thus drier eyes. As expected, studies show that people working and reading on screens report significant discomfort. In a 2018 study of 100 medical school students, screen time caused 58.8% of participants to experience eye strain and fatigue, 23.3% reported headaches, and 13% reported blurry vision. In this same study, 75% of the medical students involved stated they would reduce their screen time as a measure to prevent dry eye.

Which screen is the best for your eyes? Studies show that smaller screens with lower brightness settings, like e-readers or smartphones are the best for visual comfort and ocular surface health!

But reducing screen time may not be that easy. Since the onset of the COVID19 pandemic, average screen time use in the United States has skyrocketed, with reports indicating that the average American adult (age 18+) is spending over 13 hours per day looking at screens. That"s up from roughly 10 hours per day reported in 2019 and 8.4 hours per day in 2018. Knowing that cutting screen time when we"re being asked to work from home, attend school from home, and entertain ourselves from home is extremely difficult, can we potentially reduce our symptoms of dry eye by at least choosing the least irritating device to look at?

Study author Cristian Talens-Estarelles, MSc writes thatthe improved dry eye results with e-readers and smartphones are most likely "attributed to a lower gaze angle and the enhanced optical properties of the e-reader," noting that "the e-reader reflects rather than emits light from behind the screen, similar to how a printed paper behaves."

Smaller screen size.While it may be tempting if your eyes are bothering you to request a larger or even second monitor for work, thinking that a bigger viewing area will make things easier, the science actually shows making monitors larger or using multiple screen monitors is much more uncomfortable for the eyes. In a survey of more than 10,000 adults, only 53% of Americans working on a single screen experienced digital eye strain symptoms, compared to 75% of Americans who used multiple screens. Larger or multiple screen monitors require our eyes to be open wider and slow blink rate down as our brain focuses on peripheral vision to scan between multiple displays.

Lower angle of gaze.Research shows that viewing screens with a downward gaze is the most comfortable for the eyes because it encourages a more natural blink rate. Ergonomic research suggests and optimal screen height of 15-20 degrees below eye level. A disadvantage of larger and multiple screen monitors is that they are typically positioned directly at eye level instead of in this downward position of gaze which increases discomfort significantly.

And with any screen use, don"t forget taking breaks is the most important thing you can do. For every 20 minutes that you are working, reading, or playing on a screen, you should take a 20 second break to blink and look down a hallway or out a window (20 feet away). This is called the 20/20/20 Rule and research shows it"s our best protection to keep eyes comfortable and blinking more naturally!

Most of the smartphones come equipped with the high-end OLED or AMOLED displays manufactured by LG and Samsung respectively. They are marketed for their brighter and vibrant colors. But smartphones with such displays should be used with caution to prevent eye strain and vision.

According to a study done on many people who use smartphones to consume media including videos and movies with AMOLED displays, eye strain complaints were the most common issue. People who were already using glasses due to poor vision had more eye strain than people with normal vision.

Most of the latest smartphones come with blue light filtering which removes the harmful blue light and causes less eye strain. The study shares two cases where a group of people was given AMOLED display smartphones to consume visual media content in the dark holding the phone closer to their eyes vs the same people watching the content on LCD powered displays under the same environment. Around 47% of people came forward with problems related to eye strain and bright eye flashes. Their eyes had a hard time adjusting to the normal environment after staring for too long in the AMOLED displays. This problem was less reported when they used normal LCD displays.

AMOLED displays have their own benefits and we know they can get very bright and show vibrant colors. But technology comes with a limit on how far it can go and how it should be used. Many people have made it a habit of watching movies or videos on Netflix and Youtube during night time keeping the phone very close to their eyes. This can put a lot of strain on your eyes no matter what type of display your phone has. Always make sure to use your phone in a well-lit environment if you are using it for a long duration.

As we all know, AMOLED screen is a screen made of self-luminous organic materials. It does not require LCD backlight. When current passes through organic materials, pixels will emit light by themselves. Therefore, compared to LCD screens, AMOLED has more Pure black, higher contrast and other display advantages.

However, being more "ideal" also means paying more. The "eye-damaging" of AMOLED displays stems from external dissatisfaction with the current widespread adoption of PWM low-frequency dimming by AMOLED manufacturers. Here is a brief explanation of the PWM low frequency dimming technology.

