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Advanced LED video wall with MicroLED models in 0.6, 0.7 and 0.9mm pixel pitches, and 1.2mm pixel pitch standard LED; with powerful processing, proprietary alignment technology and off-board electronics.

From cinema content to motion-based digital art, Planar® Luxe MicroLED Displays offer a way to enrich distinctive spaces. HDR support and superior dynamic range create vibrant, high-resolution canvases for creative expression and entertainment. Leading-edge MicroLED technology, design adaptability and the slimmest profiles ensure they seamlessly integrate with architectural elements and complement interior décor.

Advanced LED video wall with MicroLED models in 0.6, 0.7 and 0.9mm pixel pitches, and 1.2mm pixel pitch standard LED; with powerful processing, proprietary alignment technology and off-board electronics.

LED video wall solution with advanced video wall processing, off-board electronics, front serviceable cabinets and outstanding image quality available in 0.9mm pixel pitch

Planar® CarbonLight™ VX Series is comprised of carbon fiber-framed indoor LED video wall and floor displays with exceptional on-camera visual properties and deployment versatility, available in 1.9 and 2.6mm pixel pitch (wall) and 2.6mm (floor).

Carbon fiber-framed indoor LED video wall and floor displays with exceptional on-camera visual properties and deployment versatility for various installations including virtual production and extended reality.

a line of extreme and ultra-narrow bezel LCD displays that provides a video wall solution for demanding requirements of 24x7 mission-critical applications and high ambient light environments

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The appearance of the Mini LED display should be clean and free of scratches. The surface of the Mini LED should not be damaged or falling off. The appearance of the spliced screen should be a whole, and the surface of the display should be free of color blocks or spots. The ink color consistency shall meet the requirements of Table 1.

The safety performance of Mini LED display should meet the requirements of “GB 4943.1-2011 Safety of Information Technology Equipment Part 1: General Requirements”.

According to the standard “GB/T 2423.55-2006 Environmental Testing of Electrical and Electronic Products Part 2: Test Method Test Eh: Hammer Test”, the Mini LED display module should have sufficient anti-collision ability. After the test the surface of the Mini LED display module should be intact and work normally.

The average maximum brightness of the full-screen white field of the Mini LED display and display module is represented by I, which shall meet the requirements of Table 3.

The horizontal brightness viewing angle and vertical brightness viewing angle of Mini LED display and display module should meet the requirements of Table 4.

The brightness uniformity of Mini LED display and display module should be judged according to the method of “SJ/T 11281-2017 Light Emitting Diode (LED) Display Test Method”, and the brightness uniformity IGU should meet the requirements of Table 5.

The pixel out-of-control rate PZ of the Mini LED display when it leaves the factory and the cumulative use of 10,000 hours should meet the requirements of Table 13 and Table 14.

At room temperature, the power factor and power conversion efficiency of the Mini LED display power supply should meet the requirements of Table 15 and Table 16, respectively. The power factor is represented by PF and the conversion efficiency is represented by η.

The radio disturbance limit of the Mini LED display module should meet the requirements of “GB/T 9254-2008 Information Technology Equipment Radio Disturbance Limits and Measurement Methods”, and the radio disturbance of the Mini LED display module should meet the requirements of Table 18.

Mini LED display module should meet the requirements of “GB 17625.1-2012 Electromagnetic Compatibility Limits and Harmonic Current Emission Limits (Equipment Input Current ≤16A)”.

The immunity limit of Mini LED display module should meet the requirements of “GB/T 17618-2015 Information Technology Equipment Immunity Limits and Measurement Methods”, see Table 19 below.

The switching power supply of Mini LED display should have under-voltage protection, output over-voltage protection, over-current protection, short-circuit protection, over-temperature protection, etc.

The Mini LED screen itself has no blue light hazard. The blue light hazard depends on the design of the video and picture being played. There is not enough data to show the correlation between the display screen and the blue light hazard.

The Mini LED display module needs to be prompted to comply with the requirements of “GB/T 20145-2006 Light and Light System Photobiological Safety” when playing high blue light images for a long time.

Unless there are special regulations, the power supply of Mini LED display should meet: working voltage 176-264V~, frequency 48-52Hz. For wide-voltage Mini LED display products, the power supply should comply with: working voltage 90-264V~, working frequency 48-62Hz.

Mini LED display module, under the conditions of the highest working environment temperature and relative humidity of 87%～93%, it should be able to work normally after 8 hours of power on.

Unless otherwise specified, the Mini LED display module should be able to work normally after storage for 48 hours in an environment with an ambient temperature of (45±2) ℃ and relative humidity of 87%～93%.

According to “GB 4943.1-2011 Information Technology Equipment Safety Part 1: General Requirements”, the Mini LED display is suitable for atmospheric pressure at an altitude of not more than 2000 meters. The LED display needs to add a safety warning sign below 2000 meters above sea level in an obvious location.

If the LED display is used in an environment below 5000 meters above sea level, it should comply with the relevant regulations of “GB 4943.1-2011 Information Technology Equipment Safety Part 1: General Requirements”.

Refer to “SJ/T 11141-2017 General Specification for Light-Emitting Diode (LED) Displays” to conduct vibration tests on Mini LED display modules. After vibration test, Mini LED display module should be able to work normally.

