tft lcd displays rgb color quotation

Looking for a specific TFT resolution? We offer LCD TFTs varying in resolution from 128x160 pixels to 800x480 pixels. Many of our TFT LCDs also have carrier boards to make integrating them into your product as simple as possible. All of our TFT LCDs offer full color RGB. If you"re not finding the correct TFT LCD for your product or project, please contact our support team to see if they can help you find an appropriate TFT display module for you.

We have over two dozen TFT LCD display modules to choose from. All of them are full-color graphic displays. Unlike standard monochrome character displays, you can create complex images for imaginative user experiences. Thin and light, these are ideal for handheld devices, communications equipment, information displays, and test and measurement equipment.

Listed by the diagonal size of the active area (the usable area for lit pixels), our TFT display sizes range from 1.3 inches to 10.1 inches. Choose from six different interfaces, many of our TFT modules have more than one interface available. Arduino users should select modules with SPI for fast and easy communications to add color graphics to their projects.

Contrast ratio is the difference between a pixel that is lit or dark. Standard STN LCD displays typically have a 10:1 contrast ratio while TFT displays are 300:1 and up, so details stand out and text looks extra sharp. For standard STN displays, you must choose a display limited to a specific viewing angle (12, 3, 6 or 9 o"clock) while TFTs can have a viewing cone greater than 160 degrees.

To speed up your design time, we sell carrier boards and demonstration kits for selected modules. For outdoor use, be sure to look at our sunlight readable displays.

Get rich colors, detailed images, and bright graphics from an LCD with a TFT screen. Our standard Displaytech TFT screens start at 1” through 7” in diagonal size and have a variety of display resolutions to select from. Displaytech TFT displays meet the needs for products within industrial, medical, and consumer applications.

TFT displays are LCD modules with thin-film transistor technology. The TFT display technology offers full color RGB showcasing a range of colors and hues. These liquid crystal display panels are available with touchscreen capabilities, wide viewing angles, and bright luminance for high contrast.

Our TFT displays have LVDS, RGB, SPI, and MCU interfaces. All Displaytech TFT LCD modules include an LED backlight, FPC, driver ICs, and the LCD panel.

We offer resistive and capacitive touch screens for our 2.8” and larger TFT modules. Our TFT panels have a wide operating temperature range to suit a variety of environments. All Displaytech LCDs are RoHS compliant.

We also offer semi-customization to our standard TFT screens. This is a cost-optimized solution to make a standard product better suit your application’s needs compared to selecting a fully custom TFT LCD. Customizations can focus on cover glass, mounting / enclosures, and more - contact us to discuss your semi-custom TFT solution.

The DT022BTFT uses the same connections as the DT022CTFT, with the exception of the backlight (which has connections shown in the Displaytech datasheet).

TFT displays are full color LCDs providing bright, vivid colors with the ability to show quick animations, complex graphics, and custom fonts with different touchscreen options. Available in industry standard sizes and resolutions. These displays come as standard, premium MVA, sunlight readable, or IPS display types with a variety of interface options including HDMI, SPI and LVDS. Our line of TFT modules include a custom PCB that support HDMI interface, audio support or HMI solutions with on-board FTDI Embedded Video Engine (EVE2).

This premium TFT LCD display has a 1024x600 resolution screen with MVA technology, which delivers higher contrast and improved viewing angles up to 75° from any direction. The 24-bit true color TFT display is RoHS compliant with RGB interface, and does not include a touchscreen.

IPS (In-Plane Switching) lcd is still a type of TFT LCD, IPS TFT is also called SFT LCD (supper fine tft ),different to regular tft in TN (Twisted Nematic) mode, theIPS LCD liquid crystal elements inside the tft lcd cell, they are arrayed in plane inside the lcd cell when power off, so the light can not transmit it via theIPS lcdwhen power off, When power on, the liquid crystal elements inside the IPS tft would switch in a small angle, then the light would go through the IPS lcd display, then the display on since light go through the IPS display, the switching angle is related to the input power, the switch angle is related to the input power value of IPS LCD, the more switch angle, the more light would transmit the IPS LCD, we call it negative display mode.

The regular tft lcd, it is a-si TN (Twisted Nematic) tft lcd, its liquid crystal elements are arrayed in vertical type, the light could transmit the regularTFT LCDwhen power off. When power on, the liquid crystal twist in some angle, then it block the light transmit the tft lcd, then make the display elements display on by this way, the liquid crystal twist angle is also related to the input power, the more twist angle, the more light would be blocked by the tft lcd, it is tft lcd working mode.

A TFT lcd display is vivid and colorful than a common monochrome lcd display. TFT refreshes more quickly response than a monochrome LCD display and shows motion more smoothly. TFT displays use more electricity in driving than monochrome LCD screens, so they not only cost more in the first place, but they are also more expensive to drive tft lcd screen.The two most common types of TFT LCDs are IPS and TN displays.

LCD stands for “Liquid Crystal Display” and TFT stands for “Thin Film Transistor”. These two terms are used commonly in the industry but refer to the same technology and are really interchangeable when talking about certain technology screens. The TFT terminology is often used more when describing desktop displays, whereas LCD is more commonly used when describing TV sets. Don’t be confused by the different names as ultimately they are one and the same. You may also see reference to “LED displays” but the term is used incorrectly in many cases. The LED name refers only to the backlight technology used, which ultimately still sits behind an liquid crystal panel (LCD/TFT).

As TFT screens are measured differently to older CRT monitors, the quoted screen size is actually the full viewable size of the screen. This is measured diagonally from corner to corner. TFT displays are available in a wide range of sizes and aspect ratios now. More information about the common sizes of TFT screens available can be seen in our section about resolution.

The aspect ratio of a TFT describes the ratio of the image in terms of its size. The aspect ratio can be determined by considering the ratio between horizontal and vertical resolution.

16:9 = wide screen formats such as 1920 x 1080 and 2560 x 1440. 16:9 is commonly used for multimedia displays and TV’s and is increasingly becoming the standard

The resolution of a TFT is an important thing to consider. All TFT’s have a certain number of pixels making up their liquid crystal matrix, and so each TFT has a “native resolution” which matches this number. It is always advisable to run the TFT at its native resolution as this is what it is designed to run at and the image does not need to be stretched or interpolated across the pixels. This helps keep the image at its most clear and at optimum sharpness. Some screens are better than others at running below the native resolution and interpolating the image which can sometimes be useful in games.

