lcd panel ips vs va quotation

Whether to pick a VA (Vertical Alignment) panel or IPS (In-Plane Switching) panel depends on your intent. These two panels have two primary differences. VA offers a high contrast ratio with limited viewing angles, while IPS comes with a lower contrast but wider viewing angles.

Both these panels have their highs and letdowns. The most straightforward way to determine your pick is by deciding which attributes are the most important for you.

If your display serves diverse functions like competitive gaming (see this affordable Dell review), office work (see best monitors for trading here), photo and video editing (see the touch screen monitors review), programming, etc., it might be a bit challenging to decide. Fortunately, I will take you through what to expect from them, having tested various VA and IPS panels myself. Also, you can go through our earlier posts on various monitor types such as "best monitor with speakers" post, or "best monitor for CAD" article. Now, dive in!

Key TakeawaysYour purpose will determine whether you choose an IPS (In-Plane Switching) panel or a VA (Vertical Alignment) panel. There are two main distinctions between these two panels

Image quality is a broad topic that encompasses multiple details. I will focus on the colors that IPS and VA panels have, how the two panels contrast light and dark areas, and the viewing angle of the two panels.

I love IPS panels because they have one of the highest color gamut performances, much higher than VA panels. For this reason, IPS panels display a game"s graphics better than VA panels. These screens represent the graphics of your games more realistically and 40 inch 4K monitors are now top of the range.

An IPS gaming monitor provides wide viewing angles that offer sharp pictures even when sitting a bit far from your screen (see our Acer XR382CQK review). As I enjoy multiplayer games with pals, sitting away from the screen while getting a great picture quality is something I consider crucial in winning demanding titles.

What I enjoy more when using VA gaming monitors is the intensity of their contrast ratio. I love how defined the difference between dark and light areas is and how this may aid in the quick identification of situations that may jeopardize your winning chances.

What I least like about IPS displays is that they typically have a lower refresh rate than 75Hz. Being unable to play the most action-packed games with a higher frame rate is a bummer to most enthusiasts.

VA monitors may not offer you a TN panel"s performance as well. And while I may not like the average refresh rates of IPS monitors, VA panels are a bit more restrictive when it comes to supported games.

While low response times are common in IPS panels, most IPS gaming monitors have about four milliseconds. This level is not much of a problem for most games. However, I"m not too fond of it when playing racing and fast shooter games because of ghosting.

A VA panel is slightly slower than an IPS panel. Therefore, you will notice slightly more motion blur when playing your games. Like IPS panels, some options offer you a one-millisecond response time for image sharpness.

If you need a monitor with an amazing contrast ratio, look into VA panels. And with the provision of VA monitors with a slower response time, you can find screens that offer a good gaming experience in most games.

Different Liquid Crystal Display (LCD) panel types have their advantages and disadvantages, and selecting an IPS vs VA TV depends on what use you have in mind. So, which of these panels should you use for movies?

IPS TVs have a better viewing angle than their VA counterpart. Their image accuracy remains fairly high even when I"m watching my movies from the side.

VA panels have better contrast ratios between the two panels. I like their deep blacks when watching movies in the dark. If you geek over late-night shows, go for VA as it provides more definition.

IPS TVs generally have lower contrast. When using them, I tend to see blacks displayed as gray because of IPS glow. However, the difference is hardly noticeable in brightly lit conditions.

Unlike contrast and the viewing angle, the panel type doesn"t exclusively dictate a screen"s black uniformity. Regardless, most of the VA panels I use have better black uniformity between the two panels.

This doesn"t immediately paint VA panel TVs as the winner, and you may find a better-displaying IPS. Besides, you can enhance the screen"s uniformity using the dimming function.

Displays with great color accuracy and extensive coverage of wide color gamuts like DCI-P3 or Adobe sRGB are typically made using IPS panels. You don"t necessarily need to gaze directly at an IPS monitor in order to see realistic colors because IPS displays typically appear beautiful from wider angles as well.

Although color accuracy and coverage on VA displays (even at broad angles) can be outstanding, colors aren"t always consistent. The center of VA monitors frequently has greater gamma than the screen"s edges, reducing the accuracy of colors depending on the viewer"s perspective and the distance from the display.

VA panels have completely adequate color accuracy and coverage for the great majority of users, despite the fact that IPS is typically superior to VA in these areas. A VA monitor that only covers 90% of the DCI-P3 color space is actually a very good amount of coverage for games and content consumers, with the exception of professional picture and video editors.

LCD panels function using liquid crystals which, when charged with electricity, react and change location. Based on the position, the crystals display a particular color.

When IPS displays get charged, their crystals let light through by aligning horizontally. Without current, this vertical alignment (click here for best vertical monitors) efficiently bars light and offers deeper blacks.

PLS (Plane-to-Line Switching) is a type of IPS used on Samsung monitors (check out also Benq monitors) which perform similarly but with round-edged pixels. On the other hand, VA pixels appear like straight rectangles.

IPS panels have an RGB sub-pixel arrangement, whereas numerous VA panels feature a BGR layout. The sub-pixel layout doesn"t outrightly affect image quality, provided it"s not a PC monitor.

Some applications require an RGB arrangement. When I use a BRG VA panel in such cases, I see some slight blurriness on the text. However, adjusting my text scaling eases readability. Overall, RGB layouts don"t have this issue as much as BRG.

The majority of IPS panels offer viewing angles up to 178 degrees horizontally and vertically. Accordingly, if you"re viewing content off-center, you won"t notice much color shifting or a noticeable decrease in picture quality until you get to the very edges of the viewing angles.

Even though VA panels have improved significantly over the years in terms of viewing angles, they still fall short of IPS panels in some respects. When viewing content off-center, VA panels are often a little weaker in terms of color/contrast shifts. This is probably less of an issue for gamers, who are more likely to be seated directly in front of the monitor and not move around the monitor"s ideal viewing angle.

You"ll notice that manufacturers are trying out multiple techniques to enhance VA viewing angles while achieving a high contrast. Although this goal is a work in progress, several TVs are now available that try to encompass both these crucial attributes.

The first sets to feature a broad viewing angle got announced in 2018. Several pricey models also came out with this technology in 2020, for instance, the Sony X950H and the Samsung Q90/Q90T QLED (see our Quantum Dot vs IPS post).