LCD screens rely on LED backlight panels to emit light. Therefore, in the field of smart phones, LCD screens mostly use DC dimming. This is a technology that directly adjusts the brightness of the two sides of the light-emitting component to adjust the brightness. The smaller the current, the lower the brightness.

DC dimming is relatively straightforward, but it also has a big disadvantage. Due to the different wavelengths of the three primary colors, DC dimming can cause unavoidable color casts under extremely low brightness conditions, such as early LCD displays with DC dimming , At low brightness, there will be obvious problems of discoloration.

Unlike DC dimming, which directly adjusts the current to control brightness, PWM dimming is more clever. Everyone knows that switching the light source will cause flicker. The faster the switching speed, the faster the flicker. When the frequency of switching the light source exceeds the limit of the human eye, the brightness of all pictures is superimposed in the human eye, so the frequency will affect the brightness of the screen. This technique is called PWM dimming (pulse width modulation).

However, with PWM dimming, even if the human eye cannot sense the picture change during the switching process, we will respond to this phenomenon. It is more likely to cause fatigue on the muscles on both sides of the eyes, thereby stimulating the refraction system to accelerate vision Ageing.

At present, Samsung ’s AMOLED screens use 250Hz low-frequency PWM dimming technology. When the screen brightness is lower, the possibility that the human eye can perceive becomes larger, and it is more likely to affect sensitive people.

AMOLED displays that use PWM low-frequency dimming for a long time do seem to affect vision, but do n’t think that LCD can survive. Even with DC dimming, it also has an irreversible effect on vision-cannot be ignored Blu-ray hazard.

Different from the AMOLED self-emission mode, the LCD screen uses a combination of backlight and filter imaging. In mainstream technology, many LCD screens will use blue LED backlight panels, which are covered with red, green and colorless three. This kind of filter forms three primary colors of RGB when blue light passes through these three filters.

Among them, the short-wave blue light emitted by the blue backlight board can cause harm to human eyes. Because short-wave light has a greater capacity density and is more penetrating, it will directly penetrate the lens to the retina, causing atrophy or death of retinal pigment epithelium cells.

From a technical point of view, whether it is an LCD or an AMOLED screen, the impact on vision is universal. As far as smartphones are concerned, it cannot be said that AMOLED screens are more eye-damaging than LCD screens.

Even if the LCD party held high the banner that PWM low-frequency dimming is harmful, it could not fully prove that AMOLED screens have an impact on vision, because everyone"s habits of using mobile phones are different, and the impact on everyone is different. There is no doubt that in the end, it is still the habits that need attention. For example, users should try to avoid watching the phone screen for a long time; reduce the viewing time of LCD and AMOLED low brightness in the dark environment.

With the growth of the LCD panel industry as a whole, it has become more important than ever to prevent the sun’s wash out of displays used outdoors, such as automobile displays, digital signage, and public kiosks. Hence, the sunlight readable display was invented.

One solution would be to increase the luminance of the TFT LCD monitor’s LED backlight to overpower the bright sunlight and eliminate glare. On average, TFT LCD screens have a brightness of about 250 to 450 Nits, but when this is increased to about 800 to 1000 (1000 is the most common) Nits, the device becomes a high bright LCDand a sunlight readable display.

Since many of today’s TFT LCD display devices have shifted to touchscreens, the touch panels on the surface of LCD screens already block a small percentage of backlighting, decreasing the surface brightness and making it so that the sunlight can even more easily wash out the display. Resistive touch panels use two transparent layers above the glass substrate, but the transparent layers can still block up to 5% of the light.

While in bright exterior light settings, these devices reduce eye strain as the user attempts to view the image on screen, the brightness of the display itself can also cause eye strain, seen as the brightness may overwhelm your eyes. Many devices allow the user to adjust brightness, so this concern is oftentimes not too severe.

A recent technology falling into the sunlight readable display category is the transflective TFT LCD, coming from a combination of the word transmissive and reflective. By using a transflective polarizer, a significant percentage of sunlight is reflected away from the screen to aid in the reduction of wash out. This optical layer is known as the transflector.