You generally cannot run a TFT at a resolution of above its native resolution although some screens have started to offer “Virtual” resolutions, for example “virtual 4k” where the screen will accept a 3840 x 2160 input from your graphics card but scale it back to match the native resolution of the panel which is often 2560 x 1440 in these examples. This whole process is rather pointless though as you lose a massive amount of image quality in doing so.

Ultra-high resolutions must be thought of in a slightly different way. Ultra HD (3840 x 2160) and 4K (4096 x 2160) resolutions are being provided nowadays on standard screen sizes like 24 – 27” for instance. Traditionally as you increased the resolution of panels it was about providing more desktop real estate to work with. However, with those resolutions being so high, and the screen size being relatively small still, the image and text becomes incredibly small if you run the screen at normal scaling at those native resolutions. For instance imagine a 3840 x 2160 resolution on a 24” screen compared with 1920 x 1080. The latter would probably be considered a comfortable font size for most users. These ultra-high resolutions nowadays are about improving image clarity and sharpness, and providing a higher pixel density (measured as pixels per inch = PPI). In doing so, you can improve the sharpness and clarity of an image much like Apple have famously done with their “Retina” displays on iPads and iPhones. To avoid complications with tiny images and fonts, you will then need to enable scaling in your operating system to make everything easier to see. For instance if you enabled scaling at 150% on a 3840 x 2160 resolution, you would end up with a screen real estate equivalent to a 2560 x 1440 panel (3840 / 1.5 = 2560 and 2160 / 1.5 = 1440). This makes text much easier to read and the whole image a more comfortable size, but you then get additional benefits from the higher pixel density instead, which results in a sharper and crisper image.

Generally you will need to take scaling in to consideration when purchasing any ultra-high resolution screen, unless it’s of a very large size. The scaling ability does vary however between different operating systems so be careful. Apple OS and modern Windows (8 and 10) are generally very good at handling scaling for ultra-high res displays. Older operating systems are less capable and may sometimes be complicated. You will also find varying support from different applications and games, and often end up with weird sized fonts or sections that are not scaled up and remain extremely small. A “standard” resolution where you don’t need to worry about scaling might be simpler for most users.

Unlike on CRT’s where the dot pitch is related to the sharpness of the image, the pixel pitch of a TFT is related to the distance between pixels. This value is fixed and is determined by the size of the screen and the native resolution (number of pixels) offered by the panel. Pixel pitch is normally listed in the manufacturers specification. Generally you need to consider that the ‘tighter’ the pixel pitch, the smaller the text will be, and potentially the sharper the image will be. To be honest, monitors are normally produced with a sensible resolution for their size and so even the largest pixel pitches return a sharp images and a reasonable text size. Some people do still prefer the larger-resolution-crammed-into-smaller-screen option though, giving a smaller pixel pitch and smaller text. It’s down to choice and ultimately eye-sight.

For instance you might see a 35″ ultra-wide screen with only a 2560 x 1080 resolution which would have a 0.3200 mm pixel pitch. Compare this to a 25″ screen with 2560 x 1400 resolution and 0.2162 mm pixel pitch and you can see there will be a significant different in font size and image sharpness. There are further considerations when it comes to the pixel pitch of ultra-high resolution displays like Ultra HD and 4K. See the section on PPI for more information.

Instead manufacturers are now focusing on delivering higher resolutions in to existing panel sizes, not for the purpose of providing more desktop real-estate, but for the purpose of improving image sharpness and picture quality. Apple started this trend with their “Retina Displays” used in iPads and iPhones, improving image sharpness and clarity massively. It is common now to see smaller screens such as 24″ and 27″ for instance, but with high resolutions like 3840 x 2160 (Ultra HD) or even 5120 x 2880 (5K). By packing more pixels in to the same screen size which would typically offer a 2560 x 1440 resolution, panel manufacturers are able to provide much smaller pixel pitches and improve picture sharpness and clarity. To measure this new way of looking at resolution you will commonly see the spec of ‘Pixels Per Inch’ (PPI) being used.

While this aspect is not always discussed by display manufacturers it is a very important area to consider when selecting a TFT monitor. The LCD panels producing the image are manufactured by many different panel vendors and most importantly, the technology of those panels varies. Different panel technologies will offer different performance characteristics which you need to be aware of. Their implementation is dependent on the panel size mostly as they vary in production costs and in target markets. The four main types of panel technology used in the desktop monitor market are:

IPS was originally introduced to try and improve on some of the drawbacks of TN Film. While initially viewing angles were improved, the panel technology was traditionally fairly poor when it came to response times and contrast ratios. Production costs were eventually reduced and the main investor in this technology has been LG.Display (formerly LG.Philips). The original IPS panels were developed into the so-called Super IPS (S-IPS) generation and started to be more widely used in mainstream displays. These were characterized by their good colour reproduction qualities, 8-bit colour depth (without the need for Frame Rate Control) and very wide viewing angles. These panels were traditionally still quite slow when it came to pixel response times however and contrast ratios were mediocre. In more recent years a change was made to the pixel alignment in these IPS panels (see our detailed panel technology article for more information) which gave rise to the so-called Horizontal-IPS (H-IPS) classification. With the introduction of overdrive technologies, response times were improved significantly, finally making IPS a viable choice for gaming. This has resulted more recently in IPS panels being often regarded as the best all-round technology and a popular choice for display manufacturers in today’s market. Improvements in energy consumption and reduced production costs lead to the generation of so-called e-IPS panels. Unlike normal 8-bit S-IPS and H-IPS classification panels, the e-IPS generation worked with a 6-bit + FRC colour depth. Developments and improvements with colour depths also gave rise to a generation of “10-bit” panels with some manufacturers inventing new names for the panels they were using, including the co-called Performance-IPS (p-IPS). It is important to understand that these different variants are ultimately very similar and the names are often interchanged by different display vendors. For more information, see our detailed panel technologies guide.

This technology was developed by Sharp for use in some of their TFT displays. It consists of several improvements that Sharp claim to have made, mainly to counter the drawbacks of the popular TN Film technology. They have introduced an Anti-Glare / Anti-Reflection (AGAR) screen coating which forms a quarter-wavelength filter. Incident light is reflected back from front and rear surfaces 180° out of phase, thus canceling reflection rather diffusing it as others do. As well as reducing glare and reflection from the screen, this is marketed as being able to offer deeper black levels. Sharp also claim to offer better contrast ratios than any competing technology (VA and IPS); but with more emphasis on improving these other technologies, this is probably not the case with more modern panels. There are very few ASV monitors around really, with the majority of the market being dominated by TN, VA and IPS panels.