According to the “GB/T 6587-2012 General Specification for Electronic Measuring Instruments”, the circulation condition level 3 in 5.10.1.3 is performed on the display module. After the test, the packaging box should not have major deformation and damage, and the performance should meet the requirements of product standards.

The enclosure protection level of Mini LED display should be tested and determined in accordance with “GB 4208-2017 Enclosure Protection Level (IP Code)”. The enclosure protection level of Mini LED display should meet the requirements of Table 20.

The various materials and components used in the Mini LED display should meet “SJ/T 11363-2016 Limitation Requirements for Toxic and Hazardous Substances in Electronic Information Products”.

Both Mini LED display module and Mini LED display module should support interchangeability requirements to improve the flexibility of production testing, on-site installation, maintenance, and spare parts provision.

The design of Mini LED display should be designed for safety, electromagnetic compatibility, reliability, easy maintenance, ease of use, environmental adaptability, energy-saving design, environmental protection, etc.

The software design of Mini LED display should meet the functional requirements as the premise, and compatibility should be considered. Mini LED display control software and configuration software upgrades should maintain backward compatibility.

The structural design of the Mini LED display should follow standardized and platform-based design requirements, meet the characteristics of ergonomics, and have a good heat dissipation structure and heat dissipation measures.

Some structural materials of Mini LED display can be made of steel, aluminum, plastic and other materials, and the structureshould be safe and strong. The selection of the display screen material should meet the corresponding environmental protection requirements, flame retardant requirements, anti-corrosion requirements, etc., to ensure that the display screen can work stably for a long time.

The structure of the Mini LED display should meet the installation requirements and maintenance requirements of the screen; the repair process should not destroy the consistency of the ink color on the surface; the internal wiring of the Mini LED display module should be simple and smooth, and meet the characteristics of safety regulations, EMC, easy maintenance, etc.

New York, United States, July 25, 2022 (GLOBE NEWSWIRE) -- Mini LED (light-emitting diode) displays are small light-emitting devices that get their light from tiny diodes. The old backlit LCD technology is where the new mini LED technology comes from. This technology uses thousands of tiny LED backlights instead of a single large backlight or several smaller backlights that are dimmed locally. There is no limit to how big a mini LED panel can be or how many backlights it can have, so it can be as small or as big as you want. But the size of the LCD matrix, which turns the white backlight into different colors, is still a limit.

The growing demand for mini LED backlights in the electronics industry is one of the most important things driving the growth of the mini LED display market. The mini LED backlight for displays is getting a lot of attention in the consumer electronics market because big companies like LG, Samsung, AUO, and others are planning to make products with this technology. AUO has created a line of displays that use mini LED backlighting. The mini LED display market is expected to grow because more people use smartphones and their features daily.

The mini LED backlight for displays is gaining much traction in the electronics market. Big names in consumer electronics like LG, Samsung, AUO, and others are planning to release products using the technology. AUO has introduced a line of displays that feature mini LED backlighting. Large monitors, desktop monitors, laptops, and high-end applications such as virtual reality headsets and smart vehicles are among them. These projects help mini LED display technology take advantage of new growth opportunities. In addition, many LED supply chain players actively seek ways to use mini and micro-LED technologies.

The mini LED display market is expected to grow because more people are getting smartphones and using all their features. Xiaomi and other top phone makers plan to put mini LED technology in their next phones. The most important things about mini LED displays are that they use less energy, have more power to reduce colors, are brighter, have a higher contrast ratio, use less power, are less likely to burn in than OLED displays, and are the same thickness as OLED displays.

Some of the biggest companies have put money into display technologies to make room for new ones like mini LED display technology. For example, Dicolor invested an extra USD 146.28 million to build a mini LED display production center in Chuzhou. Focus Lightings planned to invest USD 511.99 million to increase the number of mini LED chips it could make.

Epistar, a company that makes LED chips in Taiwan, has also raised its capital spending to more than USD 200.6 million. About 90% of the money spent on capital is used to increase the number of mini LEDs that can be made. Most of the money is spent on buying new facilities. During the forecast period, the mini LED display market is expected to have a lot of growth opportunities due to high investments from the top players and rising demand for mini LED technologies

Key Companies Profiled/VendorsAU Optronics Corp, Boe Technology Group Co. Ltd., Epistar Corporation, Everlight Electronics Co. Ltd., Harvatek Corporation, Innolux Corporation, Japan Display, Lextar, etc.

Asia-Pacific is the largest region in terms of revenue generation and manufacturing capability, growing at a CAGR of 91% during the forecast period. This is because it has a large population, many leading manufacturers, and a high demand for display technologies. As LED TVs become more popular, new market opportunities are opening up. Additionally, the strong semiconductor industry in Asia-Pacific will give the market more chances to grow.

Europe is expected to be valued at USD 1,742 million by 2030, growing at a CAGR of 86%. Due to the rising popularity of smart TVs in Europe, the mini LED display market is expected to grow swiftly. The European market has immense possibilities for growth because more people are using new technologies. The display industry is getting huge investments. Germany has the biggest market share of all the European countries. This is because the government has taken action in the form of subsidiaries, acquisitions of smaller companies, and a rise in the use of mini LED.