In transflective TFT LCDs, sunlight can reflect off the display but can also pass through the TFT cell layer and be reflected back out off a somewhat transparent rear reflector in front of the backlight, illuminating the display without as much demand and power usage from the transmissive nature of the backlight. This addresses both the issues of wash out and the disadvantages of high brightness TFT LCDs in high ambient light environments. Because of its transmissive and reflective modes, this type of device is very useful for devices that will be used outdoors but also indoors.

While it does greatly reduce power consumption, transflective LCDs are much more expensive than high brightness LCDs. In recent years, the cost has decreased, but transflective LCDs continue to be more costly.

In addition to adjustments to the internal mechanics of LCDs, it is possible to make devices more sunlight-readable using surface treatments. The most common are anti-reflective (A/R) films/coatings and anti-glare processing.

Often paired with other methods of creating sunlight readable displays is optical bonding. By gluing the glass of a display to the TFT LCD cells beneath it, optical bonding eliminates the air gap that traditional LCD displays have in them using an optical grade adhesive.

This adhesive reduces the amount of reflection between the glass and LCD cell as well as the reflection of external ambient light. Doing this helps provide a clearer image with an increased contrast ratio, or the difference in the light intensity of the brightest white pixel color and darkest black pixel color.

With this contrast ratio improvement, optical bonding addresses the root issue with unreadable outdoor displays: the contrast. Though an increase in brightness can improve contrast, by fixing the contrast itself, LCD display images in outdoor environments will not be as washed out and will require less power consumption.

The optical bonding adhesive’s elimination of the air gap also protects the LCD from moisture/fogging and dust, as there is no space for impurities to penetrate and remain under the glass layer. This especially helps with maintaining the state of LCDs in transport, storage, and humid environments.

Compiling the various methods of improving LCD screens for sunlight readability, these devices can be optimized in high ambient light settings. An anti-glare coating is applied to the surface of the glass and anti-reflective coatings are applied to both the front and back. The transflector is also used in front of the backlight. These features can result in 1000 Nit or more display lighting, without the excessive power consumption and heat production through a high brightness backlight, consequently allowing for a longer lasting and better performing LCD

Unfortunately, the process of building a reflector inside TFT LCD is complicated and transflective TFT LCD is normally several times higher cost compared with normal transmissive TFT LCD.

To further improve and enhance the qualities of the LCD, LED and cold cathode fluorescent lamp (CCFL) backlights are used. Both these create bright displays, but the LED specifically can do so without as much power consumption and heat generation as compared to the CCFL option. Optical bonding is also applied in order to improve display contrast, leading to a more efficient and better quality sunlight readable display.

GeneralThe Fellowes Compact TFT/ LCD Monitor Riser is suitable for use with either flat screen TFT or LCD monitors and has been ergonomically designed to help reduce shoulder, neck and eye strain. The unique height adjustment allows for individual customisation from 76mm to 114mm to ensure a comfortable viewing angle can be adopted. The monitor platform is able to rotate 45 degrees to accommodate quick and easy shared viewing of the screen.

The actual glass TFT screen of the iMac is still glossy,mbut with the extra panel of glass gone, it should reduce the glare to a much more tolerable level.

How often have you used a screen for hours, only to find your eyes feeling strained, tired, and sore? Especially with the pandemic we"re all working and studying using our computers more than ever before, and because of this eye care is even more important than normal. To protect your eyes when using screens, you may have heard of the 20-20-20 rule. What this means, is that you should look away from your screen for 20 seconds every 20 minutes, to a distance of 20 feet or more. This helps relax your eyes, and helps ward off eye strain.

Remembering to do this every 20 minutes sounds difficult, right? That"s what the Arduino Eyesight Guardian is for! This unobtrusive little gizmo clips over the top of your monitor, and every 20 minutes gives you a reminder to look away for those recommended 20 seconds. It takes USB power from your computer, and has a tiny push button for you to register when you"ve looked away, so it"ll reset the clock and sleep until the next reminder is due.

Electrical ConnectionsThis table should make it easy for you to replicate the correct wiring scheme. The only thing to note is that you should join the GND wire from the push button and the TFT screen, as they need to go to the same GND pad on the Arduino. Other than that it"s pretty simple!