This technology was developed by BOE Hydis, and is not really very widely used in the desktop TFT market, more in the mobile and tablet sectors. It is worth mentioning however in case you come across displays using this technology. It was developed by BOE Hydis to offer improved brightness and viewing angles to their display panels and claims to be able to offer a full 180/180 viewing angle field as well as improved colours. This is basically just an advancements from IPS and is still based on In Plane technology. They claim to “modify pixels” to improve response times and viewing angles thanks to improved alignment. They have also optimised the use of the electrode surface (fringe field effect), removed shadowed areas between pixels, horizontally aligned electric fields and replaced metal electrodes with transparent ones. More information about AFFS can be found here.

This panel technology was developed by NEC LCD, and is reported to offer wide viewing angles, fast response times, high luminance, wide colour gamut and high definition resolutions. Of course, there is a lot of marketing speak in there, and the technology is not widely employed in the mainstream monitor market. Wide viewing angles are possible thanks to the horizontal alignment of liquid crystals when electrically charged. This alignment also helps keep response times low, particularly in grey to grey transitions. Their SFT range also offers high definition resolutions and are commonly used in medical displays where extra fine detail is required.

NEC’s SFT technology was first developed to be labelled as Advanced-SFT (A-SFT) which offered enhanced luminance figures. This then developed further to Super Advanced-SFT (SA-SFT) where colour gamut reached 72% of the NTSC colour space, and then to Ultra Advanced-SFT (UA-SFT) where the gamut was still at 72% or higher, but with a further enhancement of the luminance as compared with SA-SFT. These changes were all made possible thanks to the improved transmissivity of the SFT technology. More information is available from NEC LCD

On these older panels where overdrive was not being used, in reality the response time of the pixels will vary depending on the colour change they are making. In practice, a full black > white change is not common, and instead the pixel transitions are in shades of grey, and are then passed through the RGB colour filters. The speed of change will depend on the darkness of the transition, and traditionally (before overdrive) the transitions to lighter greys will be faster. Therefore, a manufacturers quoted response time does not necessarily mean that the speed of the pixels is the same for all the transitions. It is always a good idea to see if there are any third party measurements of response time for any given screen before considering how fast a panel really is in practice. Also take into account perceived response time measurements and comparisons between screens as we carry out in our reviews.

One thing to note regarding pixel response time is that the overall performance of the TFT will also depend on the technology of the panel used. TN film panels offer response time graphs similar to that above, but screens based on traditional VA / IPSvariant panels can show response time graphs more like this (we are assuming for now non-overdriven panels):

Some reviews sites including TFTCentral have access to advanced photosensor (photodiodе + low-noise operational amplifier) and oscilloscope measurement equipment which allows them to measure response time as detailed above. See our article about response times for more information on that method. Graphs showing response time according to their equipment are produced. Other sites rely on observed responsiveness to compare how well a panel can perform in practice and what a user might see in normal use. We think it is important to study both methods if possible to give a fuller picture of a panels performance. For visual tests TFTCentral uses a program called PixPerAn (developed by Prad.de) which is good for comparing monitor responsiveness with its series of tests. The favourite seems to be the moving car test as shown here:

In addition to pixel response time measurements and visual tests described above, it is also possible to capture the levels of blurring and smearing the human eye will experience on a display. This is achieved using a pursuit camera setup. They are simply cameras which follow the on-screen motion and are extremely accurate at measuring motion blur, ghosting and overdrive artefacts of moving images. Since they simulate the eye tracking motion of moving eyes, they can be useful in giving an idea of how a moving image appears to the end user. It is the blurring caused by eye tracking on continuously-displayed refreshes (sample-and-hold) that we are keen to analyse with this new approach. This is not pixel persistence caused by response times; but a different cause of display motion blur which cannot be captured using static camera tests. Low response times do have a positive impact on motion blur, and higher refresh rates also help reduce blurring to a degree. It does not matter how low response times are, or how high refresh rates are, you will still see motion blur from LCD displays under normal operation to some extent and that is what this section is designed to measure. Further technologies specifically designed to reduce perceived motion blur are required to eliminate the blur seen on these type of sample-and-hold displays which we will also look at.

These tests capture the kind of blurring you would see with the naked eye when tracking moving objects across the screen (example from the Asus ROG Swift PG279Q). As you increase the refresh rate the perceived blurring is reduced, as refresh rate has a direct impact on motion blur. It is not eliminated entirely due to the nature of the sample-and-hold LCD display and the tracking of your eyes. No matter how fast the refresh rate and pixel response times are, you cannot eliminate the perceived motion blur without other methods.Tests like the above would give you an idea of the kind of perceived motion blur range when using the particular screen without any bur reduction mode active.

The Contrast Ratio of a TFT is the difference between the darkest black and the brightest white it is able to display. This is really defined by the pixel structure and how effectively it can let light through and block light out from the backlight unit. As a rule of thumb, the higher the contrast ratio, the better. The depth of blacks and the brightness of the whites are better with a higher contrast ratio. This is also referred to as the static contrast ratio.

When considering a TFT monitor, a contrast ratio of 1000:1 is pretty standard nowadays for TN Film and IPS-type panels. VA-type panels can offer static contrast ratios of 3000:1 and above which are significantly higher than other competing panel technologies.

Some technologies boast the ability to dynamically control contrast (Dynamic Contrast Ratio – DCR) and offer much higher contrast ratios which are incredibly high (millions:1 for instance!). Be wary of these specs as they are dynamic only, and the technology is not always very useful in practice. Traditionally, TFT monitors were said to offer poor black depth, but with the extended use of VA panels, the improvements from IPS and TN Film technology, and new Dynamic Contrast Control technologies, we are seeing good improvements in this area. Black point is also tied in to contrast ratio. The lower the black point, the better, as this will ensure detail is not lost in dark image when trying to distinguish between different shades.

Brightness as a specification is a measure of the brightest white the TFT can display, and is more accurately referred to as its luminance. Typically TFT’s are far too bright for comfortable use, and the On Screen Display (OSD) is used to turn the brightness setting down. Brightness is measure in cd/m2 (candella per metre squared). Note that the recommended brightness setting for a TFT screen in normal lighting conditions is 120 cd/m2. Default brightness of screens out of the box is regularly much higher so you need to consider whether the monitor controls afford you a decent adjustment range and the ability to reduce the luminance to a comfortable level based on your ambient lighting conditions. Different uses may require different brightness settings as well so it is handy when reviews record the luminance range possible from the screen as you adjust the brightness control from 100 to 0%.

The colour depth of a TFT panel is related to how many colours it can produce and should not be confused with colour space (gamut). The more colours available, the better the colour range can potentially be. Colour reproduction is also different however as this related to how reliably produced the colours are compared with those desired.