North America gets a big chunk of the market"s income through major economies like the US and Canada. The mini LED display market is also expected to grow because more TVs and video games are using mini LED displays. North America is a leader in the mini LED display market because consumer electronics companies buy many new, innovative products. The mini LED display market is also expected to grow because there are wealthy customers, corporate offices, retail chains, and strict rules about energy efficiency in the North American region.

Key Highlights The global mini LED display market was valued at USD 4 million in 2021. It is expected to be valued at USD 1,244 million by 2030, growing at a CAGR of 88% during the forecast period (2022–2030).

Application-wise, the global mini LED display market is categorized into Automotive Displays, Television, and Smartphones. Television holds the highest market share and is expected to grow at a CAGR of 86% during the forecast period.

End-user-wise, the global mini LED display market is classified into Consumer Electronics and Automotive. Consumer Electronics accounts for the maximum share and is expected to grow at a CAGR of 90% during the forecast period.

Region-wise, the global mini LED display market is segmented into North America, Europe, Asia-Pacific, and LAMEA. Asia-Pacific is the highest revenue generator in the global mini LED display market, growing at a CAGR of 91% during the forecast period.

In April 2022, Boe Technology Group Co. Ltd won the prestigious Red Dot award for its 110-inch 8K display, which opened up new vistas for smart devices.

Head-Up Display Market: Information by Components (Video Generator, Projector Unit), Type (Conventional, Windshield-Based), Application (Aviation, Automotive), and Region — Forecast till 2029

Automotive Head-Up Display Market: Information by Type (Windshield, Augmented Reality HUD), Vehicle Type (Passenger Vehicles, Commercial Vehicles), End-User, and Region — Forecast Till 2029

Virtual Reality Market: Information by Device Type (Head-Mounted Display), Application (Consumer), Technology (Non-Immersive, Semi and Fully Immersive) and Region — Forecast till 2029

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Most modern computer monitors, and even televisions, have an edge-lit LCD display that’s fundamentally similar to the first such displays sold decades ago, but that’s not where the future is headed. The twin threats of Mini-LED and OLED want to conquer the world of PC displays for themselves.

Which will win, and where is the future headed? I spoke with Ross Young, CEO of Display Supply Chain Consultants, and David Wyatt, CTO of Pixel Display (and inventor of Nvidia G-Sync), for the inside scoop.

Modern OLED displays rarely exceed 1,000 nits of brightness, and when they do, are incapable of sustaining it. LG’s C9 OLED television, for example, can’t sustain a peak brightness above 160 nits (according to testing by Rtings). Mini-LED displays like Apple’s Liquid Retina XDR, Samsung’s Odyssey Neo G9, and Samsung’s QN90A television can hit peak brightness well above 1,000 nits and sustain at least 600 nits.

Wyatt points to this as a key advantage. The best HDR standards call for up to 10,000 nits of brightness. Current consumer Mini-LED displays don’t achieve this, but it’s possible future displays will.

And Micro-LED, which uses individual LEDs as per-pixel lighting elements, can reach even greater heights. Wyatt says his company’s VividColor NanoBright technology will be capable of reaching up to one million nits.

Such brightness is not necessary for computer monitors or home televisions and instead targets demanding niche components, such as avionics displays. Still, it hints that we’ve only seen a sliver of HDR’s real potential – and that Mini-LED and Micro-LED, not OLED, will lead the charge.

OLED’s greatest strength is the opposite of Mini-LED’s incredible brightness. The self-emissive nature of OLED means each pixel can be turned on or off individually, providing a deep, inky, perfect black level.

“Mini-LED has clear advantages in sources of supply and brightness,” Young said in an email, “but OLEDs have advantages in regards to contrast, particularly off-axis contrast, response times, and no halo effect.” The “halo effect,” also known as blooming, is the halo of luminance that often surrounds bright objects on a Mini-LED display.

The advantages of OLED add up to superior contrast and depth. You’ve likely noticed this when viewing an OLED television at your local retailer. High-quality content has an almost three-dimensional look, as if the display is not a flat panel but a window into another world.

Modern Mini-LED displays often claim to rival OLED. Apple’s Liquid Retina Display XDR, for example, lists a maximum contrast ratio of 1,000,000:1. In reality, Mini-LED still noticeably lags the contrast performance of OLED because it can’t light pixels individually. This will remain true at least until Micro-LED, which can light pixels individually, goes mainstream.

Mini-LED improves on traditional edge-lit LCD displays by improving the backlight. The LCD panel itself, however, is much the same as before and retains some flaws common to the technology.

Display quality can shift significantly depending on viewing angle, and significant blur will be visible when displaying fast motion. Both problems are inherent to LCD technology. The liquid crystals do not block light uniformly, so the image looks different from different angles, and require a few milliseconds to respond to a charge, causing blur or ghosting in rapidly changing images.

OLED is different from LCD technology. There’s no liquid crystals to twist or move. Each pixel is an organic element that creates its own light when a charge is applied. The light is emitted in a relatively uniform pattern and can turn on or off extremely quickly, removing the viewing angle and motion performance issues of LCD entirely.

The last few points—contrast, black levels, viewing angles, and response times—highlight the strengths of OLED technology. But, OLED has a weakness: durability.

Wyatt hammered this point during our conversation. The “O” in OLED stands for organic, and organic material will wear out. Indeed, exposure to light itself (and blue light in particular) wears down OLED, reducing the light produced by pixels over time.

