Two monitors with identical resolution, refresh rate, and size can look completely different. The panel technology underneath explains most of it, and each type makes a different trade — there is no option that wins on everything.
Knowing which compromise you are accepting is more useful than any single number on a specification sheet.
What changed in 2026
- OLED reached mainstream desktop pricing. What was a premium option became attainable, which made the burn-in question relevant to far more buyers.
- Burn-in mitigation improved. Pixel shifting, logo dimming, and panel refresh cycles reduced the risk meaningfully without eliminating it.
- IPS contrast improved. Backlight zone control narrowed the historic contrast gap against VA, at higher price points.
- Response time marketing stayed unreliable. Quoted figures continued to describe best-case transitions rather than typical behaviour.
The three types
|
IPS |
VA |
OLED |
| Contrast |
Modest |
High |
Effectively infinite |
| Black level |
Greyish in the dark |
Good |
True black |
| Colour accuracy |
Excellent |
Good |
Excellent |
| Viewing angles |
Excellent |
Narrower |
Excellent |
| Response time |
Fast |
Slower, especially dark transitions |
Fastest |
| Burn-in risk |
None |
None |
Present |
| Brightness |
Good |
Good |
Lower sustained full-screen |
| Typical use |
General, creative work |
Media, dark rooms |
Gaming, video, premium |
IPS is the reliable default. Accurate colour, wide viewing angles, good response times. The weakness is contrast — in a dark room, blacks look dark grey and there may be visible backlight glow at the edges. For most desk work in a lit room, this matters little.
VA inverts the trade. Substantially better contrast and deeper blacks, at the cost of narrower viewing angles — colour shifts as you move off-centre, noticeable on a large or curved display — and slower transitions between dark shades, which produces smearing in dark scenes. Excellent for film in a dim room, less ideal for fast content.
OLED produces black by turning pixels off entirely, so contrast is effectively unlimited and response times are the fastest available. The tradeoffs are real: sustained full-screen brightness is lower than a good LED panel, and static elements displayed for very long periods can leave permanent traces.
The burn-in question
Worth being precise, because it is neither the crisis nor the non-issue it gets described as.
Burn-in comes from uneven pixel wear — elements displayed constantly in the same position age differently from the rest. On a desktop that means taskbars, docks, persistent UI panels, and static logos.
Modern panels mitigate this: pixels shift imperceptibly, static bright elements dim automatically, and compensation cycles run when idle. These help substantially and do not make the mechanism disappear.
The practical read: for mixed use — varied windows, video, games — with sensible settings, risk is low. For displaying the same static interface at high brightness for eight hours a day for years, risk is real. Someone with a fixed trading layout or a permanently visible dashboard is in the second category.
Sensible mitigations cost nothing: hide the taskbar, use a short screen blank timeout, avoid maximum brightness, and vary what is on screen. Check the warranty too — some cover burn-in for a period, which tells you something about the manufacturer's own assessment.
Reading the specifications sceptically
Response time figures are the least trustworthy number published. They typically describe the fastest transition under ideal conditions, not typical behaviour, and different manufacturers measure differently. Independent review measurements are far more informative than the box.
Contrast ratio is meaningful for comparing within a type and misleading across types, particularly where "dynamic" contrast figures are quoted, which measure something you will never experience.
Brightness is usually a peak figure over a small area. Sustained full-screen brightness is lower, sometimes considerably, and that is what you actually see.
Colour gamut coverage matters for colour work and is largely irrelevant otherwise. A high percentage is worth paying for only if you need it.
Implementation quality varies more within a panel type than between types. A well-implemented VA panel beats a poorly-implemented IPS on most measures. Panel type narrows the shortlist; reviews of specific models decide it.
Common mistakes
- Choosing on panel type alone. Implementation quality dominates.
- Trusting quoted response times. Best case, measured inconsistently.
- Buying VA for a bright multi-person room. Viewing angle shift is the weakness.
- Buying IPS for a dark home cinema setup. Grey blacks are most visible there.
- Ignoring burn-in risk with a static workflow. The one case where it genuinely applies.
- Comparing peak brightness figures. Sustained is what you see.
- Overpaying for gamut coverage you will not use. Only matters for colour-critical work.
FAQ
Which is best for gaming?
OLED for response time and contrast if the budget allows and your usage is varied. IPS is the safe, cheaper choice with no burn-in concern. VA is workable and the slower dark transitions can produce visible smearing in dark scenes — see VRR explained for the refresh side.
Which for photo or video editing?
IPS or OLED, for colour accuracy and viewing angles. Check measured colour accuracy for the specific model rather than the panel type, and budget for calibration.
Is a curved screen better?
For a very wide display it reduces the viewing-angle penalty at the edges, which particularly helps VA panels. On a normal-width monitor it is largely preference.
How long do OLED monitors last?
Panels degrade gradually rather than failing, and manufacturers rate them for many years of typical use. The variable is your usage pattern, not the calendar.
Where to go next
For the brightness and contrast standard that depends on these panel characteristics, read HDR explained. For refresh rate and smoothness, VRR explained, and for the desk setup around the display, desk ergonomics.