In an embodiment a method for producing an array of light emitting elements includes providing a growth substrate, applying a mask having a plurality of apertures to the growth substrate, growing structures into the apertures and processing at least some of the structures into light emitting elements, wherein adjacent apertures are arranged at a first distance to each other, wherein adjacent light emitting elements are arranged at a second distance to each other, wherein the second distance is greater than the first distance, wherein at least some of the structures are reduced in an area and the reduced structures are processed into light emitting elements, and wherein the structures are reduced in area by material removal.

In an embodiment a method for producing an array of light emitting elements includes providing a growth substrate, applying a mask having a plurality of apertures to the growth substrate, growing structures into the apertures and processing at least some of the structures into light emitting elements, wherein adjacent apertures are arranged at a first distance to each other, wherein adjacent light emitting elements are arranged at a second distance to each other, wherein the second distance is greater than the first distance, wherein at least some of the structures are reduced in an area and the reduced structures are processed into light emitting elements, and wherein the structures are reduced in area by material removal.

This specification discloses light emitting structures with light emitting devices, where the structures include a protective layer that blocks certain wavelengths of light from degrading particularly vulnerable elements of the light emitting structures. The protective layer may be a transparent UV blocking layer that prevents a substantial amount of UV light from reaching an adhesive layer that would otherwise yellow or degrade under UV exposure. The transparent UV blocking layer may be completely or largely transparent to visible light, so that a user of the light emitting structure can clearly view the visible light emitted or incident on the light emitting structures.

This LED panel comprising: a base substrate including circuit wiring; a plurality of light-emitting diodes disposed to form an array on the base substrate; a side optical layer located laterally to the plurality of light-emitting diodes and including a diffusing agent; and a plurality of upper optical layers respectively located on top of the plurality of light-emitting diodes and including a diffusing agent can provide uniform light in all directions through uniform light distribution by reducing color difference for different viewing angles that occurs due to the structure of a semiconductor light-emitting diode.

A light-emitting module includes: a substrate; plurality of light sources disposed on the substrate, the plurality of light sources including a red light source, a green light source, a blue light source, and an infrared light source; at least one light-receiving element disposed on the substrate; and a lens disposed facing the plurality of light sources and the at least one light-receiving element. The red light source includes: a first light-emitting element configured to emit blue light, and a first phosphor configured to convert a wavelength of at least part of the blue light emitted from the first light-emitting element to emit red light. The at least one light-receiving element is configured to output biological photodetection information obtained by receiving light that has been emitted from at least one of the plurality of light sources and reflected or scattered by a biological body.

A light-emitting module includes: a substrate; plurality of light sources disposed on the substrate, the plurality of light sources including a red light source, a green light source, a blue light source, and an infrared light source; at least one light-receiving element disposed on the substrate; and a lens disposed facing the plurality of light sources and the at least one light-receiving element. The red light source includes: a first light-emitting element configured to emit blue light, and a first phosphor configured to convert a wavelength of at least part of the blue light emitted from the first light-emitting element to emit red light. The at least one light-receiving element is configured to output biological photodetection information obtained by receiving light that has been emitted from at least one of the plurality of light sources and reflected or scattered by a biological body.

Provided are a display panel and a display device. The display panel includes a first display region and a second display region, where the second display region surrounds at least part of the first display region. The display panel includes a light-emitting layer and an optical filter layer, where the light-emitting layer includes multiple light-emitting units, the optical filter layer includes multiple optical filter structures, and the multiple light-emitting units are arranged corresponding to the multiple optical filter structures. The multiple optical filter structures include a first optical filter structure located in the first display region and a second optical filter structure located in the second display region, where the first optical filter structure includes a first color resist unit, and the second optical filter structure includes a second color resist unit.

The present application provides a display panel and a display device. The display panel includes pixel regions and light-transmitting regions, and the light-transmitting regions are located between adjacent pixel regions; the light-transmitting regions each include an adjustment sub-region; and the transmittance of a light adjustment layer in the adjustment sub-region to light of a preset color is greater than the transmittance of the light adjustment layer in regions in the light-transmitting region other than the adjustment sub-region to the light of the preset color. In this way, by increasing the transmittance to the light of the preset color in the adjustment sub-region in the light-transmitting region, the color of the light being transmitted through a screen may be closer to the preset color, which can meet the requirements for color of the display panel in application scenarios.

The present application provides a display panel and a display device. The display panel includes pixel regions and light-transmitting regions, and the light-transmitting regions are located between adjacent pixel regions; the light-transmitting regions each include an adjustment sub-region; and the transmittance of a light adjustment layer in the adjustment sub-region to light of a preset color is greater than the transmittance of the light adjustment layer in regions in the light-transmitting region other than the adjustment sub-region to the light of the preset color. In this way, by increasing the transmittance to the light of the preset color in the adjustment sub-region in the light-transmitting region, the color of the light being transmitted through a screen may be closer to the preset color, which can meet the requirements for color of the display panel in application scenarios.

A display device includes a bank including an opening defining pixels, light emitting elements disposed in the pixels, a color conversion layer disposed on the light emitting elements in the opening, a capping layer overlapping the color conversion layer, and a color filter layer disposed on the capping layer. The color filter layer includes a low refractive material.