This problem is most often discussed in the context of burn-in or image retention. Burn-in happens when specific pixels on an OLED panel degrade differently from those around them, creating a persistent shadow in the image.

OLED manufacturers downplay this issue. LG said in 2016 that its OLED televisions can endure 100,000 hours before they degrade to half their original maximum brightness. The company’s current OLED reliability page says that “reasonable, responsible usage” should not result in burn-in.

Want to see the effects yourself? I recommend Rting’s burn-in testing page, which shows results over a period of eight years (though, unfortunately, Rtings has not updated its result since February of 2020). This testing shows OLED degradation is indeed a thing, though its severity depends on how you use your display.

You might decide the risk is worth the reward. But if you want a display that you’ll use all day, day after day, for a decade or more, OLED isn’t the best choice. The burn-in is real.

Monitor pricing remains a sore point for PC enthusiasts. As explained in my deep-dive on upcoming OLED monitors, pricing is tied to the efficiency of production.

“OLEDs are less costly than MiniLEDs in tablets and notebooks if comparing them to Apple’s iPad Pro and MacBook Pro,” says Young. “On the other hand, in monitors, OLEDs are more expensive than MiniLEDs, and are not as bright.”

This explanation is backed up by the hardware you can buy today. OLED panels are available at reasonable prices in notebooks like the Dell XPS 13 and Samsung Galaxy Book Pro. OLED panels for monitors, on the other hand, are so expensive most manufacturers don’t even bother. The LG UltraFine 32EP950, which briefly went on sale this summer, retailed for $3,999.99.

Mini-LED is also expensive, but more affordable than OLED. Asus’ 32-inch ROG Swift PG32UQX retails for as little as $2,899.99 and Samsung’s super-ultrawide Odyssey Neo G9 is $2,499.99.

This advantage will likely continue in the near future. OLED pricing is reliant on availability of OLED panels, which are not as widely produced as LCD panels. Companies looking to build Mini-LED displays can design the backlight somewhat independently of the LCD panel and choose panels as needed based on the panel’s capabilities and pricing.

Because of this, there’s more ways for manufacturers to deliver Mini-LED displays in notebooks and monitors, which may lead to a more aggressive reduction in price.

The current OLED vs. Mini-LED battle is give-and-take. Mini-LED wins in brightness, HDR, durability, and pricing (of full-sized monitors). OLED wins in contrast, black levels, viewing angles, and motion performance.

OLED’s big break may come with the introduction of new fabs. Young says they will “lower costs significantly for 10-inch to 32-inch panels, giving OLED fabs the same flexibility as G8.5 LCD fabs, meaning the ability to target multiple applications from a single fab.” The first of these new fabs should start producing panels by 2024.

Affordable OLED seems alluring, but Wyatt champions a different approach. He believes the Micro-LED technology championed by Pixel Display will meld the strengths of LCD and OLED while ditching the weaknesses of both.

However, Micro-LED is a technology more relevant to the latter half of this decade. The more immediate fight will see OLED attempt to improve brightness and durability while Mini-LED pursues increasingly sophisticated backlights to mimic the contrast of OLED.

Personally, I think Mini-LED shows more promise—when it comes to PC displays, at least. The static images, long hours, and sustained brightness of Mini-LED displays pinches on OLED pain points, which will remain even if pricing becomes more affordable.

According to The Elec (via AppleInsider) Apple will be using a hybrid OLED panel for the first iPad it produces with an OLED display, something that the report notes will be a few years from now. Currently, Apple uses an LCD backlit screen on its tablets which it calls a "Liquid Retina" display. The one exception is the latest 12.9-inch iPad Pro which uses a mini-LED backlit screen that Apple calls the "Liquid Retina XDR" display.

So what is a hybrid OLED panel? It is a panel that uses a combination of rigid and flexible OLED technologies. For example, a hybrid OLED panel would use rigid glass as a foundation with a plastic layer of flexible thin-film OLED on top. Apple does not want to use flexible OLED panels alone because they tend to crumple. This occurs from the heat used by lasers to remove a glass substrate that starts out as part of a flexible OLED panel during its production.

Besides being less likely to crumple, Apple might also like that hybrid OLED panels are thinner than rigid panels and should also be cheaper to produce than flexible panels. Apple currently uses flexible OLED panels for the iPhone. The report notes that if the issues (including the propensity of these panels to crumple) can be resolved, Apple could choose to use flexible OLED panels for the iPad instead of hybrid panels.

LG Display and Samsung Display are said to be working on an ultra-thin glass substrate for hybrid OLED panels. Replacing the current 5nm substrate with one measuring 2mm, the two companies are trying to reduce the thickness of hybrid OLED panels. The latest update reveals that the new technology is still at least one year away from being commercialized, but we are sure that Apple is closely monitoring the developments.

The reason why Apple and other phone manufacturers can get away with using flexible OLED panels for their handsets without crumpling issues is because this flaw isn"t as noticeable on smaller screens like the ones used for smartphones. However, the crumpling is noticeable on larger displays like the ones used for the company"s iPad tablets. And that is one of the reasons why Apple would probably choose to use a hybrid OLED panel instead of a flexible one for future iPad models.

