Abstract:
An imaging device provides efficient heat transfer by orienting components of the imaging device such that heat is transferred out of the imaging device instead of within the imaging device assembly. Heat is transferred out of the imaging device assembly through a printed circuit board to which the assembly housing is mounted thereon and/or through the housing itself.
Abstract:
An image sensor includes a photo sensing element for receiving infrared (IR) radiation and detecting the IR radiation and generating an electrical signal indicative of the IR radiation. A redistribution layer (RDL) is disposed under the photo sensing element, the RDL comprising pattern of conductors for receiving the electrical signal. An IR reflection layer, an IR absorption layer or an isolation layer is disposed between the photosensing element and the RDL. The IR reflection layer, IR absorption layer or isolation layer provides a barrier to IR radiation such that the IR radiation does not impinge upon the RDL. As a result, a ghost image of the RDL is not generated, resulting in reduced noise and improved sensitivity and performance of the image sensor.
Abstract:
A curved-surface image-sensor assembly has a porous carrier having a concave surface with a thinned image sensor bonded by an adhesive to its concave surface of the porous carrier; the porous carrier is mounted into a water-resistant package. The sensor assembly is made by fabricating a thinned, flexible, image-sensor integrated circuit (IC) and applying adhesive to a non-illuminated side of the IC; positioning the IC over a concave surface of a porous carrier; applying vacuum through the porous carrier to suck the IC onto the concave surface of the porous carrier; and curing the adhesive to bond the IC to the concave surface of the porous carrier.
Abstract:
A chip comprises a semiconductor substrate having a first side and a second side opposite to the first side, a plurality of conductive metal patterns formed on the first side of the semiconductor substrate, a plurality of solder balls formed on the first side of the semiconductor substrate, and at least one code pattern formed using laser marking on the first side of the semiconductor substrate in a space free from the plurality of conductive metal patterns and the plurality of solder balls, wherein the at least one code pattern is visible from a backside of the chip, the at least one code pattern represents a binary number having four bits; and the binary number represents a decimal number to represent a tracing number of the chip.
Abstract:
A diffractive optical element (DOE) comprises a first part comprising a first transparent non-conductive base and a first transparent conductive layer disposed on the first transparent non-conductive base and a second part comprising a second transparent non-conductive base and a second transparent conductive layer disposed on the second transparent non-conductive base. The first transparent conductive layer and the second transparent conductive layer have periodical patterns of thickness for diffracting light. Spacers separate the first part and the second part. The first part and the second part are positioned such that the first transparent conductive layer is facing the second transparent conductive layer. A first end of the first transparent conductive layer is electrically connected to a first terminal of a capacitance monitor, and a second end of the second transparent conductive layer is electrically connected to a second terminal of the capacitance monitor. The capacitance monitor constantly monitors the capacitance across the first transparent conductive layer and the second transparent conductive layer during an operation comprising diffracting a laser beam.
Abstract:
An image sensor package includes a transparent substrate with a recess formed in the transparent substrate, and an image sensor positioned in the recess so that light incident on the transparent substrate passes through the transparent substrate to the image sensor. The image sensor package also includes a circuit board electrically disposed in the recess and coupled to receive image data from the image sensor, and the image sensor is positioned in the recess between the circuit board and the transparent substrate.
Abstract:
A novel endoscope includes a camera module, an electrical cable, and an electrical connector. The camera module includes an analog image signal output terminal. The cable includes an analog image signal line having a first end connected to the analog image signal output terminal of the camera module. The electrical connector includes a set of electrical contacts configured to engage a complimentary set of electrical contacts of a host system. The set of electrical contacts includes at least an analog image signal contact connected to a second end of the analog image signal line of the cable.
Abstract:
An image sensor package, comprising a silicon substrate; an image sensor pixel array that is formed on the silicon substrate; a peripheral circuit region that is formed around the image sensor pixel array on the silicon substrate; a redistribution layer (RDL) that is electrically coupled to the peripheral circuit region; at least one solder ball that is electrically coupled to the RDL; and a cover glass that is coupled to the RDL. No part of the RDL is located directly above or below the image sensor pixel array. No part of the at least one solder ball is located directly above or below the silicon substrate. A dark material layer is implemented to prevent an edge flare effect of the image sensor pixel array.
Abstract:
A novel multi-display projection box includes a housing that is short and wide, a set of display panels, a set of projectors, and a controller. In a particular embodiment the set of display panels includes two display panels, each coupled to opposite sides of the housing. The set of projectors includes two projectors placed adjacent opposite side walls of the housing. One of the projectors projects a first image onto one of the display panels and the other projector projects a second image onto the other display panel. The first and second image can include product information corresponding to goods placed atop the projection box in a retail store.
Abstract:
In an embodiment, a slim imager is disclosed. The slim imager includes a substrate including an aperture, an image sensor, and an optics unit. The image sensor is on a bottom side of the substrate, spans the aperture, and has an aperture-facing top surface. The optics unit is on a top side of the substrate, spans the aperture, and includes a transmissive optical element having an aperture-facing bottom surface. A volume partially bound by the aperture-facing top surface and the aperture-facing bottom surface has a refractive index less than 1.01 at visible wavelengths.