The colour depth of a panel is determined really by the number of possible orientations of each sub pixel (red, blue and green). These different orientations basically determine the different shade of grey (or colours when filtered in the specific way via RGB sub pixels) and the more “steps” between each shade, the more possible colours the panel can display.

At the lower end, TN Film panels are normally quite economical, and their sub pixels only have 64 possible orientations each, giving rise to a true colour depth of only 262,144 (i.e. 64 steps on each RGB = 64 x 64 x 64 = 18). This is also referred to commonly s 18-bit colour (i.e. 6 bits per RGB sub pixel = 6 + 6 + 6) This colour depth is pretty limited and so in order to reach 16 million colours and above, panel manufacturers commonly use two technologies: Dithering and Frame Rate Control (FRC). These terms are often interchanged, but strictly can mean different things. These technologies simulate other colours allowing the colour depth to improve to typically 16.2 million colours.

Other panel technologies however can offer more possible pixel orientations and therefore more steps between each shade. VA and IPS panels are traditionally capable of 256 steps for each RGB sub pixel, allowing for a possible 16.7 million colours (true 8-bit, without FRC). These are referred to as 8-bit panels with 24-bit colour (8-bit per sub pixel = 8 + 8 + 8 = 24). While most IPS and VA panels support 8-bit colour, modern IPS and VA panels do sometimes use 6-bit + FRC instead. See this news piece for further information.

Colour gamut in TFT monitors refers to the range of colours the screen is capable of displaying, and how much of a given reference colour space it might be able to display. It is ultimately linked to backlight technology and not to the panel itself.

Laser Displays are capable of producing the biggest colour gamut for a system with three basic colours, but even a laser display cannot reproduce all the colours the human eye can see, although it is quite close to doing that. However, in today’s monitors, both CRT and LCD (except for some models I’ll discuss below), the spectrum of each of the basic colours is far from monochromatic. In the terms of the CIE diagram it means that the vertexes of the triangle are shifted from the border of the diagram towards its centre.

Traditionally, LCD monitors were capable of giving approximate coverage of the sRGB reference colour space as shown in the diagram above. This is defined by the backlighting used in these displays – Cold-cathode fluorescent lamps (CCFL) that are employed which emit radiation in the ultraviolet range which is transformed into white colour with the phosphors on the lamp’s walls. These backlight lamps shine through the LCD panel, and through the RGB sub-pixels which act as filters for each of the colours. Each filter cuts a portion of spectrum, corresponding to its pass-band, out of the lamp’s light. This portion must be as narrow as possible to achieve the largest colour gamut.

Traditional CCFL backlighting offers a gamut pretty much covering the sRGB colour space. However, the sRGB space is a little small to use as a reference in specifications for colour gamuts and so the larger NTSC colour space reference is also sometimes used. The sRGB space corresponds to approximately 72% of the NTSC colour space, which is a figure commonly used in specifications for standard CCFL backlit monitors. If you read the reviews here, you will see that analysis with colorimeter devices allows us to measure the colour gamut, and you can easily spot those screens utilising regular CCFL backlighting by the fact their gamut triangle is pretty much mapped to the reference sRGB triangle. The sRGB colour space is lacking most in green hues as compared with the gamut of the human eye. It should be noted that most content is produced based on the sRGB colour space, including Windows, many popular applications and internet content.

Above Right: a typical measurement of a monitor with enhanced CCFL backlighting, covering more than the sRGB colour space and about 92% of the NTSC space

It’s important to consider what colour space your content is based around. sRGB has long been the preferred colour space of all monitors, and is in fact the reference for the Windows operating system and the internet. As such, most content an average user would ever use is based on sRGB. If you view sRGB content on a wide gamut screen then this can lead to some colours looking incorrect as they are not mapped correctly to the output device. In practice this can lead to oversaturation, and greens and reds can often appear false, oversaturated or neon-like. Colour managed applications and a colour managed workflow can prevent this but for the average user the cross-compatibility of widely used sRGB content and a wide gamut screen may present problems and prove troublesome. Some users don’t object to the over saturated and ‘cartoony’ colours for their use, but to many, it is an issue.

Of course the opposite is true if in fact you are working with content which is based on a wider colour space. In photography, the Adobe RGB colour space is often used and is wider than the sRGB reference. If you are working with wide gamut content, with wide gamut supported applications, you would want a screen that can correctly display the full range of colours. This could not be achieved using a traditional CCFL backlit display with only sRGB coverage, and so a wide gamut screen would be needed. Wide gamut displays are often aimed at colour enthusiasts and professional uses as a result.

A compromise is sometimes available in the form of a screen which can support a range of colour spaces accurately. Some higher end screens come with a wide gamut backlight unit. Natively these offer a gamut covering 92 – 102% of the NTSC colour space. However, they also feature emulation modes which can simulate a smaller colour space. These emulation modes are normally available through the OSD menu and offer varying options with varying degrees of reliability. In the best cases the screens can emulate the smaller Adobe RGB colour space, and also the sRGB colour space. This allows the user to work in whichever colour space they prefer but gives them compatibility with a wider range of content if they have the need. The success of these colour space emulations will vary from one screen to another however and are not always accurate. Obviously you are still paying additional money for the wide gamut support, so if you’re only really interested in using sRGB mode then you’d probably be better looking for a standard gamut backlit screen.

LED backlighting has now become the norm for desktop monitors and is available in a few variations. The most common is White-LED (W-LED), which is a replacement for standard CCFL backlighting. The LED’s are placed in a line along the edge of the matrix, and the uniform brightness of the screen is ensured by a special design of the diffuser. The colour gamut is limited to sRGB as standard (around 68 – 72% NTSC) but the units are cheaper to manufacturer and so are being utilised in more and more screens, even in the more budget range. They do have their environmental benefits as they can be recycled, and they have a thinner profile making them popular in super-slim range models and notebook PC’s. It is possible to extend the colour gamut of W-LED displays using “Quantum Dot” technologies which are fairly new.

RGB LED backlighting consists of an LED backlight based on RGB triads, each triad including one red, one green and one blue LED. With RGB LED backlighting the spectrum of each LED is rather wide, so their radiation can’t be called strictly monochromatic and they can’t match a laser display, yet they are much better than the spectrum of CCFL and WCG-CCFL backlighting. RGB LED backlighting is not common yet in desktop monitors, and their price tends to put them way above the budget of all but professional colour enthusiast and business users. These models using RGB LED backlights are capable of offering a gamut covering > 114% of the NTSC colour space. They are not really used at all nowadays as they were prohibitively expensive.