Mini-LED backlit screens deliver some of the same features that users receive from OLED displays. The mini-LED displays use smaller LEDs as a backlight. Because of their smaller size, as much as 120 times smaller than the ones employed on traditional LCD screens, these panels have a larger number of LEDs behind the scenes. As a result, instead of the 72 LEDs used on the previous 12.9-inch iPad Pro model, there are 10,000 mini-LEDs used on the current model. They are arranged in four "dimming zones," each with 2,500 mini-LEDs, to provide the super 1,000,000:1 contrast that these screens can offer.

As we just noted, the mini-LED displays offer a high contrast ratio and they are less likely to suffer burn-ins which lead to a permanent image seen on a screen. They also deliver deeper blacks and more true-to-life colors. Last year an Apple executive explained that the mini-LED panel might make the 11-inch iPad Pro too heavy which is why the technology was only used on the larger 12.9-inch variant.

Keep in mind that mini-LED panels are considered the next step in LCD display technology. So even if Apple were to use it for all of its iPad models, the company would probably continue working toward the ultimate goal of offering OLED-screened iPad models. Due to cost though, we"d expect Apple to offer such a feature first on the pricier 12.9-inch iPad Pro just like it is doing with mini-LED.

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SEOUL, Nov. 15, 2022 — LG Electronics (LG) is unveiling its first 27-inch, 4K surgical monitor with Mini LED technology (model 27HQ710S) at MEDICA 2022, the international tradeshow for the medical sector taking place in Düsseldorf, Germany, from November 14-17.

LG 4K Mini LED surgical monitor boasts exceptional picture quality courtesy of the company’s Mini LED technology, which provides clear, precise images. The product’s 27-inch, 4K resolution (3,840 x 2,160) screen leverages thousands of tiny LED diodes to provide a peak brightness of 2,000cd/m² and a 1,000:1 contrast ratio. With an impressive 1,500 local dimming zones, the surgical monitor displays vibrant, high quality color images with consistent brightness across the entire screen.

In addition to contributing to excellent image reproduction, LG’s new surgical monitor’s bright, high quality display is suitable for use in hospital operating rooms and surgical centers. The surgical monitor also covers 20 percent more of the sRGB color gamut than its predecessor (model 27HJ710S). The combination of these attributes, along with a compact and easy to clean design, makes LG’s surgical monitor a valuable addition to the surgical suite.

“The market for medical monitors that can deliver bright, high quality color images in true 4K resolution is growing in size, and this is reflected in the products being showcased at this year’s MEDICA,” said Silas Choi, vice president and head of the B2B solution business division at LG Business Solutions Company. “The 27HQ710S is the result of LG’s efforts to bring its superior LED technology to the medical sector. We believe that this new model will be a valuable addition to the surgical suite.”

Visitors to LG’s exhibition booth (Hall 10, Stand D40) at MEDICA 2022 can explore the full range of LG medical displays, including the new 4K Mini LED surgical monitor.

Asia Pacific holds the maximum share in the global Mini LED industry in 2021 and is anticipated to hold the highest CAGR during the forecast period. The market is primarily driven by trends in the consumer electronics industry increasing demand for LED-based TVs, laptops, and smartphones

New Delhi, May 30, 2022 (GLOBE NEWSWIRE) -- Global Mini LED Display market was valued at US$ 290.8 Million in 2021 and is forecasted to reach US$ 9,343.0 Million by 2027. The market is expected to register a CAGR of 78.3% during the forecast period 2022-2027.

Mini LED is an advancement in LCD tech and mini-LED technology is most commonly found in televisions. The need for mini-LEDs is also growing in the fields of electronics applications such as gaming computers and monitors, as well as niche items such as high-end televisions that come with high contrast, high resolution, and saturation.

Factor such as rising demand for miniaturized display in consumer electronics devices and high dynamic range, power-saving capability & the lower failure rate compared to traditional LEDs drives the growth in the global mini-LED display market over the forecast period. The growing need for mini-LED displays in consumer electronics products as compared to regular LEDs is mainly due to its wide dynamic range, power-saving capability, and lower failure rate of tiny LEDs. Moreover, the application of mini-LEDs in smartphones creates a lucrative growth opportunity in the market. However, the high cost of mini-LEDs and high-power consumption in mini-LEDs inhibits the market growth over the forecast period. The increasing investment in the deployment of Mini LED technology is increasing the cost of mini-LEDs.

Market InsightsBased on form, the backlight source (for LCDs) segment holds the highest share in 2021 and is anticipated to grow at the highest CAGR during the forecast period. These individual LEDs can be turned on and off in order to make a better contrast ratio, as well as superior image quality that could rival OLED display technology.

In terms of application, the consumer electronics segment held the largest share in the market in 2021 and is expected to grow at the highest CAGR during the forecast period. The rising usage of electronic devices like smartphones and tablets is likely to provide a lucrative opportunity for the tiny LED display industry to thrive in the consumer electronics market.

Story continuesOn the basis of panel size, the 12" - 32“display segment is estimated to hold the largest market share in 2021 and is anticipated to hold the highest CAGR over the forecast period owing to its high demand in various consumer electronics.

By region, Asia Pacific holds the maximum share in the global Mini LED industry in 2021 and is anticipated to hold the highest CAGR during the forecast period. The market is primarily driven by trends in the consumer electronics industry increasing demand for LED-based TVs, laptops, and smartphones.