Display PreparationThe display (1.14" 240x135 Color TFT Display + MicroSD Breakout - ST7789) comes with two lugs on one edge of the PCB to give it two screw holes for mounting purposes. We don"t want these, but luckily they come with a perforated side so you can quite easily trim the lugs off with some side cutters or pliers.

Arduino ProgramPlease download the sketch attached to this step, and using the FTDI programmer technique explained (and tested!) in Step 4, upload this to the Arduino Pro Mini. The program is an adaptation of the Adafruit example sketch for displaying bitmap images, and I"ve added extra annotations to show the Eyesight Guardian relevant bits. It"s actually pretty simple, as the Adafruit sketch does all the hard parts already. Don"t forget to change the names of the bitmap images if you are adding your own graphics, so the program looks for the correct files on the MicroSD card.

My prototype that you saw me build here is now clipped onto the top of my PC screen, where it"ll help me look after my eyes. Hopefully in a few week"s time I"ll be able to let you know how I found using it over a long period.

The wide range of conditions over which LCD monitors are used means that it is desirable to produce displays whose luminance (brightness) can be altered to match both bright and dim environments. This allows a user to set the screen to a comfortable level of brightness depending on their working conditions and ambient lighting. Manufacturers will normally quote a maximum brightness figure in their display specification, but it is also important to consider the lower range of adjustments possible from the screen as you would probably never want to use it at its highest setting. Indeed with specs often ranging up to 500 cd/m2, you will certainly need to use the screen at something a little less harsh on the eyes. As a reminder, we test the full range of backlight adjustments and the corresponding brightness values during each of our reviews. During our calibration process as well we try to adjust the screen to a setting of 120 cd/m2 which is considered the recommended luminance for an LCD monitor in normal lighting conditions. This process helps to give you an idea of what adjustments you need to make to the screen in order to return a luminance which you might actually want to use day to day.

Changing the display luminance is achieved by reducing the total light output for both CCFL- and LED-based backlights. By far the most prevalent technique for dimming the backlight is called Pulse Width Modulation (PWM), which has been in use for many years in desktop and laptop displays. However, this technique is not without some issues and the introduction of displays with high brightness levels and the popularisation of LED backlights has made the side-effects of PWM more visible than before, and in some cases may be a source of visible flicker, eyestrain, eye fatigue, headaches and other associated issues for people sensitive to it. This article is not intended to alarm, but is intended to show how PWM works and why it is used, as well as how to test a display to see its effects more clearly. We will also take a look at the methods some manufacturers are now adopting to address these concerns and provide flicker-free backlights instead. As awareness grows, more and more manufacturers are focusing on eye health with their monitor ranges.

Pulse Width Modulation (PWM) is one method of reducing the perceived luminance in displays, which it achieves by cycling the backlight on and off very rapidly, at a frequency you can’t necessary detect with the naked eye, but which could lead to eye issues, headaches etc. This method generally means that at 100% brightness a constant voltage is applied to the backlight and it is continuously lit. As you lower the brightness control the perceived luminance for the user reduces due to a number of possible controlling factors:

Where the effect of flicker can really come into play is any time the user’s eyes are moving. Under constant illumination with no flickering (e.g. sunlight) the image is smoothly blurred and is how we normally perceive motion. However, when combined with a light source using PWM several discrete afterimages of the screen may be perceived simultaneously and reduce readability and the ability of the eyes to lock onto objects. From the earlier analysis of the CCFL backlighting we know that false colour may be introduced as well, even when the original image is monochromatic. Below are shown examples of how text might appear while the eyes are moving horizontally under different backlights.

It is important to remember that this is entirely due to the backlight, and the display itself is showing a static image. Often it is said that humans cannot see more than 24 frames per second (fps), which is not true and actually corresponds to the approximate frame rate needed to perceive continuous motion. In fact, while the eyes are moving (such as when reading) it is possible to see the effects of flicker at several hundred hertz. The ability to observe flicker varies greatly between individuals, and even depends on where a user is looking since peripheral vision is most sensitive.

