Abstract:
An enhanced wavelength-converting structure is disclosed. The enhanced wavelength-converting structure includes a substrate, a wavelength-converting layer arranged next to the substrate, and a wavelength-selective reflecting layer arranged next to the wavelength-converting layer. The wavelength-converting layer converts the first light into the second light. A part of the second light radiating backward to the light source is further reflected toward the substrate by the wavelength-selective reflecting layer to form the enhanced second light by combining with another part of the second light radiating toward the substrate.
Abstract:
The white LED module includes a packaging housing having a containing chamber, an LED chipset disposed in the containing chamber, and a shared flat wavelength-converting structure disposed on the packaging housing. The LED chipset could illuminate an original light with at least two wavelengths. The original light may be diffused with the shared flat wavelength-converting structure and may be partially converted into a converted light with the shared flat wavelength-converting structure. The converted light and the original light are mixed to form a white light.
Abstract:
A wavelength converting structure is provided. The wavelength converting structure comprises the following:a substrate, anda wavelength converting coating which is deposited on the substrate and comprises:(a) a phosphor powder which can be excited by UVC; and (b) an anti-UVC adhesive, wherein the thickness of the wavelength converting coating is 2 to 10 times the average particle size of the phosphor powder and the amount of the phosphor powder in the wavelength converting coating conforms to at least one of the following requirements:(i) the phosphor powder should be about 30% to 85% by volume of the wavelength converting coating based on the total volume of the phosphor powder and the adhesive; and(ii) the weight ratio of the phosphor powder to the adhesive should range from 1:1 to 20:1.The wavelength converting coating can effectively convert UVC to visible light to provide a visible light source with a high surface area.
Abstract:
An integrated 3D conversion device which utilizes a web-based network includes: a front-end device, for utilizing manual rendering techniques on a first set of data of a video stream received via a user interface of the web-based network to generate depth information, and updating the depth information according to at least a first information received via the user interface; and a server-end device, coupled to the front-end device via the user interface, for receiving the depth information from the front-end device and utilizing the depth information to automatically generate depth information for a second set of data of the video stream, and generating stereo views of the first set of data and the second set of data according to at least a second information received via the user interface.
Abstract:
A heat block for holding an electronic device is disclosed. The heat block comprises a base and at least one discharge device. The discharge device is disposed on the base. The discharge device is electrically conductive and is grounded. When the electronic device is placed on the base, the discharge device is in contact with an electrical contact of the electronic device.
Abstract:
An enhanced wavelength-converting structure is disclosed. The enhanced wavelength-converting structure includes a substrate, a wavelength-converting layer arranged next to the substrate, and a wavelength-selective reflecting layer arranged next to the wavelength-converting layer. The wavelength-converting layer converts the first light into the second light. A part of the second light radiating backward to the light source is further reflected toward the substrate by the wavelength-selective reflecting layer to form the enhanced second light by combining with another part of the second light radiating toward the substrate.