Mini- LED DisplayMarket Region Wise InsightsThe U.S. is the highest shareholder country and is projected to grow with the highest CAGR of 76.3% in the North America mini-LED display market. Due to an increase in the number of younger people, industries, and organizations purchasing consumer electronics such as cellphones, laptops, and monitors leads to regional growth.

Germany is the highest shareholder region in 2021, whereas Poland is projected to grow with the highest CAGR of 81.5% over the forecast period. On the basis of form, the backlight source (for LCDs) segment holds the highest share in 2021 in Europe mini-LED display market.

South Africa is the highest shareholder country in 2021 and is also projected to grow with the highest CAGR of 77.4% over the forecast period. Moreover, based on panel size, the 12" - 32“display segment is estimated to hold the largest share in 2021 in MEA mini-LED display market.

Brazil is the highest shareholder country in 2021 and is also projected to grow with the highest CAGR of 77.0% over the forecast period. Furthermore, in terms of product type, the backlight source (for LCDs) segment is anticipated to grow at the highest CAGR during the forecast period in the South America mini LED display market.

Top Market PlayersApple Inc., BOC Technology, Japan Display Inc., SONY India, X-CELEPRINT, AOC, Advanced Optoelectronic Technology Inc (AOT), AU Optronics Corp, EPI LEDS Co. Ltd., HGC Technology Co. Ltd, Innolux Corporation, Shenzhen MTC Co., Xiamen Changelight Co., Ltd., EPISTAR Corporation and Everlight Electronics Co. Ltd. among others

Global Mini LED Display Market is highly competitive in order to increase its presence in the marketplace. Some of the key players operating in the global mini-LED display market include Apple Inc., BOC Technology, Japan Display Inc., SONY India, X-CELEPRINT, AOC, Advanced Optoelectronic Technology Inc (AOT), AU Optronics Corp, EPI LEDS Co. Ltd., HGC Technology Co. Ltd, Innolux Corporation, Shenzhen MTC Co., Xiamen Changelight Co., Ltd., EPISTAR Corporation and Everlight Electronics Co. Ltd. among others.

Global Mini LED Display market is segmented based on form, application, panel size, and region. The industry trends in the mini-LED display market are sub-divided into different categories in order to get a holistic view of the global marketplace.

To gain more insights into the market with a detailed table of content and figures, click here: https://www.astuteanalytica.com/industry-report/mini-led-display-market

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Last week and yesterday, I posted pieces about some of the work at ITRI that was talked about at Touch Taiwan. But there was much, much more to see. It"s no surprise that miniLED and microLED were both big topics at the event. But I"ll start with a development in touch.

Since Apple released the iPhone, PCap touch technology has increasingly taken over the touch market. However, it has been hard to make in larger sizes and over the years since that launch, the maximum size using that technology has kept increasing. At the show, GIS, a Foxconn company and a specialist in touch technology had a demonstration of a 100" PCap display, using unidentified metal mesh as the electrode material. It looked good and the metal mesh was not visible from the front of the screen (a problem with some of the larger solutions). The company couldn"t tell us when it would be in the market or what it would cost, but just to make it work is an impressive achievement. In production, the company does have the capacity to make 85" displays and they were also on show.

Also in the touch area for large displays, Nippon Electric Glass (NEG) was talking about using its very thin and flexible G-Leaf glass in a roll-to-roll process to allow the deposition of electrode layers directly on the glass. The use of thin glass would help the sensitivity of the touch system as well as reducing the parallax errors that are a nuisance when there is a thick cover glass.

We spoke to a number of companies about miniLED backlights which were being shown in all sizes of LCD, from displays for VR headsets, smartphone, automotive applications, notebooks, monitors and TVs. A wide range of different numbers of LEDs and zones were being shown with hundreds to thousands of zones. The results were impressive and there is clearly a solid supply chain building up very rapidly. The key promise of these technologies is to deliver the high contrast ratio of OLED, but without the issues of lifetime and burn-in -issues that make it particularly hard to qualify OLEDs in demanding applications such as automotive. TV users also want high contrast and miniLED is being developed for that application, although cost will be a challenge, initially. AUO is also developing HDR monitor panels for gamers using the technique. Nvidia showed an HDR monitor developed with AUO at CES in 2018 and both Asus and Acer announced monitors using the panel, but they have taken a long time to get to market as there have been significant integration challenges. AUO assured us that the panel hasn"t been the problem.

Another topic that was less highlighted at the show, but is also a way to achieve very high contrast, is the dual layer panel technique. This is a topic we have been covering for three years or so (we"ve tagged many of the articles, so you can find more here ) We heard at SID that Hisense planned to use an Innolux panel in a double panel UltraHD TV in early 2020, but at Touch Taiwan, Innolux showed a very good looking 8K panel that uses an UltraHD modulation layer. However, AUO is not convinced about the technology and is concentrating on miniLED (and Innolux was hedging its bets by hav

There wasn"t a lot of other 8K technology at the show, but Chi Mei Visual Technology showed a wide angle viewing film that can be used with 8K TVs to improve the viewing angle without the need for so many VA domains. VA has very good performance when viewed "on axis", but performance drops sharply off-axis, so panel makers use multiple domains of liquid crystal material in each pixel. These need individual control, with different "gamma" characteristics, to get good viewing angles. That complicates things and reduces the aperture ratio compared to simpler architectures. At 8K, the loss of efficiency becomes a real problem, and we have seen sample images on Samsung 8K TVs that show that its attempts to maintain wide viewing at 8K are actually reducing the full resolution. (although this is a subtle effect - when we were shown the problem, the company that revealed it gave us a magnifying glass - so the effect is probably not apparent at normal viewing distance. But then, it can be argued that 8K isn"t, either!)

