Low Power Micro-LED Displays

(Summary) A display panel that uses micro-LEDs and integrated driver circuitry to reduce power consumption compared to conventional display technologies like LCD and OLED. The display panel has an array of micro-LED pixels, each containing a micro-LED and an integrated driver circuit. This allows each pixel to control its own LED brightness and color directly without additional driver circuitry. The integrated driver circuitry reduces power consumption by eliminating the need for separate driver components for each pixel. The micro-LED pixels can be densely packed to achieve high-resolution displays with improved brightness and energy efficiency.

(Summary) Micro-LED display technology with reduced power consumption. The display uses a segmented micro-LED chip, separating each segment and electrically connecting in series. When driven, this increases the voltage across the chip, reducing power consumption versus a single-segment chip. It solves micro-LED displays' high power consumption and low drive efficiency problems.

(Summary) Micro-LED display backplane with a simplified manufacturing process and reduced power consumption compared to existing designs. The backplane has a bonding layer to connect to the micro-LEDs. The bonding layer has a conductive protection layer on top of the bonding metal layer, both formed in a single mask step. The protection layer prevents shorts between the metal and the LEDs. The backplane also has other layers like TFTs and traces.

(Summary) Micro LED display with improved color accuracy, power consumption, and gamma correction. The display has individually controllable subpixels in each pixel. Each subpixel can have independent duty cycle and emission time. This allows optimizing power and color without affecting gamma. The display drives each subpixel independently to adjust brightness and duration for better color mixing and overall efficiency.

(Summary) Monolithic microdisplays with LEDs and TFTs on the same wafer for applications like AR/VR headsets. The displays use micro-LEDs and TFTs to achieve high pixel density, brightness, contrast, and power efficiency. The LEDs emit light, and the TFTs control the LED pixels. By integrating the LEDs and TFTs on the same wafer, monolithic microdisplays can be made with high pixel density and performance in a compact size.

(Summary) Micro-LED display manufacturing technique using monolithic growth and transfer to reduce cost and power consumption. The technique involves growing pairs of nanowire LEDs on a wafer and transferring them to form pixels on the display backplane, eliminating the need for individual LED transfers. For example, growing blue and green nanowire LEDs are transferred as a pair for one pixel. Other pairs, like green and red, are also grown and transferred.

(Summary) A low power consumption high brightness display with integrated LED micro-display. The display is made by fabricating an array of red, green, and blue LEDs directly on a substrate, with each LED emitting a primary color. The LEDs are arranged in a matrix to form a high-resolution display. The LEDs are driven by an electronic backplane layer underneath. A color converter layer on top of the LEDs absorbs the primary colors and emits the desired secondary colors.

(Summary) Micro-LED display technology has reduced power consumption and manufacturing complexity compared to conventional micro-LED displays. The improvement is achieved by growing different-colored micro-LEDs monolithically on a single wafer and transferring them together to form a pixel. This eliminates the need for separate growth and transfer steps for each color micro-LED. For example, a blue and green micro-LED can be grown together and transferred as a unit. The monolithic growth of micro-LEDs of different colors on a single substrate enables simplified manufacturing without losing color performance.

(Summary) Fabricating integrated multi-color LED display panels using techniques that enable high-resolution displays with low power consumption. The method involves stacking multiple layers of micro-LEDs on top of each other, with each layer bonded and patterned to form micro-LED arrays. This allows the integration of pixel driver circuitry with the micro-LEDs. The stacking enables dense pixel packing with one micro-LED layer per color.

(Summary) A low power consumption high brightness display with an integrated LED micro-display that provides efficient light generation and color conversion. The display features an array of red, green, and blue LEDs with color conversion layers to create a full-color display. The LEDs are directly integrated into a substrate with electronic driving circuitry. This eliminates the need for external light sources and components, reducing power consumption compared to displays using separate LEDs and pattern generators. The integrated design also allows precise matching of LED emission wavelengths for optimal color quality.