100-120Hz flickering of fluorescent lights has in fact been linked to symptoms such as severe eye strain and headaches in a portion of the population, which is why high-frequency ballast circuits were developed that provide almost continuous output. Using PWM at low frequencies negates the advantages of using these better ballasts in backlights because it turns an almost constant light source back into one that flickers. An additional consideration is that poor quality or defective ballasts in fluorescent backlights can produce audible noise. In many cases this is exacerbated when PWM is introduced since the electronics are now dealing with an additional frequency at which power usage is changing.

It is also important to distinguish the difference between flicker in CRT displays and CCFL and LED backlit TFT displays. While a CRT may flicker as low as 60Hz, only a small strip is illuminated at any time as the electron gun scans from top to bottom. With CCFL and LED backlit TFT displays the entire screen surface illuminates at once, meaning much more light is emitted over a short time. This can be more distracting than in CRTs in some cases, especially if short duty cycles are used.

As we said at the beginning, this article is not designed to scare people away from modern LCD displays, rather to help inform people of this potential issue. With the growing popularity in W-LED backlit monitors it does seem to be causing more user complaints than older displays, and this is related to the PWM technique used and ultimately the type of backlight selected. Of course the problems which can potentially be caused by the use of PWM are not seen by everyone, and in fact I expect there are far more people who would never notice any of the symptoms than there are people who do. For those who do suffer from side effects including headaches and eye strain there is an explanation at least.

Height-adjustable LCD/TFT monitor riser height adjusts in three increments from 1" to 4-3/4" to reduce muscle fatigue and eye strain. Supports monitors weighing up to 66 lb. Monitor riser is made of heavy-duty ABS plastic and includes a cable clip.

Many people have suddenly found themselves spending more time at home, relying on televisions, video games, computers, and phones to help pass the hours. Is all this screen time bad for our eye health?

Spending too many hours staring at a screen can cause eye strain. You tend to blink less while staring at the blue light from a screen, and the movement of the screen makes your eyes work harder to focus. We typically do not position the screen at an ideal distance or angle, which can cause added strain. All these issues add up and can lead to lasting effects on your vision, especially in children.

Dry and irritated eyes – You tend to blink less when staring at a screen and your eyes can become dry and irritated. You should avoid dry eye because it can impact the health of your eye and cause blurry vision.

Loss of focus flexibility – Typically, loss of focus flexibility happens as we age, but excessive screen time can impact our ability to adjust our eyes to see at all distances quickly.

Nearsightedness – Screen time can keep our kids indoors, which can have a long-term impact on eye health. In children, natural daylight is important to developing eyes. Studies have shown children who spend more time indoors are more likely to develop nearsightedness.

Retinal damage – Digital devices release blue light, which can reach the inner lining of the back of your eye (retina). Studies show that blue light can damage light-sensitive cells in the retina. This can lead to early age-related macular degeneration, which can lead to loss of eyesight. According to the American Optometric Association, children are more likely than adults to experience when exposed to this high-energy light.

Adjust lighting – Most screens have a brightness adjustment. Make sure that your screen isn’t brighter than the surrounding light, or your eyes will have to work harder to see. Adjust your room lighting or your screen lighting and increase the contrast on your screen to reduce eye strain.

Give your eyes a break – The American Ophthalmological Society recommends using the 20-20-20 rule to reduce eye strain. Take a break every 20 minutes by looking at an object 20 feet away for 20 seconds. This gives your eyes a break and allows them to refocus.

Keep eyes moist – Consider using artificial tears to lubricate your eyes when they feel dry. Not only can screen time dry your eyes out, but the heaters and air conditioners in your space can further dry your eyes out.

Keep your distance – Keep your screen about an arm’s length or 25 inches away from your eyes – your eyes work harder when the screen is close to your face. Also, the angle of the screen should have you looking slightly downward.

Reduce glare – It is important that you position the screen so that you do not produce a glare from sunlight or internal light. A glare can further aggravate the eye.

Use blue light filters – A blue light filter can decrease the amount of blue light displayed on your screen. By reducing this light, your eyes won’t feel as tired by the end of the day.