There are also wide gamut LED backlights available and more commonly used nowadays as they are cheaper to manufacturer than older RGB LED versions. GB-r-LED for instance is provided by LG.Display and can offer wide gamut support from an LED backlight. Other panel manufacturers have their equivalents as well. Modern LED screens with wide gamut support tend to have a percentage coverage of the Adobe RGB reference space listed in the display spec, with 99% Adobe RGB being pretty standard for wide gamut LED technologies.

You will commonly see a monitor’s gamut listed as a percentage compared with a reference colour space. This will vary depending on which reference a manufacturer uses, but commonly you will see a % against the NTSC or Adobe RGB colour spaces. Bear in mind also that the gamut / colour space of the sRGB standard equates to about 72 – 75% of the NTSC reference. This is the standard colour space for the Windows operating system and the internet, and so where extended colour spaces are produced from a monitor, considerations need to be made as to the colour space of the content you are viewing.

Viewing angles are quoted in horizontal and vertical fields and often look like this in listed specifications: 170/160 (170° in horizontal viewing field, 160° in vertical). The angles are related to how the image looks as you move away from the central point of view, as it can become darker or lighter, and colours can become distorted as you move away from your central field of view. Because of the pixel orientation, the screen may not be viewable as clearly when looking at the screen from an angle, but viewing angles of TFT’s vary depending on the panel technology used.

TFT screens do not refresh in the same way as a CRT screen does, where the image is redrawn at a certain rate. As a TFT is a static image, and each pixel refreshes independently, setting the TFT at a common 60Hz native refresh rate does not cause the same problems as it would on a CRT. There is no cathode ray gun redrawing the image as a whole on a TFT. You will not get flicker, which is the main reason for having a high refresh rate on a CRT in the first place. Standard TFT monitors operate with a 60Hz recommended refresh rate, but can sometimes support up to 75Hz maximum (within the spec) or sometimes even further using ‘overclocking’ methods. The reason that 60Hz is recommended by all the manufacturers is that it is related to the vertical frequency that TFT panels run at. Some more detailed data sheets for the panels themselves clearly show that the operating vertical frequency is between about 56 and 64Hz, and that the panels ‘typically’ run at 60Hz (see the LG.Philips LM230W02 datasheet for instance – page 11). If you decide to run your refresh rate from your graphics card above the recommended 60Hz it will work fine, but the interface chip on the monitor will be in charge of scaling the frequency down to 60Hz anyway. Some screens will allow you to run at the maximum 75Hz as well for an additional boost in frame rates and some minor improvements in motion clarity. The support of this will really depend on the screen, your graphics card and the video connection being used. You may find the screen operates fine at the higher refresh rate setting but in reality the screen will often drop frames to meet the 60Hz recommended setting (or spec of the panel) anyway. Generally we would suggest sticking to 60Hz on standard TFT monitors.

You will see more mention of higher refresh rates from both LCD televisions and now desktop monitors. It’s important to understand the different technologies being used though and what constitutes a ‘real’ 120Hz and what is ‘interpolated’:

Interpolated 120Hz+– These technologies are the ones commonly used in LCD TV’s where TV signal input is limited to 50 / 60 Hz anyway (depending on PAL vs NTSC). To help overcome the issues relating to motion blur on such sets, manufacturers began to introduce a technology to artificially boost the frame rate of the screen. This is done by an internal processing within the hardware which adds an intermediate and interpolated (guessed / calculated) frame between each real frame, boosting from 50 / 60fps to 100 / 120 fps. This technology can offer a noticeable improvement in practice when it is controlled very well. Some sets even have 240 and 480Hz technologies which operate in the same way, but with further interpolation and inserted frames. See here for further information.

Manufacturer specifications will usually list power consumption levels for the monitor which tell you the typical power usage you can expect from their model. This can help give you an idea of running costs, carbon footprint and electricity demands which are particularly important when you’re talking about multiple monitors or a large office environment. Power consumption of an LCD monitor is typically impacted by 3 areas:

This relates to the connection type from the TFT to your PC or other external device. Older screens nearly all came with an analogue connection, commonly referred to as D-sub or VGA. This allows a connection from the VGA port on your graphics card, where the signal being produced from the graphics card is converted from a pure digital to an analogue signal. There are a number of algorithms implemented in TFT’s which have varying effectiveness in improving the image quality over a VGA connection. Some TFT’s with then offer a DVI input as well to allow you to make use of the DVI output from your graphics card which you might have. This will allow a pure digital connection which can sometimes offer an improved image quality. It is possible to get DVI – VGA converters. These will not offer any improvements over a standard analogue connection, as you are still going through a conversion from digital to analogue somewhere along the line. Dual-Link DVI is also sometimes used which is a single DVI connection but with more pins, allowing for higher resolution/refresh rate support than a single-link DVI.

We supply optimum quality 12 INCH TFT with A/D Card facility which is procured from established vendors across the world. Our auto display cards find its applications in medical instruments, for variousread more...

Recent trend shows that buyers now prefer colour display & demand for colour tft is increasing rapidly. evolute has already geared up to meet this demand from the industry. It has wide varieties of tft panels from 2. 8" ~19" & can support customers with various makes/ brands from japan, taiwan & china.

The cView Series : Mil-Grade TFT LCD Solutions has been designed and manufactured to encompass a range of Flat Panel Displays for Military or Industrial Applications. The prime focus is to facilitate clearread more...

The cView Series has been design and manufactured to produce a range of Flat Panel Displays for Military or Industrial Applications. The prime focus is to facilitate clear viewing and enhance image quality without compromising on the environmental & EMI compliance.

A thin-film-transistor liquid-crystal display (TFT LCD) is a variant of a liquid-crystal display(LCD) that uses thin-film transistor (TFT) technology to improve image qualities such as addressability and contrast. Application: Television Sets, Computer monitors, Mobile Phone, Handheld Device, POS Device, Tablet Phones, Homeread more...