While I love their recognizable improvement in viewing angles over pure VA TVs, they are still yet to achieve the level of performance you get with a pure IPS panel.

As they solve one problem, the upgraded VA panels present you with another issue. Options like the Sony X950H have noticeably lower contrast ratios than typical VA panels.

Nevertheless, I appreciate their native contrast still being higher than regular IPS panels. With their dimming feature, I still can get a deep black convenient for night movies.

Neither panel technology is inherently better because they have different functions. IPS displays are suitable for watching big games or a show across a wide sitting arrangement.

Selecting between the two panels means you"ll give up particular features. Depending on your movie needs, I believe you can decide which panel suits you.

You probably now know the most suitable panel to get, given the different specifications. As in most instances, the higher your budget (see the best budget picks), the better the panel. Here is a simple guide on the ideal panel depending on your usage:

Editing footage and pictures:IPS monitors are more favorable given their better color reproduction. Some VA panels offer wide color ranges, though they typically have motion blur

Contrary to what you may think, not all LCD TVs are built around the same core panel technology. They can actually have at their hearts one of two really quite different technologies: VA or IPS.

Each, as we’ll see, has its own distinct advantages and disadvantages – so much so that we personally think the type of panel a particular TV uses should be presented right at the top of its specifications list, rather than typically left off altogether. Especially as some brands have been known to actually mix and match VA and IPS panels at different screen sizes within the same TV series.

The VA initialism stands for Vertical Alignment. This name is derived from the way VA panels apply voltage to vertically aligned liquid crystals that have been mounted perpendicularly to the panel’s glass substrate, making them tilt as required to let the necessary amount of light through for each image frame.

The main advantage of VA panels is contrast. Their perpendicular crystal alignment provides greater control over the light passing through each pixel, meaning dark scenes and dark areas look less grey / enjoy better black levels.

The extent to which this strength is exploited can vary greatly between different manufacturers, and depends on any number of secondary factors. The type and position of LED lighting a particular VA screen might be using can have an impact, for instance. There are multiple variations on the VA theme available from different manufacturers, too. As a basic principle, though, black levels and contrast are consistently and often considerably better on LCD TVs that use VA panels.

Because of their ability to control light better, high-end VA panels generally deliver more brightness in real world conditions than IPS ones do. This further enhances their contrast capabilities, and arguably makes them more consistently able to do fuller justice to the wider light range associated with high dynamic range technology.

Being able to deliver dark scenes with relatively little overlying low-contrast greyness additionally means that VA panels tend to achieve more consistent colour vibrancy and toning.

VA panels for use in LCD TVs come from a number of panel manufacturers, including Samsung Display (which makes a so-called SVA variant) and AU Optronics (which makes an AMVA variant). TV brands are able to buy in panels from these and other VA panel manufacturers as they see fit.

Samsung Electronics is the most consistent user of VA panels in its LCD TVs. In fact, until recently pretty much every Samsung TV at every price level used a VA panel. For the past couple of years, though, IPS panels have unexpectedly cropped up in one or two parts of Samsung’s TV range, including 2021’s high-end QN85 series.

Sony predominantly uses VA panels on its most premium TVs, but it also habitually mixes IPS and VA panels across its wider mid-range and entry level LCD ranges. The same goes for most of the other big brands, too, including Panasonic and Philips.

IPS stands for In-Plane Switching. Like VA panels, IPS panels work by manipulating voltage to adjust how liquid crystals are aligned. Unlike VA, though, IPS panels orient their crystals in parallel with (rather than perpendicular too) the glass substrates present in every LCD panel, and rotate their crystals around to let the desired amount of light through rather than tilting them.

By far the biggest and most talked about advantage of IPS technology is its support for wider viewing angles. In fact, one way of identifying IPS panels has traditionally been to look for quoted viewing angles of 178 degrees.

When we talk about wide viewing angle support in relation to LCD TVs, we’re talking about how much of an angle from directly opposite the screen you can go before the picture starts to lose contrast, colour saturation and, sometimes, brightness.

With VA panels the angle you can watch them before the picture starts to deteriorate sharply can be really quite limited – as little as 20 degrees off axis. While we’d say the 178-degree claims for regular IPS panels are rather exaggerated, you can typically sit at a significantly wider angle than you can with VA and still enjoy a watchable picture.

We’ve even seen occasional evidence of the edges of really big (75-inch plus) VA screens suffering from the technology’s viewing angle limitations when viewed straight on, whereas this never happens with IPS technology.

The VA/IPS viewing angle situation is muddied a little by the introduction into a few high-end VA TVs of wide angle technologies based around filters or sub pixel manipulation. These technologies can be associated with other problems, though, such as reduced resolution, and can still struggle to suppress backlight blooming around stand-out bright objects with LCD TVs that use local dimming backlight systems.

Traditionally IPS panels have been associated with – on high-end screens, at least – wider colour gamuts than VA panels can readily manage. They retain this colour gamut better, too, when viewing the screen from an angle. This is why many professional designers, for instance, have tended to prefer IPS technology to VA. There can be some pretty extreme variance in the range of colour supported across different IPS price points, though, and improvements in premium VA solutions – especially the widespread use of Quantum Dot technologies – have largely evened things up, at least at the premium end of the VA market. In fact, with dark scenes, at least, IPS’s issues with black levels and ‘grey wash’ effect can give good VA panels a colour advantage.

There was a time when IPS technology was considered to have an edge over VA when it comes to response time, leading to less motion blur and improved gaming reaction times. These days, though, we’re seeing pretty much identically low input lag measurements (between 9.4 and 10.4ms) from both VA and IPS TVs.

As with VA, there are different variations on the basic IPS theme made by different panel manufacturers. LG Display is by far the biggest manufacturer of IPS LCD panels for TVs, but AU Optronics also makes them, as well as, more surprisingly, Samsung – though some of the non-LG Display IPS products seem to be more focused on PC monitors than TVs.

Given how dominant LG Display is in manufacturing IPS LCD panels, it’s not surprising to find that pretty much every LCD TV LG Electronics makes features an IPS panel at its heart. Other TV brands that use IPS panels on at least a few of their TVs each year include Panasonic, Philips, Sony and Hisense. In fact, the only big brand that has tended to shun IPS is Samsung (perhaps because of arch rival LG Display’s dominance of the IPS market).