The effects of too much screen time on your eyes can be easily avoided if you take steps to reduce your eye discomfort. If you notice symptoms developing, you probably aren’t taking the proper precautions. If the simple tips mentioned don’t help you, you could potentially have an underlying eye problem, such as eye muscle imbalance or uncorrected vision, so talk to your primary care provider.

Near-Eye Display Market to surpass USD 13 billion by 2031 from USD 1. 4 billion in 2021 at a CAGR of 25. 2% in the coming years, i. e. , 2021-2031. Product Overview NEDs, also known as head mounted displays (HMDs) or wearable displays, project a virtual image into one or both eyes’ field of view.

New York, June 30, 2022 (GLOBE NEWSWIRE) -- Reportlinker.com announces the release of the report "Near-Eye Display Market Segmentation: By Device Type, By Components, By Technology, By Vertical, And Region – Global Analysis of Market Size, Share & Trends For 2019–2021 And Forecasts To 2031" - https://www.reportlinker.com/p06288804/?utm_source=GNW

To the naked eye, the virtual image appears to be considerably larger than the comparatively small display panel and optics employed to make it. Near-eye displays are the headphones of the display industry, allowing users to create compact, portable, and personal viewing experiences. Near-eye displays provide several advantages over standard displays, including their small size, portability, light weight, low power consumption, and ability to be see-through.

Global Near-Eye Display Market to surpass USD 13 billion by 2031 from USD 1.4 billion in 2021 at a CAGR of 25.2% in the coming years, i.e., 2021-2031. Factors driving the growth of the near-eye display market include the increased use of OLEDoS micro displays in novel applications such as projection, imaging, smart glasses, and the rapid acceptance of AR devices in many verticals.

By Device Type, the global Near-Eye Display Market is divided into AR Devices, VR Devices, Others (EVF and MR Devices). In past years, VR devices dominated the near-eye display industry. Near-eye display-based HMDs power these gadgets, which deliver a totally digital experience that simulates a three-dimensional environment in the real world. Near-eye displays are widely used in VR systems since they are inexpensive and can be mass-produced by Asian manufacturers. By allowing users to immerse themselves in a highly realistic environment, virtual reality gadgets have transformed consumer applications.

On the basis of technology, the global Near-Eye Display Market is fragmented into TFT LCD, AMOLED, LCoS, OLEDOS, MicroLED, DLP, and Laser Beam Scanning. The market for near-eye displays was dominated by TFT LCD technology. This technology allows for lightweight, small displays with great resolution and low power consumption. These displays can also be mass-produced and widely used in virtual reality systems. These reasons are propelling the market for TFT LCD near-eye displays forward.

The rise of the metaverse, the spike in the use of OLEDoS tiny screens, and the expanding use of AR and VR devices all contribute to the market’s promising growth potential. The advent of the Metaverse, as well as increased investments and innovations from technology heavyweights, will play a crucial role in moving the near-eye display market forward in the near future. Due to enhanced qualities such as greater contrast, faster response time, lower weight, more compact size, negligible image blurring, and a wider operational temperature range than LCDs, OLEDoS micro displays are gaining traction. Since they are widely employed in EVFs and HMDs, they have outperformed traditional LCD and LCoS micro display technologies.

Health difficulties among gamers are on the rise, thanks to the introduction of AR-based gaming devices. AR games are extremely engaging and keep users interested for extended periods of time, leading to difficulties including anxiety, eye strain, obesity, and a lack of concentration. Since AR technology is immersive, it can cause anxiety or worry when worn for extended periods of time. AR devices expose consumers to dangerous electromagnetic frequency radiation, which can cause disease, in addition to stress.

Global Near-Eye Display Market is segmented based on regional analysis into five major regions: North America, Latin America, Europe, Asia Pacific and the Middle East and Africa. Due to the growing adoption of AR and VR technologies by the consumer and medical verticals, the near-eye display market in Asia Pacific is predicted to grow at the fastest CAGR. China’s market growth can be ascribed to the fact that it is one of Asia Pacific’s major consumer electronics marketplaces. The widespread availability of lightweight, low-cost near-eye display-based HMDs in Asia Pacific will encourage more enterprises in the region to invest in AR and VR HMDs. These reasons are expected to boost the near-eye display market’s growth in the near future.