0.96″ 80 x RGB x 160 Color TFT LCD Phoenix Display International PDI09601A‐V3 is a small-size 0.96” color TFT liquid crystal display (LCD) with a module size of 13.30 x 27.9 x 1.4 mm and active area of 10.80 x 21.70. This product is IPS TFT, negative, Transmissive glass with a 262K color 80 x RGB x 160 resolution. Its brightness is 350 nits with a contrast ratio of 600. Using an ST7735S driver with an 8 bit 8080 system parallel interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. All our…

1.3″ 240 x RGB x 240 Color TFT LCD Phoenix Display International PDI013021B-V1 is a small-size 1.3” color TFT liquid crystal display (LCD) with a module size of 26.85mm x 29.55mm x 1.5mm and active area of 23.4mm x 23.4mm.This product is IPS TFT, negative, Transmissive glass with a 262K color 240 RGB x 240 resolution. Its brightness is 350 nits with a contrast ratio of 600. Using an ST7789V driver with an 8 bit 8080 system parallel interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time.…

1.3″ Round 240 x RGB x 240 Transmissive Color TFT Display Phoenix Display International PDI013A2402HS is a small-size round 1.3” color TFT liquid crystal display (LCD) with a module size of 35.5 x 8.23 x 1.4 mm and active area of 32.34 x 32.34 mm.This product is IPS TFT, negative, Transmissive glass with a 262K color 240 RGB x 240 resolution. Its brightness is 220 nits with a contrast ratio of 600. Using an ST7789V driver with an SPI interface and a board to board interconnect. This product offers improved contrast, color saturation and response…

1.44″ 128 × 128 Transmissive Color TFT Display Phoenix Display International PDI144011CPIL is a small-size 1.44” color TFT liquid crystal display (LCD) with a module size of 34.4mm x 30.3mm x 3.4 mm and active area of 25.5mm x 26.5mm.This product is a-Si TFT, Positive, Transmissive glass with a 262K color 128 x 128 resolution. Its brightness is <200 nits with a contrast ratio of 250:1. Using an ILI9163C driver with an 8 bit 8080 system parallel interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): None. All our…

1.54″ Round 320 x RGB x 320 Color TFT LCD Phoenix Display International PDI1540HVBS-01 is a small-size 1.54” color TFT liquid crystal display (LCD) with a module size of 31.82mm x 33.87mm x 1.8mm and active area of 27.744mm x 27.744mm. This product is IPS TFT, negative, Transmissive glass with a 16.7M color 320 x 320 resolution. Its brightness is 280 nits with a contrast ratio of 900. Using an ST7796S driver with an 8 bit 8080 system parallel interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. All our color displays…

1.77″ 128 x 160 Transmissive Color TFT Display Phoenix Display International PDI018AOP-S13 is a small-size 1.77” color TFT liquid crystal display (LCD) with a module size of 34.70mm x 46.70mm x 2.55mm and active area of 28.03mm x 35.04mm.This product is a-Si TFT, Positive, Transmissive glass with a 262K color 126 x160 resolution. Its brightness is 170 nits with a contrast ratio of 250:1. Using an ILI9163C driver with an 8080 MPU 8bit interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): PDI018A0P-SE3 has lower brightness…

1.77″ 128 x 160 Transmissive Color TFT Display Phoenix Display International PDI018QQHG-13 is a small-size 1.77” color TFT liquid crystal display (LCD) with a module size of 34 * 43.78 * 2.45 mm and active area of 28.03 * 34.04 mm. This product is a-Si TFT, Positive, Transmissive glass with a 262K color 126 x 160 resolution. Its brightness is 220 nits with a contrast ratio of 250. Using an TBD driver with a MCU interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): PDI018A0P-S13 has…

1.77″ 128 x 160 Transmissive Color TFT Display Phoenix Display International PDI018AOP-SE3 is a small-size 1.77” color TFT liquid crystal display (LCD) with a module size of 46.70mm x 34.70mm x 2.55mm and active area of 35.04mm x 28.03mm. This product is a-Si TFT, Positive, Transmissive glass with a 262K color 126 x160 resolution. Its brightness is 80 nits with a contrast ratio of 250. Using an ILI9163C driver with a SPI interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): PDI018A0P-S13 has lower brightness (170…

1.9″  170 x (RGB) x 320 Transmissive Color TFT Display Phoenix Display International PDI019QVBS-01 is a small-size 1.9” color TN TFT liquid crystal display (LCD) with a module size of 25.8 * 49.72 * 1.43 mm, and active area 22.7 * 42.72 mm. This product is TN TFT, Positive, Transmissive glass with a 170 * RGB * 320 resolution. Its brightness is 330 nits with a contrast ratio of 600. Using a  ST7789V driver with a MCU interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation…

2.0″ 176 x 220 Transmissive Color TFT Display Phoenix Display International PDI020CY-T01 is a small-size 2.0” color TFT liquid crystal display (LCD) with a module size of 51.3 ×35.1 ×2.5 mm and active area of 39.6 ×31.68 mm. This product is a-Si TFT, Positive, Transmissive glass with a / color 176 x 220 resolution. Its brightness is 180 nits with a contrast ratio of 500. Using an ILI9225 driver with a 8 Bits MCU Parallel interface or 18Bit RGB and a ZIF type flex interconnect. This product offers improved contrast, color saturation and response time.…

2.0″ 240 x 320 Transmissive Color TFT Display Phoenix Display International PDI020QVHS-03  is a small-size 2.0” color TFT liquid crystal display (LCD) with a module size of 35.6 * 48.7 * 2.35 mm and active area of 30.6 * 40.8 mm. This product is IPS TFT, Negative, Transmissive glass with a TBD color 240 * RGB * 320 resolution. Its brightness is 400 nits with a contrast ratio of 800. Using an ST77891V driver with a MCU  interface or 18Bit RGB and a ZIF type flex interconnect. This product offers improved contrast, color saturation and…

2.2″ 240 x 320 Transmissive Color TFT Display Phoenix Display International PDI022042CMHX is a small-size 2.2” color TFT liquid crystal display (LCD) with a module size of 41.70mm x 56.16mm x 2.43 mm and active area of 33.86mm x 45.12 mm. This product is a-Si TFT, Positive, Transmissive glass with a 262K color 240 x 320 resolution. Its brightness is 200 nits with a contrast ratio of 400:1. Using an HX8367A driver with a 4-wires Serial interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): None.…

2.2″ 176 x 220 Transmissive Color TFT Display Phoenix Display International PDI022EY-01S is a small-size 2.2” color TFT liquid crystal display (LCD) with a module size of 40.30 * 55.26 * 2.15 mm and active area of 34.85 * 43.56 mm. This product is a-Si TFT, Negative, Transmissive glass with a 262K color 176 x 220 resolution. Its brightness is 380 nits with a contrast ratio of 400. Using an ILI9225G driver with a 4 wire SPI interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar…

2.36″ 480 x 234 Transmissive Color TFT Display Phoenix Display International PDI236MZQO-01 is a small-size 2.36” color TFT liquid crystal display (LCD) with a module size of 55.20mm x 47.55mm x 2.90mm and active area of 48.00mm x 35.69mm. This product is a-Si TFT, Positive, Transmissive glass with a 262K color 480 x 234 resolution. Its brightness is 100 nits with a contrast ratio of 350:1. Using an OTA5182A driver with a 8 Bit RGB interface and a Zero Insertion Force (ZIF) flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s):…

