Abstract:
An image sensing device includes an interconnect layer and a number of grid array contacts arranged on a bottom side of the interconnect layer. An image sensor integrated circuit (IC) is carried by the interconnect layer and has an image sensing surface. A number of electrical connections are coupled between the image sensor IC and an upper side of the interconnect layer. A transparent plate overlies the image sensing surface of the image sensor IC. A cap is carried by the interconnect layer and has an opening overlying transparent plate and the image sensing surface. The cap has an upper wall spaced above the interconnect layer and the image sensor IC to define an internal cavity and the cap defines an air vent coupled to the internal cavity.
Abstract:
A vacuum integrated electronic device has an anode region of conductive material; an insulating region on top of the anode region; a cavity extending through the insulating region and having a sidewall; and a cathode region. The cathode region has a tip portion extending peripherally within the cavity, adjacent to the sidewall of the cavity. The cathode region is formed by tilted deposition, carried out at an angle of 30-60° with respect to a perpendicular to the surface of device.
Abstract:
A phase change non-volatile memory device has a memory array with a plurality of memory cells arranged in rows and columns, a column decoder and a row decoder designed to select columns, and, respectively, rows of the memory array during operations of programming of corresponding memory cells. A control logic, coupled to the column decoder and the row decoder, is designed to execute a sequential programming command, to control the column decoder and row decoder to select one column of the memory array and execute sequential programming operations on a desired block of memory cells belonging to contiguous selected rows of the selected column.
Abstract:
The embodiments of the present disclosure provide a proximity sensor, an electronic apparatus and a method for manufacturing a proximity sensor. The proximity sensor comprises a sensor chip, a light-emitting device, a transparent molding material and a non-transparent molding material, wherein the sensor chip comprises a sensor region; the light-emitting device is located on the sensor chip and is electrically coupled to the sensor chip; the transparent molding material at least covers a light-emitting surface of the light-emitting device; and the non-transparent molding material isolates the transparent molding material from the sensor region.
Abstract:
A proximity sensor includes a semiconductor die, a light emitting assembly, a redistribution layer, and an encapsulating layer. A surface of the semiconductor die includes a sensor area and contact pads. A lens is positioned over the sensor area of the semiconductor die. The light emitting assembly includes a light emitting device having a light emitting area, a lens positioned over the light emitting area, and contact pads that face the redistribution layer. A side of the redistribution layer includes contact pads. Electrical connectors place each of the contact pads of the semiconductor die in electrical communication with a respective one of the contact pads of the redistribution layer. The encapsulating layer is positioned on the redistribution layer and at least partially encapsulates the semiconductor die, the lens over the sensor area of the semiconductor die, and the light emitting assembly.
Abstract:
Embodiments of the present disclosure provide a semiconductor device, a semiconductor package, and a method for manufacturing a semiconductor device. The semiconductor device comprises: a semiconductor die; an electrical isolation layer formed on a surface of the semiconductor die; a substrate; and a non-conductive adhesive layer disposed between the electrical isolation layer and the substrate, so as to adhere the electrical isolation layer to the substrate.
Abstract:
A flexible smart glove detects fine hand and finger motions while permitting the wearer to make hand gestures with dexterity. The flexible smart glove has a thickness of less than about 100 μm and incorporates capacitive micro-sensors positioned at finger joint locations. The micro-sensors are thin film devices built on substrates made of a pliable material such as polyimide. Interdigitated serpentine capacitors monitor strain in the back of the hand, while parallel plate capacitors monitor contact pressure on the palm. Thus the smart glove responds electrically to various types of hand motions. Thin film resistors responsive to changes in body temperature are also formed on the flexible substrate. Motion and temperature data is transmitted from the glove to a microprocessor via a passive RFID tag or an active wireless transmitter. An ASIC is embedded in the smart glove to relay real time sensor data to a remote processor.
Abstract:
An image sensor device includes a base having a rectangular shape and comprising first contacts and a reference voltage contact extending along a first side thereof, a housing carried by the base, and an image sensor integrated circuit (IC) carried by the base within the housing and having an image sensing surface. A focus cell is within the housing, aligned with the image sensing surface, and includes second contacts. An electromagnetic compatibility (EMC) shield is carried by the housing and includes a top panel having an opening therein aligned with the focus cell, and side panels extending downwardly from the top panel. Conductive leads extend between one of the first contacts and a corresponding one of the second contacts. A reference conductive lead extends between the reference voltage contact and the EMC shield.
Abstract:
An electronic device may include a substrate, an active IC die above the substrate, and a dummy IC die above the active IC die. The electronic device may include a first adhesive layer between the active IC die and the dummy IC die, and a heat sink layer above the dummy IC die and extending laterally outwardly to define a gap between the substrate and opposing portions of the heat sink layer.
Abstract:
A flexible smart glove detects fine hand and finger motions while permitting the wearer to make hand gestures with dexterity. The flexible smart glove has a thickness of less than about 100 μm and incorporates capacitive micro-sensors positioned at finger joint locations. The micro-sensors are thin film devices built on substrates made of a pliable material such as polyimide. Interdigitated serpentine capacitors monitor strain in the back of the hand, while parallel plate capacitors monitor contact pressure on the palm. Thus the smart glove responds electrically to various types of hand motions. Thin film resistors responsive to changes in body temperature are also formed on the flexible substrate. Motion and temperature data is transmitted from the glove to a microprocessor via a passive RFID tag or an active wireless transmitter. An ASIC is embedded in the smart glove to relay real time sensor data to a remote processor.