As noted earlier, it can be frustratingly difficult to determine whether a TV is using VA or IPS technology. Sometimes it is mentioned in the specifications list on a manufacturer’s website – but more often it is not.

If you’re able to actually get your hands on an LCD TV, try knocking gently on its screen. If it’s an IPS panel it will feel solid and the picture will only be slightly affected – or completely unaffected – by the impact of your knocks. If it’s a VA panel, the picture will distort quite noticeably around points of impact.

It’s tempting to assume that any TVs with obviously low contrast are IPS while any screen with a narrow viewing angle is VA. As well as depending on having a wide experience of lots of panels, though, there’s just too much variation in the high and low-end fringes of each technology for this approach to be reliable.

Arguably your best bet is to check out a TV model you’re interested in on an industry website called Displayspecifications.com(opens in new tab), which includes usually reliable information on the core panel of pretty much every TV released.

You might want to consider IPS TV if your room layout means one or more viewers regularly find themselves having to watch the screen from a wide angle (though don’t forget that a small number of high-end VA TVs feature wide viewing angle technology). IPS’s black level limitations tend to be less obvious in bright rooms too, if that fits with the sort of environment your TV is likely to be used in for the majority of the time.

Our long experience of testing VA and IPS TVs, though, has led us to conclude that in general, the sort of person most likely to be turning to us for buying advice will be happier with an LCD TV based on VA technology.

VA’s ability to deliver typically much deeper, more convincing black levels and more HDR-friendly contrast helps them deliver a much more consistent and immersive modern AV experience. Especially if you’re the sort of person who likes to dim the lights for serious movie or TV viewing nights.

There’s an almost overwhelming amount of options in the display market: OLED, MicroLED, and TN panel types just to name a few. But if you’re looking for a gaming monitor or simply don’t want to drain your bank account on a display, IPS and VA are generally the best choices. In-plane switching (or IPS) is an LCD-based technology that is used in just about every kind of display, whereas Vertical Alignment (or VA) is a more niche LCD technology used in gaming monitors, gaming TVs, and wide displays.

Although IPS is much more popular than VA and is often seen as the more premium option, both panel types have strengths and weaknesses that you should consider before you buy.

IPS panels have traditionally been used for making displays that have high color accuracy and large coverage of wide color gamuts like DCI-P3 or Adobe sRGB. Not only do IPS displays usually look good, but they also look good from wider angles, so you don’t need to look exactly head on at an IPS monitor to get accurate colors.

Color accuracy and coverage can be good on VA displays (even at wide angles), but colors across VA displays aren’t always uniform. Depending on the viewing angle and the distance between the viewer and the display, the center of VA monitors often have more gamma than the edges of the screen, making colors less accurate.

Although IPS is generally better than VA when it comes to color accuracy and coverage, VA panels have perfectly fine color accuracy and coverage for the vast majority of users. Only professional photo and video editors could really be disappointed with a VA monitor that only covers 90% of the DCI-P3 color space, which is actually a very good amount of coverage for gamers and content consumers.

Contrast ratio is a metric that measures how dark the color black is depicted on a display, measured as a ratio of x:1. The higher x is, the better. Although IPS is very good with color accuracy in general, it really struggles with making the color black, and even the best IPS monitors and TVs can only show a very dark grey rather than true black. Most IPS monitors are rated at a 1000:1 contrast ratio, which isn’t terrible but isn’t great either. Some monitors can get up to around 2000:1 however.

Despite VA’s general color accuracy issues, it’s actually amazing at depicting black as truly black. Even the worst VA displays can easily muster a 2000:1 contrast ratio, and some can even achieve higher than 5000:1. In fact, VA is second only to OLED when it comes to contrast ratio, and OLED actually delivers perfect contrast ratios of ∞:1. Because of this, a VA display can look better than an IPS counterpart in darker scenes.

Some displays can boost contrast ratio by using local dimming and HDR. By using a more complex backlight with multiple LEDs that can be turned on or off, local dimming helps IPS and VA displays look even darker when it matters. On the other end of the spectrum, HDR boosts brightness for colors that need it. With these two factors combined, some displays can boost the contrast ratio significantly. However, these features aren’t going to make an IPS display’s contrast ratio as good as the average VA display’s, and poorly implemented local dimming can backfire by creating more visual problems than it solves.

Response time is the amount of time it takes to fully refresh the display and show a new image. This is an area where both IPS and VA struggle, but nowadays very good IPS displays have overcome traditional issues with response times, and VA displays have not shown the same amount of progress. There is no standard that display manufacturers adhere to when it comes to measuring response time, but according to BenQ, which makes both IPS and VA monitors and TVs, IPS has a response time of 1-2ms whereas VA can only achieve 4-5ms. The specific values here aren’t important because this is a best-case scenario. What’s really important is that VA is much slower.

Very high response times can result in very animated scenes looking blurry and smeared. This issue is called ghosting, and it’s particularly annoying for discerning gamers playing fast-paced games like Counter-Strike: Global Offensive. Both IPS and VA displays have solutions and workarounds to avoid ghosting, the most important being overdrive. Overdrive that’s too aggressive can cause reverse ghosting, which is when the display tries to change a pixel’s color so quickly that it accidentally overshoots and ends up with the wrong color for a few frames. Ghosting and reverse ghosting both cause smearing, so if overdrive is too weak or too strong, the end result is similar: It looks bad.

Although the best IPS panels beat the best VA panels when it comes to response time, there are plenty of IPS displays that have very bad response times. It’s also worth noting that response time only needs to be equal to the refresh rate of the monitor for there to be no smearing. On a 60Hz display, for instance, it takes 16.66ms to show a new image, so a response time of 1ms doesn’t really do much. Response time matters much more at higher refresh rates, and even at 144Hz a response time of around 7ms is sufficient to avoid ghosting.

IPS is capable of significantly higher refresh rates than VA. IPS is capable of hitting 500Hz while VA caps out at 240Hz. However, the vast majority of VA displays are only capable of 144Hz or 165Hz; there are only a few VA monitors that can do 240Hz. For those wanting extremely high refresh rates, IPS is the clear winner.

Even if VA was capable of 360Hz however, it probably wouldn’t be very good because of its weakness in response times. A 360Hz display refreshes every 2.7ms, which is well below what VA is generally capable of.