2.4″  240 x (RGB) x 320 Transmissive Color TFT Display Phoenix Display International PDI024QVHI-23 is a small-size 2.4” color TFT liquid crystal display (LCD) with a module size of 42.72 * 60.26 * 2.21 mm and active area of 36.72 * 48.96 mm. This product is IPS TFT, Negative, Transmissive glass with a 262K color 240 x 320 resolution. Its brightness is 250 nits with a contrast ratio of 600. Using an ILI9341V driver with a MCU interface and a ZIF type flex interconnect. This product offers improved contrast, color saturation and response time. Similar…

2.4″ 240 x (RGB) x 320 Transmissive Color TFT Display Phoenix Display International PDI024QVHI-17 is a small-size 2.4” color TFT liquid crystal display (LCD) with a module size of 42.72 * 60.26 * 2.3 mm and active area of 36.72 * 48.96 mm. This product is IPS TFT, Negative, Transmissive glass with a 262K color 240 x 320 resolution. Its brightness is 400 nits with a contrast ratio of 800. Using an ILI9341V driver with a MCU/SPI/SPI+RGB interface and a ZIF type flex interconnect. This product offers improved contrast, color saturation and response time. Similar…

2.47″ 480 x (RGB) x 480 Transmissive Color TFT Display Phoenix Display International PDI247GMH-50A is a round small-size 2.47” color TFT liquid crystal display (LCD) with a module size of  69.19 * 71.74 * 2.45mm and active area of 62.64 * 62.64 mm. This product is a-Si TFT, Negative, Transmissive glass with a 262K color 480 * RGB * 480 resolution. Its brightness is 350 nits with a contrast ratio of 900. Using an HX8379-C driver with a SPI+RGB interface and a Ziff Style interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): Note. All our…

2.6″ 240×320 Transmissive Color TFT Display Phoenix Display International PDI026036HSST is a small-size 2.6” color TFT liquid crystal display (LCD) with a module size of 46.00mm x 64.00mm x 2.15mm and active area of 43.2mm x 57.6mm. This product is a-Si TFT, Positive, Transmissive glass with a 240 x 320 resolution. Its brightness is 200 nits with a contrast ratio of 300:1. Using an ST7781R driver with a N/A interface and a Hot-Bar flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): None. All our color displays products can be modified to be…

2.8″ 240 x RGB X 320 Transmissive Color TFT Display Phoenix Display International PDI28QV02A is a small-size 2.8” color TFT liquid crystal display (LCD) with a module size of 50.00 * 69.20 * 2.38 mm, and active area 43.20 * 57.60 mm. This product is a-Si TFT, Normally White, Transmissive glass with a 240 * RGB * 320 resolution. Its brightness is 280 nits with a contrast ratio of 800. Using a ILI9341V driver with a MCU interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation…

3.0″  480 x 640 Transmissive Color TFT Display Phoenix Display International PDI030VGGP-02 is a small-size 3.0” color TFT liquid crystal display (LCD) with a module size of 50.6 x 71 x 202 mm, and active area 45 x 60 mm. This product is a-Si TFT, Normally White, Transmissive glass with a 480 * RGB * 640 resolution. Its brightness is 500 nits with a contrast ratio of 800. Using a  TBD driver with a RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation and response…

3.0′′ 240 x 400 Transmissive Color TFT Display Phoenix Display International PDI2404009G(R)-KTCL1-V12 is a small-size 3.0” color TFT liquid crystal display (LCD) with a module size of 45.00mm x77.00mm x3.95mm and active area of 38.88mm x64.80mm.This product is a-Si TFT, Positive, Transmissive glass with a 262K color 240 x 400 resolution. Its brightness is 140 nits with a contrast ratio of 250:1. Using an ILI9327 driver with an 16-Bit Parallel interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): None. All our color displays…

3.2″ 240 x 320 Transmissive Color TFT Display Phoenix Display International PDI314C-02A is a small-size 3.2” color TFT liquid crystal display (LCD) with a module size of 55.04mm x 77.70mm x 2.40mm and active area of 47.87mm x 63.84mm.This product is a-Si TFT, normally white, Transmissive glass with a 65K color 240 x 320 resolution. Its brightness is 200 nits with a contrast ratio of 350:1. Using an ILI9341 driver with an MPU I/F (8/9/16/18), RGB I/F (18 bit) interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response…

3.2″  240 x (RGB) x 320 Transmissive Color TFT Display Phoenix Display International PDI032QVHI-05 is a small-size 3.2” color TFT liquid crystal display (LCD) with a module size of 55.04 x 77.50 x 2.40 mm and active area of 48.6 x 64.8 mm. This product is a-Si TFT, Normally White, Transmissive glass with 240 x RGB x 320 resolution. Its brightness is 300 nits with a contrast ratio of 350. Using an ILI9341V driver with an MPU interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar…

3.5″ 480 x 640 Color TFT Display Phoenix Display International PDIS035GV09ES is a small-size 3.5” color TFT liquid crystal display (LCD) with a module size of 64.00 x 85.00 x 2.9 mm and active area of 53.26 x 71.40 mm. This product is TFT, Positive, Transmissive glass with a 262K color 480 x 640 resolution. Its brightness is 900 nits with a contrast ratio of 400. Using an TBD driver with RGB Stripe interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. All our color displays products can be modified to be…

3.5″ 320 x 240 TFT COLOR LCD Phoenix Display International PDI035QVIH-28B is a small-size 3.5” color TFT liquid crystal display (LCD) with a module size of 76.75 x 63.7 x 3.27 mm and active area of 70.08 x 52.56 mm. This product is a-Si TFT, Positive, Transmissive glass with a 262K color  320  x 240 resolution. Its brightness is 350 nits with a contrast ratio of 300. Using an HX8238-D driver with a RGB interface and a Ziff style interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): None. All our…

3.5″  320 x RGB x 480  Transmissive Color TFT Display Phoenix Display International PDI035HVSI-31 is a small-size 3.5” color TFT liquid crystal display (LCD) with a module size of 54.48 * 84.71 * 2.3 mm, and active area 48.96 * 73.44 mm. This product is a-Si TFT, Normally White, Transmissive glass with a 320 * RGB * 480 resolution. Its brightness is 320 nits with a contrast ratio of 500. Using an ILI9488 driver with a 3SPI+RGS18-bit interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation…

