Perceptible on lower refresh rates (60 fps and below)[27]
Depends; in 2013 most LCDs used PWM (strobing) to dim the backlight[28] However, since then many flicker free LCD computer monitors were introduced.[29]
Does not normally occur due to a high refresh rate higher than FPS[30]
Does not normally occur at 100% brightness level. At levels below 100% flicker often occurs with frequencies between 60 and 255 Hz, since often pulse-width modulation is used to dim OLED screens.[31][32]
Varies with brightness but usually higher than LCD[36][37][38][39]
Varies based on image brightness and color. For the majority of images it will consume 60–80% of the power of an LCD.
OLED displays use 40% of the power of an LCD displaying an image that is primarily black as they lack the need for a backlight,[40] while OLED can use more than three times as much power to display a mostly white image compared to an LCD.[41]
Environmental influences
Sensitive to ambient magnetic fields, which can adversely affect convergence and color purity.
Prone to malfunctions on both low (below −20 °C, −4 °F) or high (above 45 °C, 113 °F) temperatures[42]
High altitude pressure difference may cause poor function or buzzing noises[43]
Can have poor brightness, especially when most of the picture is white[10]
Hazardous to repair or service due to high-voltage, requires skilled convergence calibration and adjustments for geographic location changes.[51] Glass display tube is evacuated and carries risk of implosion if improperly handled.
May be risky and expensive to repair due to complexity of the display;[52] units with mercury CCFL backlight lamps are an environmental health hazard[53]
Screen itself cannot be repaired if the gas used to generate images leaks[54]
Display itself cannot be repaired if it cracks and oxygen enters it due to failure of OLED encapsulation, which results in display failure.
Other
No native resolution. Currently, the only display technology capable of multi-syncing (displaying different resolutions and refresh rates without the need for scaling).[55]Display lag is extremely low due to its nature, which does not have the ability to store image data before output, unlike LCDs, plasma displays and OLED displays.[56] Extremely bulky and heavy construction in comparison to other display technologies. Large displays would be unsuitable for wall mounting. New models are no longer produced.
The LCD grid can mask effects of spatial and grayscale quantization, creating the illusion of higher image quality.[57] Is the cheapest display technology currently produced, with some entry-level models selling for less than $100.
Screen-door effects are more noticeable than LCD when up close, or on larger sizes.[58] New models are no longer produced.
Colored sub-pixels may age at different rates, leading to a color shift, although some models will scan pixels to even out wear and prevent this shift.[59] Sensitive to UV light from direct sunlight. Is considered the highest quality but also the most expensive display technology currently produced, with TVs, laptops and monitors rarely being available for less than $1200.
^"GEEK OUT: The Non-Technical Technical Guide to Sony OLED Monitors". ProVideo Coalition. 7 March 2012. Retrieved 2021-12-11."Sony claims an OLED contrast range of 1,000,000:1. When I asked how the contrast could be so high I was told that the surface is SO black the contrast is almost infinite. If the number representing the dark end of the contrast scale is nearly zero then dividing that number into the brightest value results in a very, very high contrast ratio." Pixels can reset to black nearly instantaneously, so black levels remain consistently as black as they can be.
^"LCD Monitors, TVs: Electronics – Microcenter", Scroll down and look at the bar on the left to see the number of monitors they offer that have certain specifications. Retrieved April 2013
^Pino, Nick; Porter, Jon; TV, Henry St Leger 2018-09-25T22:00:00Z. "OLED TV: what you need to know". TechRadar. Retrieved 2019-02-21.{{cite web}}: CS1 maint: numeric names: authors list (link)
^M. d'Zmura, T. P. Janice Shen, Wei Wu, Homer Chen, and Marius Vassiliou (1998), "Contrast Gain Control for Color Image Quality," IS&T/SPIE Conference on Human Vision and Electronic Imaging III, San Jose, California, January 1998, SPIE Vol. 3299, 194–201.