While I"m talking about contrast, there have been some interesting developments in contrast ratios for some IPS panels. Normally, while IPS LCDs have very good viewing angle performance, with well maintained colours and fairly consistent contrast - at least over a normal viewing cone - they typically only have from 1,000:1 to, perhaps, 1,500:1 contrast (without backlight modulation). AUO had a panel at 2,200:1 (although, as at SID, we weren"t able to find out what they are doing) while Innolux went further and showed an IPS panel with 3,500:1 contrast. Again the company wouldn"t confirm what they are doing, but I am pretty confident that the method is to use collimated light through the LCD and then to use a film to broaden the emission on the front of the panel. The clue was that Innolux confirmed to me that it is using a similar technology for its LCDs with "privacy mode" and they do use control of the angle of the light that enters the display from the backlight.

LCDs backlit with miniLED LCDs are a growing segment of the premium markets for tablets, notebooks, monitors and TVs. We"ve written extensively about the engineering that is inside the Apple miniLED displays that are in the firm"s IT products in the these categories. In particular, we were able to dig into the detail of the Pro Display XDR that was launched in 2019. (Apple Explains the Pro XDR Monitor).

So I was particularly pleased to hear that DXOMARK, a device testing service supplier, had done a detailed analysis of the 12.9" miniLED display that is in the iPad Pro and compared it to the regular edge-lit LCD in the 11" iPad Pro. DXOMARK has a well established team of image quality engineers that, a long time ago, came out of the DxO Optics team. I have been a user of that software for at least eight years to make the most of RAW images from my digital camera. The firm carefully analysed the performance of many, many cameras and lenses and the software automatically corrects the image to compensate for imaging issues.

A particularly fascinating part of the test was that DXOMARK compared haloing not only for the two iPads, but bringing in an OLED-based tablet, the Samsung Galaxy Tab S7+ for comparison. Haloing, that is to say patches of the screen that have been lit up by an LED, but that are bigger than the bright detail that triggered the boost, is considered to be the key image quality downside of miniLED (cost is the other significant non-image disadvantage). The performance of the 12.9" miniLED LCD was very, very close to the OLED which was something of a surprise to me. You can pretty well summarise every comparison of miniLED displays (such as TCL"s or Samsung"s QD miniLED TVs) against OLEDs (such as LG"s or Sony"s OLED TVs) as saying that miniLED provides better peak brightness but OLED has less haloing.

The result from the DXOMARK test showed that the haloing on the Apple 12.9" miniLED LCD iPad Pro was almost exactly the same as on the Samsung OLED tablet, but both of those were very different from the 11" iPad. How could that be?

To get the results as close as they are, I think we have to assume that both the 12.9" must be particularly good, while the OLED is perhaps not as good as you might think.

In the case of the Apple iPad, it really is very good. At the end of 2020, we dug out details of the backlight used in the Pro Display XDR monitor. I won"t dig into the details here, you can check it here. What it highlights is the huge amount of optical and thermal engineering that went into creating the monitor and I suspect that the knowledge that Apple gained from that development helped with the design of the iPad.

I happen to have the iPad Pro 12.9" and it would be fair to say that I"m very picky about image quality. I don"t use the iPad a huge amount, but when I do, I am continually impressed with the display quality and lack of things I can be picky about! I was very nervous when I got it as my last tablet used an OLED, my TV is an OLED and my smartphone is an OLED (you might spot a pattern here!).

So, I dug out my oldish OLED tablet, which still has a very good display as it hasn"t been much used, and saw that there was some haloing. I"m pretty sure that it is caused by internal reflections from the bright OLED in the glass around the bright pixels and subjectively, there was more haloing on my tablet OLED than on the miniLED display on the iPad. Given that the OLED display is significantly older, it"s likely that recent ones are better, but it seems perfectly feasible that the OLED and miniLED are now about the same.

So what about the third display - the 11" iPad? The 11" uses an edge-lit backlight. That showed very sharp edges and a large area around bright highlights. My conclusion on this is that the 11" uses zonal backlighting with a light guide plate that it steering the light to different parts of the display area. There can only be as many of those regions as there are LEDs around the edge of the display, at most.

However the 11" looks as though it has big backlight zones. The way that the edges drop in brightness suggests that the edgelit display is using optics to guide the light from different LEDs to different parts of the screen. It was a long way from the OLED and the miniLED.

Turning to other aspects of the displays, the big deal with the 12.9" is the extra contrast and luminance that the 12.9" display can produce, which really comes into play when HDR content is being shown. In SDR modes, which are created to be viewed at lower brightness, the two displays are very similar with even the non-miniLED 11" iPad producing over 600 cd/m² (with a 10% window). In HDR, though, things look very different and the 12.9" produces more light at every level and 1,000 cd/m² more at the high end of the range.