While IPS displays are usually a safe recommendation for most people, sometimes there are very good reasons to buy VA monitors and TVs. VA has found its home in midrange gaming monitors, gaming TVs, and ultrawide displays, and many of the best gaming monitors use VA. If you’re shopping outside of these categories, however, you probably won’t have to worry about choosing between IPS and VA because VA is not very often used elsewhere.

If you do have the choice between VA and IPS, you’re going to have to evaluate what you prefer in a display, and you should definitely read some monitor reviews just to make sure if VA or IPS is going to deliver what you want in your next display purchase. After all, even an IPS display can have bad color accuracy or bad response time, so don’t assume IPS means quality and that VA means budget.

Again, IPS is the clear winner here. The vertical viewing angles are very similar to the horizontal ones on both IPS and VA panels. Unfortunately, this is one area where TN panels are usually much, much worse. TN monitors degrade rapidly from below, and colors actually inverse - resulting in a negative image that can be distracting. For this reason, if you decide to buy a TN monitor, look for one with an excellent height adjustment, or consider buying a VESA mounting arm, as you should mount TN monitors at eye level. Even when mounted properly, larger TN displays can appear non-uniform at the edges.

There"s usually not much difference between VA and IPS panels in terms of gray uniformity. It"s rare for monitors to have uniformity issues, and even on monitors that perform worse than average, it"s usually not noticeable with regular content. TN monitors tend to perform a bit worse than usual, though, and the top half of the screen is almost always darker than the rest, but that"s an artifact of the bad vertical viewing angles.

Black uniformity tends to vary significantly, even between individual units of the same model, and there"s no single panel type that performs the best. It"s rare for monitors to have good black uniformity, and almost every monitor we"ve tested has some noticeable cloudiness or backlight bleed. IPS and TN panels can look slightly worse due to their low contrast ratios, as the screen can take on more of a bluish tint when displaying dark scenes. Like with contrast, black uniformity issues usually aren"t very noticeable unless you"re looking at dark content and you"re in a dark room. If you only use your monitor in a bright environment, generally speaking, you don"t need to worry about black uniformity.

Historically, TN panels used to have the worst colors, as many of them were cheaper models that only supported 6-bit colors or used techniques like dithering (FRC) to approximate 8-bit colors. Most displays today, including TN models, are at least 8 bit, and many of them are even able to approximate 10-bit colors through dithering. New technologies, like LG"s Nano IPS and Samsung"s Quantum Dot, add an extra layer to the LCD stack and have significantly improved the color gamut of modern IPS and VA displays, leaving TN a bit behind. Between them, NANO IPS is slightly better, as it tends to offer better coverage of the Adobe RGB color space. Although the difference is minor, IPS panels still have a slight edge over VA and TN displays.

Although TN panels have caught up a bit in the SDR color space, they"re far behind when it comes to HDR, so if you"re looking for a good HDR color gamut, avoid TN panels. Between VA and IPS panels, the difference isn"t as significant; however, IPS panels still have a slight edge. The best VA panels top out at around 90% coverage of the DCI P3 color space used by most current HDR content. IPS panels go as high as 98% coverage of DCI P3, rivaling even some of the best TVs on the market. Due to the very high coverage of DCI P3 on both VA and IPS, the difference isn"t that noticeable, though, as most content won"t use the entire color space anyway.

Although not necessarily as noticeable to everyone as the differences in picture quality, there can also be a difference in motion handling between IPS, VA, and TN displays. TN panels historically offered the best gaming performance, as they had the highest refresh rates and extremely fast response times. Manufacturers have found ways to drastically improve the motion handling of VA and IPS panels, though, and the difference isn"t as pronounced.

LCD panel technology has changed drastically over the last few years, and the historical expectations for response time performance don"t necessarily hold anymore. For years, TN monitors had the fastest response times by far, but that"s started to change. New high refresh-rate IPS monitors can be just as fast.

VA panels are a bit of a strange situation. They typically have slightly slower response times overall compared to similar TN or IPS models. It"s especially noticeable in near-black scenes, where they tend to be significantly slower, resulting in dark trails behind fast-moving objects in dark scenes, commonly known as black smear. Some recent VA panels, such as the Samsung Odyssey G7 LC32G75T, get around it by overdriving the pixels. It results in much better dark scene performance but a more noticeable overshoot in brighter areas.

Within each of the three types of LCD we mentioned, other related panel types use the same basic idea but with slight differences. For example, two popular variants of IPS panels include ADS (technically known as ADSDS, or Advanced Super Dimension Switch) and PLS (Plane to Line Switching). It can be hard to tell these panels apart simply based on the subpixel structure, so we"ll usually group them all as IPS, and in the text, we"ll usually refer to them as IPS-like or IPS family. There are slight differences in colors, viewing angles, and contrast, but generally speaking, they"re all very similar.

There"s another display technology that"s growing in popularity: OLED. OLED, or organic light-emitting diode, is very different from the conventional LCD technology we"ve explored above. OLED panels are electro-emissive, which means each pixel emits its own light when it receives an electric signal, eliminating the need for a backlight. Since OLED panels can turn off individual pixels, they have deep, inky blacks with no blooming around bright objects. They also have excellent wide viewing angles, a near-instantaneous response time, and excellent gray uniformity.

OLED panels aren"t perfect, though. There"s a risk of permanent burn-in, especially when there are lots of static elements on screen, like the UI elements of a PC. There aren"t many OLED monitors available, either, but they"ve started to gain popularity as laptop screens and for high-end monitors, but they"re very expensive and hard to find. They"re also not very bright in some cases, especially when large bright areas are visible on screen. The technology is still maturing, and advances in OLED technology, like Samsung"s highly-anticipated QD-OLED technology, are promising.

As you can probably tell by now, no one panel type works best for everyone; it all depends on your exact usage. Although there used to be some significant differences between panel types, as technology has improved, these differences aren"t as noticeable. The two exceptions to this are viewing angles and contrast. If you"re in a dark room, a VA panel that can display deep blacks is probably the best choice. If you"re not in a dark room, you should focus on the other features of the monitor and choose based on the features that appeal to your exact usage. IPS panels are generally preferred for office use, and TN typically offers the best gaming experience, but recent advancements in VA and IPS technology are starting to change those generalizations. For the most part, the differences between each panel type are so minor now that it doesn"t need to be directly factored into your buying decision.