3.5″ 320 x (RGB) x 480 Transmissive Color TFT Display Phoenix Display International PDI035HVHI-48 is a small-size 3.5” color TFT liquid crystal display (LCD) with a module size of 53.76* 84.18 * 2.1 mm, and active area 48.96 * 73.44 mm. This product is a-Si TFT, Normally White, Transmissive glass with a 320 * RGB * 480 resolution. Its brightness is 350 nits with a contrast ratio of 800. Using a ILI9488 driver with a 3SPI+RGB18-bit interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation and…

3.5″ 320 x (RGB) x 800 Bar Type TFT Color LCD Phoenix Display International PDI035WVBS-51 is a small-size bar type 3.5” color TFT liquid crystal display (LCD) with a module size of 40.97 * 94.4 * 2.78 mm, and active area 33.96 * 81 mm. This product is a-Si TFT, Normally White, Transmissive glass with a 340 * RGB * 800 resolution. Its brightness is 330 nits with a contrast ratio of 600. Using a ST7701S driver with a RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast…

3.97″ 480 x 800 Color TFT Display Phoenix Display International PDI040WVHS-16 is a small-size 3.97” color TFT liquid crystal display (LCD) with a module size of 57.14 x 96.85 x 2.10  mm and active area of 54.84 x 86.4 mm. This product is IPS TFT, Positive, Transmissive glass with a 262K color 480 x 800 resolution. Its brightness is TBD nits with a contrast ratio of 800. Using an ST7701S driver with a MIPI interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): None. All…

4.0″ 480 x 480 Color TFT Display Phoenix Display International PDIS040HWV08NN is a  4.0” color TFT liquid crystal display (LCD) with a module size of 77.66 x 78.97 x 2.3 mm and active area of 71.86 x 70.18 mm. This product is TFT, Positive, Transmissive glass with a 262K color 480 x 480 resolution. Its brightness is 350 nits with a contrast ratio of 700. Using an ST7701-G5 driver with an aRGB-24bit interface and a Hot-Bar type flex interconnect. This product offers improved contrast, color saturation and response time. Similar product(s): None. All our color…

4.2″ 720 x (RGB) x 672 Transmissive Color TFT Display Phoenix Display International PDI042WVBN-02C is a small-size 4.2” color TFT liquid crystal display (LCD) with a module size of 81.38 * 71.68 * 1.96 mm, and active area 77.98 * 72.78 mm. This product is IPS TFT, Normally Black, Transmissive glass with a 720 * RGB * 672 resolution. Its brightness is 300 nits with a contrast ratio of 700. Using a NV3052C driver with a RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation…

4.3″ 480 x (RGB) x 272 Transmissive Color TFT Display Phoenix Display International PDI043WQBS-36 is a small-size 4.3” color TFT liquid crystal display (LCD) with a module size of 105.4 x 67.1 x 2.9 mm, and active area 95.04 x 53.86 mm. This product is TFT, Normally White, Transmissive glass with a 480 * RGB * 272 resolution. Its brightness is 500 nits with a contrast ratio of 600. Using a ST7282 driver with a RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation and…

4.3″ 480 x (RGB) x 272 Transmissive Color TFT Display Phoenix Display International PDI043WQBS-36C is a small-size 4.3” color TFT liquid crystal display (LCD) with a module size of 123.04 x 84.46 x 4.63 mm, and active area 95.04 x 53.86 mm. This product is TFT, Normally White, Transmissive glass with a 480 * RGB * 272 resolution. Its brightness is 400 nits with a contrast ratio of 600. Using a ST7282 driver with a RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation and…

4.3″ 480 x 272 Transmissive Color TFT Display Phoenix Display International PDI43015CMHX  is a small-size 4.3” color TFT liquid crystal display (LCD) with a module size of 105.50 x 67.20 x 2.90 mm and active area of 95.04 x 53.86 mm. This product is a-Si TFT, Normally White, Transmissive glass with a 480 x 272 resolution. Its brightness is 500 nits with a contrast ratio of 500. Using an HX8257 driver with an RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast, color saturation and response time. Similar…

4.3″  800 x (RGB) x 480 Transmissive Color TFT Display Phoenix Display International PDI043WVHH-51 is a small-size 4.3” color TFT liquid crystal display (LCD) with a module size of 67.2 * 105.5 * 3 mm, and active area 95.04 * 53.85 mm. This product is IPS TFT, Normally Black, Transmissive glass with a 800 * RGB * 480 resolution. Its brightness is 400 nits with a contrast ratio of 800. Using a  HX8264+HX8664 driver with a 24bit RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color…

4.3″ 480 x (RGB) x 272 Transmissive Color TFT Display Phoenix Display International PDI043WQBS-35 is a small-size 4.3” color TFT liquid crystal display (LCD) with a module size of 105.50 * 67.20 * 2.90 mm, and active area 95.04 * 53.86 mm. This product is a-Si TFT, Normally White, Transmissive glass with a 480 * RGB * 272 resolution. Its brightness is 350 nits with a contrast ratio of 600. Using a ST7282 driver with a RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation…

4.3″ 420 x (RGB) x 800 TFT Color LCD Phoenix Display International PDI043WVBI-57 is a small-size bar type 4.3” color TFT liquid crystal display (LCD) with a module size of 60.9 x 104.5 x 1.9 mm, and active area 56.16 x 93.6 mm. This product is IPS TFT, Normally Black, Transmissive glass with a 480 * RGB * 800 resolution. Its brightness is 250 nits with a contrast ratio of 800. Using a ILI9806E driver with a 3SPI+RGB18-bit interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color…

4.3″ 480x (RGB) x 272  TFT Color LCD Phoenix Display International PDI043WQCH-13C is a small-size bar type 4.3” color TFT liquid crystal display (LCD) with a module size of 123.04 x 84.46 x 4.6 mm, and active area 95.04 x 53.86 mm. This product is a-Si TFT, Normally White, Transmissive glass with a 480 * RGB * 272 resolution. Its brightness is 400 nits with a contrast ratio of 350. Using a SSD1963 driver with a RGB interface and a zero insertion force (ZIF) type flex interconnect. This product offers improved contrast , color saturation and response time. Similar product(s):…

5.0″ 480 x 272 Transmissive Color TFT Display Phoenix Display International PDI500MZNI-01 is a small-size 5.0” color TFT liquid crystal display (LCD) with a module size of 120.7mm x 75.8mm x 4.3mm and active area of 110.88mm x62.83mm.This product is a-Si TFT, Normally White, Transmissive glass with a 16.7M color 480 x 272 resolution. Its brightness is 200 ni