LCD displays, like those found in laptops and flat-screen computers, are examples of technologies that make use of active-matrix. Controlling the picture that is shown on the display is accomplished through the utilization of a lattice of thin film transistors (TFTs) and capacitors. Adjusting the voltage stored in each pixel's capacitors enables the user to fine-tune the level of luminosity produced by each individual pixel. Altering the charge of the individual capacitors that produce red, green, and blue (RGB) light allows the color of each image to be controlled independently.

The "active" character of the capacitors used in the display are referred to as the "active matrix" in the display's name. An active-matrix display has the ability to directly influence each individual pixel, in contrast to a passive-matrix display, which requires charging entire grids of cables in order to change individual pixels. This leads to a substantially quicker reaction time, which means the particles can change condition a great deal more quickly than before. A passive-matrix display is not as capable as an active-matrix monitor when it comes to displaying pictures that are moving quickly or in motion. An active-matrix monitor can. Because of the rapid transitioning that takes place in TFTs, "ghosting" of the pointer, which is prevalent in passive-matrix displays, is eliminated.

Active-matrix technology allows for independent management of each pixel, so active-matrix displays tend to have more consistent luminosity and color throughout the screen compared to passive-matrix displays. Because of the numerous benefits that active-matrix technology provides, the majority of contemporary computer monitors, laptop screens, and LCD televisions make use of active-matrix displays.