In general, IPS, PLS, and VA panels will maintain outstanding image quality and low color degradation no matter where in the room you’re viewing from. A huge boon.

Remember the hype surrounding the final season of Game of Thrones? Now, do you remember the battle with the White Walkers? More specifically, howdark the episode was? If you couldn’t see very well, chances are you weren’t using a VA panel.

VA panels are known to deliver the deepest blacks and richest all-around tones, thanks to their high contrast ratios. This is also why they’re commonly found in television sets. That said, IPS panels come in close behind with contrast ratios of roughly 1000:1.

TN panels also feature the highest refresh rates, which is how many times per second a display can re-render a scene (critical for reaching maximum FPS).

High response times and refresh rates are a huge boon for gaming, where split second decisions can make or break a game. As such, TN panels are the optimal choice for PC gamers looking to maximize their competitive advantage.

Given their inexpensive manufacturing costs, TN panels are the most affordable type on our list. In price-ascending order, they’re followed by VA panels, PLS panels, and IPS panels.

Do note, however, that different display models offer different features. High-end TN panels can easily cost more than an entry-level IPS. It depends on the specifications, manufacturer, and various other factors.

Choosing the best panel type ultimately comes down to personal needs and preference. That said, we hope these guidelines help. Your perfect display is out there.

Whether you’re seeking a VA vs IPS vs TN monitor, we’ve assembled this list of the web’s most frequently asked questions to offer an easy solution to all your display inquiries.

Because OLED TVs are newer and generally more expensive, the average buyer is looking at LED/LCD TVs right now. And although there are several features and specifications to consider while shopping—the brand name, HDR compatibility, and refresh rate, just to name a few—there’s one important hardware spec that isn’t widely advertised: LCD panel type.

LED/LCD TVs are so called because of the two things that make up their displays: an LED (Light Emitting Diode) backlight and an LCD (Liquid Crystal Display) panel for that backlight to shine through. LED backlights vary between a variety of implementations, but modern LCDs generally come in one of two panel technologies: IPS (In-Plane Switching) and VA (Vertical Alignment).

Unlike other hardware specifications (which are usually listed on the side of a TV box or on the manufacturer’s website), information about a TV’s LCD panel type is a bit more inside baseball. But panel type has a far greater impact on a TV’s performance than you might expect—it affects contrast, color, and viewing angle as well.

Individual pixels in an LCD display are made up of liquid crystals activated by voltage. How the display arranges its crystals is part of what sets IPS panels apart from VA panels.

IPS (In-Plane Switching) panels are a common display type for both the best computer monitors and TVs. Without getting too far down the rabbit hole, let’s talk a little about how IPS panels distinguish themselves from other types.

Every non-OLED TV on the market today is an LCD TV powered by LED lighting. Individual pixels in an LCD display are made up of liquid crystals activated by voltage—this is what produces color. An IPS panel aligns its crystals horizontally, parallel to the glass substrate.

IPS technology was developed in part to improve the color and wide viewing angle performance of a display. There"s also a range of variations under the IPS umbrella, including ADS, S-IPS, H-IPS, e-IPS, P-IPS, and PLS (Plane-to-Line Switching). But, while they all differ marginally from one another in operation, their core functionality (as compared to VA panels) is the same.

VA (Vertical Alignment) panels represent another common display type, used for both computer monitors and TVs, but especially for the latter where they greatly outnumber their IPS counterparts. Most LED/LCD TVs you"ll find on the market use a VA panel. While IPS panels align their liquid crystals horizontally, VA panels align them—you guessed it—vertically. They run perpendicular to the glass substrate rather than parallel to it. When met with voltage, the crystals tilt, letting light through and producing color.

This positioning changes how the liquid crystals behave. Without any voltage, the liquid crystals in a VA panel do not tilt, which is a better outcome if your goal is to block light and create image depth. Like with IPS, VA panels also come in a few varieties: PVA, S-PVA, and MVA, though again, their core functionality (as compared to IPS panels) is the same.

TN (Twisted Nematic) is an older LCD display type. They"re still relatively common display types for computer monitors—thanks to their lightning fast response times and excellent handling of motion blur. TN panels aren"t typically used in TV production anymore, though.

The cornerstone of picture quality, contrast ratio refers to the range between a display’s darkest black levels and brightest highlights. Because VA-style panels excel at producing deep, dark black levels, this is arguably their biggest strength. VA panels almost always feature deeper black levels than their IPS counterparts, and this goes a long way in creating a detail-rich picture. An IPS panel can mitigate this by serving up an exceptionally bright image to offset relatively shallow black levels.

A TV’s total viewing angle describes how much a viewer can move away from an ideal, head-on viewing position before the contrast and color of the picture begins to deteriorate. Due to the positioning of their liquid crystals, IPS panels excel in this department; they typically offer significantly more viewing flexibility than TVs with VA-style panels. In other words, IPS panels are more reliable for group viewings (or any situation where a viewer might need to sit at an off-angle).

While impressive color production is possible on both display types, IPS panels tend to offer wider colors, given the nature of their hardware. While a wider range of colors tends to spell better color accuracy, the advent of additional TV technologies like quantum-dot color have evened the playing field considerably. In other words, you’re far more likely to notice the benefits of an IPS TV’s wider viewing angle than you are to notice its tendency for wider color.

Here’s the final takeaway: IPS panels are significantly better than VA panels when it comes to viewing angle and somewhat better than VA panels when it comes to color. VA panels, however, almost always offer deeper black levels and better overall contrast. And because they block light better, TVs and monitors using VA panels tend to have better backlight uniformity regardless of LED backlight type.

Unfortunately, not only is it rare to find a TV’s panel type listed on a manufacturer’s website, but it’s increasingly rare for a brand to reveal a TV’s panel type at all—even when we contact brands directly for information. The reason for this caginess has everything to do with marketing; it’s better to keep shoppers focused on the bells, whistles, and impressive performance specs of a TV rather than its potential shortcomings.

To add to the confusion, it’s common for different sizes of the same TV series to mix and match display types; you might find that the 55-inch version of a TV features a VA-style display while the 75-inch model uses IPS.