Because of the different ways that the backlights work, the results between the two displays are very different, depending on the pattern used to show a particular average APL. For example, look at this result from the tests.

As you would expect, when viewing photo images which are not shown with HDR, there is little difference in contrast performance, but in video that changes and if you have contrasty content where the miniLEDs can really come into their own, the 12.9" really excels in contrast, reaching over 3,500:1 in HDR video, while the 11" limits at less than 2,500:1. With less influence from the miniLEDs, the 12.9" is just over 2,000:1 while the 11" is at 1,500:1. The numbers for even the 11" iPad Pro are very good for an IPS LCD which are often limited to 1,000:1.

(It made me wonder if Apple had been an early client for LG Display"s IPS Black technology. Over the years, LG & Apple have often collaborated, with Apple having an exclusive access period to a new technology. Further, LG has been very reluctant to share any information about the IPS Black technology, which is unusual for the firm - editor).

Perceptually, in low light, the extra brightness of the 12.9" model is an advantage with low level tones more visible as a result. The higher brightness results in more power consumption in the miniLED display, and when displaying bright content, such as a 250cd/m² 100% APL image on both, when the 12.9" uses more power. However, like PDPs or OLEDs, in video with a low APL, many of the LEDs will power down, so the overall consumption gets closer.

Brightness uniformity is slightly better on the miniLED display, but they are close. Apple doesn"t say if it has any special technology to optimise uniformity, but the result is pretty good, although non-uniformity is more obvious at low grey levels. Colour uniformity is excellent on both displays and are almost imperceptible.

The global mini LED display market size was valued at USD 4 million in 2021. It is expected to be valued at USD 1,244 million by 2030, growing at a CAGR of 88% during the forecast period (2022–2030). The light from mini light-emitting diode (LED) displays comes from tiny LEDs. The roots of the new mini LED technology can be found in the old backlit LCD technology. This technology uses thousands of tiny LED backlights instead of a single large or several smaller backlights that are dimmed locally. This makes the local dimming much better. There is no limit to the size or number of backlights in a mini LED panel, so it can be as small or as big as you want. But they are still limited by the size of the LCD matrix, which turns the white backlight into different colors.

One of the most important things driving the growth of the mini LED display market is the growing need for mini LED backlights in the electronics industry. The mini LED backlight for displays is getting a lot of attention in the consumer electronics market because big names like LG, Samsung, AUO, and others are planning to release products with this technology. AUO has released a line of displays with mini LED backlight technology. These displays include large monitors, desktop monitors, laptops, and even high-end applications like VR headsets and smart cars.

Mini LED backlight for displays is getting a lot of attention in the electronics market, and big names in consumer electronics like LG, Samsung, AUO, and others are planning to release products with mini LED technology. AUO has released a line of displays with mini LED backlight technology. These include large monitors, desktop monitors, laptops, and high-end applications like VR headsets and smart vehicles. These projects help take advantage of new growth opportunities for mini LED display technology. Also, many players in the LED supply chain are now actively looking for ways to use mini and micro-LED technologies.

The mini LED display market is expected to grow because more people are using smartphones, and its many features are becoming part of their daily lives. For example, Xiaomi and other top phone makers plan to put mini LED technology in their next phones. The most important benefits of mini LED displays are that they use less energy, have more color-reduction power, are brighter, have a higher contrast ratio, use less power, are less likely to burn in than OLED displays, and have the same thickness as OLED displays. The mini LED display market is growing with such developments in the mobile display market.

In the next few years, mini LED displays are expected to become more widespread in automotive applications. Mini LED technology has been used as the backlight for automotive displays like HUDs, dashboards, in-car infotainment systems, and rear-view mirror displays. Some LED makers also showed ideas for how mini LED technology could be used to light the outside of cars. Several top automotive manufacturers also use HDR and local dimming technologies in their vehicle displays to make them brighter and have better contrast ratios.

The cost of mini LED parts like LED chips, PCB backplanes, and driver ICs is a big part of how much it costs to make the whole device. The price of mini LED displays goes up because of the costs of these parts and the technologies needed to make them, such as testing, sorting, and SMT. Also, the cost of making mini LED backlight displays is currently higher than that of traditional LCD and OLED displays. This is likely to slow the growth of the mini LED display market.

Some of the biggest companies have put money into display technologies to make room for new ones like mini LED display technology. For example, Dicolor invested an extra USD 146.28 million to build a mini LED display production center in Chuzhou. Focus Lightings planned to invest USD 511.99 million to increase the number of mini LED chips it could make.

Epistar, a company that makes LED chips in Taiwan, has also raised its capital spending to more than USD 200.6 million. About 90% of the money spent on capital is used to increase the number of mini LEDs that can be made. Most of the money is spent on buying new facilities. During the forecast period, the mini LED display market is expected to have a lot of growth opportunities due to high investments from the top players and rising demand for mini LED technologies.

Television holds the highest market share and is expected to grow at a CAGR of 86% during the forecast period. Mini LED TVs have surpassed OLED TVs and are expected to continue shaping the television industry in the coming years. Mini LED gives users a richer color layer, more depth to details, and a viewing experience that cannot be beaten in terms of striking and even brightness. In addition, a mini LED TV is an LCD panel with a quantum dot film and micrometer-sized LEDs that light up the back.

Automotive Displays are essential components of in-vehicle interaction vis