Fortunately, it’s relatively easy to determine panel type if you have the proper equipment and you know what to look for. Certain test results and viewing characteristics act as tell-tale signs. This is why my colleagues and I make a point of discussing panel type in just about every TV review we publish, and why you should make a point of reading reviews before making a purchase.

Panel type is not the end-all-be-all for LED/LCD TVs. Many other factors, most of them related to the style and intensity of the LED backlight, can have a major impact on factors like contrast, viewing angle, and color intensity. Ultimately, you need to see a TV in person (and ideally in the space it’s going to live in) to get the best idea of how well it creates an image. But by knowing the core differences of IPS vs VA LCD panels, you can at least make some good guesses before you buy.

Unlike the best gaming monitors, IPS and VA TV panels are on an even playing field. TVs with both technologies are capable of high refresh rates of 120Hz, or occasionally 240Hz (although it usually comes at a premium).

If you focus on single-player gaming, or your multiplayer gaming happens online, the excellent contrast of VA is the way to go. The most gaming benefits you’ll see will come from extra features like Variable Refresh Rate (VRR), Auto Low Latency Mode (ALLM), or cloud game capabilities.

If you’re buying a large screen and intend to host movie nights with friends and family, a TV with an IPS-style panel is far more accommodating thanks to its superior viewing angle. Just be aware that certain content—particularly dark content—won’t pop as much on account of the panel’s shallower black levels.

On the other hand, if you want the best possible picture overall, we recommend investing in a TV with a VA-style panel. They’re not always ideal candidates for group viewings, but the vast majority of the best non-OLED TVs you can buy feature this display type.

Your gaming monitor is one of the most important parts of your PC, and a big part of that is down to the type of panel it uses to display all those lovely polygons. You"ve probably seen lots of different monitor panel types crop up in a gaming screen"s specs sheet, too: words like TN, IPS and VA. But what do they actually mean, and how do they affect the quality of your gaming monitor? Well, as you"ve probably guessed from the title up top there, I"m going to tell you everything you need to know about all the different gaming monitor panel types, including their strengths, weaknesses and which one you should look to buy if you want the best possible image quality.

Now, I"m going to warn you - most of what you"ll read below is all going to be pretty general. Not all panel types behave the same way, for example, and there will always be some that outperform the rest. That"s why it"s still important to read proper reviews of gaming monitors so you can get an accurate picture of how a monitor"s panel type stacks up against the rest.

I"m also not going to spend ages talking about the exact chemical structure of every single type of sub-pixel, because, well, there are plenty of other people who have done that already. If you"re after that kind of detail, I"d suggest heading over to the folks at TFT Central. Instead, I"m going to be concentrating on what you actually need to know about gaming monitor panel types, such as how their various characteristics affect their performance, and how you can avoid falling into monitor misery by making sure you know exactly what specs sheets are talking about when they start throwing a million acronyms at you. So let"s get to it.

Let"s start with one of the most common monitor panel types available today: TN, or Twisted Nematic. TN panels are what you"ll find in most gaming monitors these days, especially ones with high refresh rates and those geared toward competitive esports and the like.

The good: That"s because they"re a) generally quite cheap to make and b) have the fastest response times out of all the different panel types. This means there"s less lag between you clicking your mouse or tapping your keyboard and that action being translated onscreen, making them ideal for twitchy shooters and games that need fast reaction times.

The bad: Alas, the disadvantage of picking a TN panel is that they generally don"t have the best colour accuracy and they also have quite narrow viewing angles. The former isn"t the case for every TN screen - those certified by Nvidia for use in their G-Sync gaming monitors, for instance, have to meet rigorous colour accuracy standards - but I"ve seen plenty of non-G-Sync screens that barely cover 85% of the standard sRGB colour gamut, which means washed out colours and generally not very rich and vibrant images.

IPS monitors, on the other hand, are all about colour accuracy. Largely made by LG, there have actually been lots of different types of IPS panel that have emerged over the years as varying manufacturers tried their hand at matching the quality of LG"s panels, leading to dozens of different variations and combinations of acronyms. These days, though, most manufacturers (especially gaming ones) just tend to say they"re IPS as opposed a specific variant.

Unless, that is, it"s an AHVA, or Advanced Hyper-Viewing Angle, panel. Despite sounding like a VA panel (our third main panel type, which you"ll find more on below), AHVA is actually another type of IPS panel produced by AU Optronics and offers pretty much identical performance to a classic LG IPS panel.

The good: As I just mentioned, IPS panels generally have pretty great colour accuracy (I normally expect an sRGB coverage score of around 96% here) and wide viewing angles, making them better suited to colour intensive work and tasks like photo and video editing. This is true across all types of IPS panel, and their superior viewing angles (often quoted as 178 / 178 degrees) means you don"t get that nasty colour or contrast shift when you"re looking at the screen from a funny angle.

The bad: Unfortunately, their response times are often slower than TN panels, although these have become a lot better in recent years. Personally, I"ve never had any problems with latency when playing games on this type of screen, and for me, image quality is a lot more important than a couple of millisecond"s difference in overall response time.

They can also be more expensive to produce than TN panels, which, combined with their slower response times, is another reason why you don"t tend to see them a lot in displays designed primarily for gaming.

Finally, there"s the VA, or Vertical Alignment panel. Much like IPS, there are dozens of different types of VA panel, but the main ones we need to concern ourselves with are MVA (multi-domain vertical alignment) and AMVA (advanced MVA).

MVA panels were first designed to sit in the middle of TN and IPS displays, offering better viewing angles than TN screens and higher contrast ratios and deeper blacks than IPS. However, their colour accuracy isn"t quite as good as IPS, and they don"t have very fast response times, either.

AMVA, on the other hand (not to be confused with the IPS-like AHVA panel tech described above) builds on that even further, improving the panel"s colour accuracy while still maintaining those ultra high contrast ratios and deep blacks. Its viewing angles still aren"t quite as wide as IPS displays, though, and its response times are still a bit slower as well. However, through the use of features like a monitor"s Overdrive function, VA response times are now much faster than they used to be, making them a much more common occurrence in gaming screens, especially when it comes to curved or ultrawide displays.

The good: As a result, VA monitors can sort of be viewed as the ultimate compromise screen. The key advantages are their best in class black levels and their superior contrast ratios, and compared to TN panels, they also have better viewing angles and higher colour accuracy.

The bad: However, while VA might rectify some of the weaknesses you"ll find in TN screens, they"re still not as colour accurate as IPS panels, and their narrower viewing angles also can"t compete with their IPS rivals, either. Their main weakness, however, is their slow response time, which is generally said to be the slowest of the three main panel types. As I said, steps have been taken to try and mitigate this when it comes to putting a VA panel inside a gaming monitor, but if your gaming library consists solely of competitive shooters and the like, then you"re probably better off looking elsewhere.

In order to understand this problem, we first need to know the panel type of LCD. At present, the LCD panels are mainly divided into three categories, which are TN, VA and IPS.

TN panel, full name Twisted Nematic (twist nematic), because the production cost is relatively low, so it is the first popular panel in LCD. The advantage of TN panel is that the response time of GTG panel is very fast, and the gray scale response time of GTG is often up to 1ms, which is the lowest among all LCD panels, so many e-sports / game monitors use TN panel.

However, the shortcomings of the TN panel are also obvious, such as less output gray scale, white color, small visual angle and so on. 1080p is the most common resolution in the TN panel, and there are also some 27-inch QHD panels, and the latest panel can do 28-inch UHD. At present, the main manufacturers of TN panels are Samsung display (Samsung Display), LG, Youda Optoelectronics, Qunchuang Optoelectronics, China Picture Tube and so on.

Let"s talk about the VA panel. VA panel full name Vertical Alignment (vertical arrangement), its advantage lies in the contrast, VA panel is the highest contrast of all LCD panels, usually can reach 3000 VA 1, while the contrast of TN, IPS is only about 1000 VA 1, the intuitive feeling of high contrast is that black looks purer and the picture is more layered.

The gray scale response time of VA panel is faster than that of IPS, and some of them even reach the same 1ms as TN, while the visual angle of TN is much better than that of TN, which is consistent with the visual angle of IPS panel, and there is no light leakage problem of VA panel.

Finally, let"s talk about the IPS panel. IPS full name In-Plane Switching (plane conversion), its advantage is that the color performance is relatively good, and the visual angle is also relatively wide, horizontal and vertical visual angle can reach 178°, but the contrast is not as good as VA panel, and the problem of light leakage is also more prominent.

From the above carding, it is not difficult to see that each panel has its own advantages, but also some inherent shortcomings. For example, TN panel is better than fast response time, but the color and visual angle is not good; VA panel contrast is high, but there are still some differences in response time and color; IPS color is good, but there are long response time and light leakage problems.

So which panel to choose depends on the specific requirements, you can"t simply think that IPS must be better than VA, or VA must be better than TN. For example, heavy players of FPS games who value response time can choose the display of TN panel, designers who value visual angle and have certain requirements for color can choose the display of IPS panel, and friends who like to watch some high-contrast and more powerful pictures can choose the display of VA panel.

Although IPS, VA and TN displays all use LED technology (a form of LCD or Liquid Crystal Display), the picture quality and response times can vary; TN monitors do not reproduce colour as effectively as IPS and VA types, for example.

At LG, we have a range of IPS and VA panels available, so it’s worth getting to grips with the differences between these two types when you’re looking for a new monitor.

IPS (or in-plane switching) monitors offer brilliant image quality and colour reproduction. You’ll find selected IPS monitors in our website that support 98% sRGB and come with HDR10 technology,

Additionally, you’ll find that the image quality isn’t compromised at different angles with an IPS monitor, which means they’re suitable for shared viewing. This is what sets them apart from TN panels, which may not offer the same kind of flexibility. Generally speaking, users have to look at TN monitors straight on for true colour accuracy.

VA (which stands for vertical alignment) displays use vertically aligned crystals that are backlit. Whilst you’ll find IPS technology in a wide range of displays, you’ll only really find VA technology in monitors and TVs.

Like IPS panels, VA monitors provide clear images, but they’re especially good – arguably the best – at displaying contrasts. We have VA panels with high contrast ratios of 3000:1 and 2500:1, which reproduce dark colours brilliantly. Some of our VA monitors also come with a Black Stabiliser Mode, to offer even better visibility when viewing dark scenes in films and games.

When looking at our monitors, you’ll notice that the selected range of our LG Monitors come with a range of innovative technologies. Below are some of the most notable features you’ll find in selected models

Nano IPS with ATW, as well as OLED with Anti-glare and Low Reflection, bring the UltraGear™ monitors to the next level of image quality, enabling the gamers to enjoy the life-like gameplay.

One of the most important aspects of any display you can understand is the panel technology being used. Specifications alone won’t give you the full picture of a displays performance, and we all know that manufacturers can exaggerate specs on paper to suit their marketing. With an understanding of the panel technology being used you will get a feel for the overall performance characteristics of the display and how it should perform in real terms. Our extensive panel search database helps you identify the panel technology (and manufacturer and part number where known) of many screens in the market. This article which follows will help you understand what the different panel technologies can offer you. A lot of manufacturers now list the panel technology as well in their specs, something which wasn’t included a in the past.

TN Film panels are the mostly widely used in the desktop display market and have been for many years since LCD monitors became mainstream. Smaller sized screens (15″, 17″ and 19″) are almost exclusively limited to this technology in fact and it has also extended into larger screen sizes over the last 7 years or so, now being a popular choice in the 20 – 28″ bracket as well. The TN Film panels are made by many different manufacturers, with the big names all having a share in the market (Samsung, LG.Display, AU Optronics) and being backed up by the other companies including most notably Innolux and Chunghwa Picture Tubes (CPT). You may see different generations of TN Film being discussed, but over the years the performance characteristics have remained similar overall.

TN Film has always been so widely used because it is comparatively cheap to produce panels based on this technology. As such, manufacturers have been able to keep costs of their displays down by using these panels. This is also the primary reason for the technology to be introduced into the larger screen sizes, where the production costs allow manufacturers to drive down retail costs for their screens and compete for new end-users.

The other main reason for using TN Film is that it is fundamentally a responsive technology in terms of pixel latency, something which has always been a key consideration for LCD buyers. It has long been the choice for gaming screens and response times have long been, and still are today, the lowest out of all the technologies overall. Response times typically reach a limit of around 5ms at the ISO quoted black > white > black transition, and as low as 1ms across grey to grey transitions where Response Time Compensation (overdrive) is used. TN Film has also been incorporated into true 120Hz+ refresh rate desktop displays, pairing low response times with high refresh rates for even better moving picture and gaming experiences, improved frame rates and adding 3D stereoscopic content support. Modern 120Hz+ refresh rate screens normally also support NVIDIA 3D Vision 2 and their LightBoost system which brings about another advantage for gaming. You can use the LightBoost strobed backlight system in 2D gaming to greatly reduce the perceived motion blur which is a significant benefit. Some screens even include a native blur reduction mode instead of having to rely on LightBoost ‘hacks’, providing better support for strobing backlights and improving gaming experiences when it comes to perceived motion blur. As a result, TN Film is still the choice for gamer screens because of the low response times and 120Hz+ refresh rate support.

The main problem with TN Film technology is that viewing angles are pretty restrictive, especially vertically, and this is evident by a characteristic severe darkening of the image if you look at the screen from below. Contrast and colour tone shifts can be evident with even a slight movement off-centre, and this is perhaps the main drawback in modern TN Film panels. Some TN Film panels are better than others and there have been improvements over the years to some degree, but they are still far more restrictive with fields of view than other panel technologies. The commonly quoted 170/160 viewing angles are an unfair indication of the actual real-life performance really, especially when you consider the vertical contrast shifts. Where viewing angles are quoted by a manufacturer as 160/160 or 170/160 that is a clear sign that the panel technology will be TN Film incidentally.

Movie playback is often hampered by ‘noise’ and artifacts, especially where overdrive is used. Black depth was traditionally quite poor on TN Film matrices due to the crystal alignment, however, in recent years, black depth has improved somewhat and is generally very good on modern screens, often surpassing IPS based screens and able to commonly reach contrast ratios of ~1000:1. TN Film is normally only a true 6-bit colour panel technology, but is able to offer a 16.7 million colour depth thanks to dithering and Frame Rate Control methods (6-bit + FRC). Some true 8-bit panels have become available in recent years (2014 onwards) but given the decent implementation of FRC on other 6-bit+FRC panels, the real-life difference is not something to concern yourself with too much.

Most TN Film panels are produced with a 1920 x 1080 resolution, although some larger sizes have become available with higher resolutions. A new generation of Quad HD 2560 x 1440 27″ TN Film panels emerged in 2014. We’ve also seen the introduction of 28″ Ultra HD 3840 x 2160 resolution TN Film panels become available, and adopted in many of the lower cost “4k” models in the market. Where used, the Anti-Glare (AG) coating used on most TN Film panels is moderately grainy – not as grainy as some older IPS panel coatings, but not as light as modern IPS, VA or equivalents. Also at the time of writing there are no ultra-wide (21:9 aspect ratio) or curved format TN Film panels in production.

VA technology was first developed by Fujitsu in 1996. However the limited viewing angles were its main disadvantage, and so further investment focused on addressing this problem. It was eventually solved by dividing each pixel into domains which worked synchronously. This lead the birth of the following technologies:

MVA technology, was later developed by Fujitsu in 1998 as a compromise between TN Film and IPS technologies. On the one hand, MVA provided a full response time of 25 milliseconds (that was impossible at the time with IPS, and not easily achievable with TN), and on the other hand, MVA matrices had wide viewing angles of 160 – 170 degrees, and thus could better compete with IPS in that parameter. The viewing angles were also good in the vertical field (an area where TN panels suffer a great deal) as well as the horizontal field. MVA technology also provided high contrast ratios and good black depth, which IPS and TN Film couldn’t quite meet at the time.

In MVA panels, the crystals in the domains are oriented differently, so if one domain lets light pass through, the neighboring domain will have the crystals at an angle and will shutter the light (of course, save for the display of white color, in which case all the crystals are placed almost in parallel to the matrix plane).

As MVA developed over the years the problem became that the response times were not as good as TN film panels and was very difficult to improve. Sadly, the response time grows dramatically when there’s a smaller difference between the pixel’s initial and final states (i.e. the more common grey to grey transitions). Thus, such matrices were unsuitable for dynamic games. With the introduction of RTC and overdrive technologies, the manufacturers launched a new breed of MVA discussed in the following sections.

Premium MVA (P-MVA) panels were produced by AU Optronics, and Super MVA (S-MVA) panels by Chi Mei Optoelectronics (now Innolux) and Fujitsu from 1998 onwards. AU Optronics have since entered a more recent generation referred to as AMVA (see the next section) and S-MVA panels are rarely used in mainstream monitors nowadays. When they were launched they were able to offer improved response times across grey to grey (G2G) transitions which is a great improvement in the MVA market. While responsiveness was still not as fast as TN Film panels using similar RTC technologies, the improvement was obvious and quite drastic. This was really the first time that MVA matrices could be considered for gaming, and arrived at the time when overdrive was being more widely implemented in the market.

While some improvements have been made, the color-reproduction properties of these modern MVA technologies can still be problematic in some situations. Such panels give you vivid and bright colors, but due to the peculiarities of the domain technology many subtle color tones (dark tones often) are lost when you are looking at the screen strictly perpendicularly. When you deflect your line of sight just a little, the colors are all there again. This is a characteristic “VA panel contrast shift” (sometimes referred to as ‘black crush’ due to the loss of detail in dark colours) and some users pick up on this and might find it distracting. Thus, MVA matrices are somewhere between IPS and TN technologies as concerns color rendering and viewing angles. On the one hand, they are better than TN matrices in this respect, but on the other hand the above-described shortcoming prevents them from challenging IPS matrices, especially for colour critical work.

Traditionally MVA panels offered 8-Bit colour depth (a true 16.7 million colours) which is still common place today. We have yet to see any new breed of 10-bit capable MVA panel even using Frame Rate Control (8-bit + FRC). Black depth is a strong point of these P-MVA /S-MVA panels, being able to produce good static contrast ratios as a result of around 1000 – 1200:1 in practice. Certainly surpassing IPS matrices of the time as well as most TN Film panels. This has improved since with more recent AMVA panels to 3000 – 5000:1 (see next section).

MVA panels also offer some comparatively good movie playback with noise and artifacts quite low compared with other technologies. The application of overdrive doesn’t help in this area, but MVA panels are pretty much the only ones which ha