摘要:
The present invention discloses a video interaction device, which integrates areas of a human upper body with a sport game software to achieve a video interaction via a display interface. The video interaction device of the present invention comprises: at least one foot-sensation member and at least one body motion-driving controller, which are respectively arranged in a foot exercise device and areas of a human upper body (such as a hand, the head, and the waist). Via the foot-sensation members and the body motion-driving controllers, a more precise and delicate whole-body interaction can be thus achieved between a user and a sport game software.
摘要:
A structure of stacked memory card, the structure includes a substrate, a lower chip, wires, adhered element, upper chip, and compound resin. The substrate has an upper surface formed with a plurality of first electrodes, and a lower surface. The B-stage glue is coated on the upper surface of the substrate. The lower chip is arranged on the upper surface of the substrate, and is located on the B-stage glue. The plurality of wires are electrically connected the lower chip to the first electrode of the substrate. The adhesive element includes adhesive agent and filling elements is coated on the lower chip. The upper chip is adhered on the lower chip by adhesive element, and is spaced with the lower chip through the filling element, then is electrically connected to the first electrode of the substrate by wires. The compound resin is encapsulated on the upper chip, lower chip, and wires.
摘要:
A high density trench-gated MOSFET array and method are disclosed. It comprises semiconductor substrate partitioned into MOSFET array area and gate pickup area; epitaxial region, body region and source region; numerous precisely spaced active nitride-capped trench gate stacks (ANCTGS) embedded till the epitaxial region. Each ANCTGS comprises a stack of polysilicon trench gate with gate oxide shell and silicon nitride cap covering top of polysilicon trench gate and laterally registered to gate oxide shell. The ANCTGS forms, together with the source, body, epitaxial region, a MOSFET device in the MOSFET array area. Over MOSFET array area and gate pickup area, a patterned dielectric region atop the MOSFET array and a patterned metal layer atop the patterned dielectric region. Thus, the patterned metal layer forms, with the MOSFET array and the gate pickup area, self-aligned source and body contacts through the inter-ANCTGS separations.
摘要:
A semiconductor substrate comprises epitaxial region, body region and source region; an array of interdigitated active nitride-capped trench gate stacks (ANCTGS) and self-guided contact enhancement plugs (SGCEP) disposed above the semiconductor substrate and partially embedded into the source region, the body region and the epitaxial region forming the trench-gated MOSFET array. Each ANCTGS comprises a stack of a polysilicon trench gate embedded in a gate oxide shell and a silicon nitride spacer cap covering the top of the polysilicon trench gate; each SGCEP comprises a lower intimate contact enhancement section (ICES) in accurate registration to its neighboring ANCTGS; an upper distal contact enhancement section (DCES) having a lateral mis-registration (LTMSRG) to the neighboring ANCTGS; and an intervening tapered transitional section (TTS) bridging the ICES and the DCES; a patterned metal layer atop the patterned dielectric region atop the MOSFET array forms self-guided source and body contacts through the SGCEP.
摘要:
A system for determining a coverage region of a radar device is disclosed. The system may have one or more processors and a memory. The memory may store instructions that, when executed, enable the one or more processors to receive radar data generated by a radar device and lidar data generated by a lidar device. The radar data may include radar data points representing objects detected by the radar device and the lidar data may include lidar data points representing objects detected by the lidar device. The one or more processors may be further enabled to determine a radar coverage region for the radar device by comparing one or more radar data points to one or more lidar data points, and to generate data used to display a graphical representation of the radar coverage region.
摘要:
In one aspect, the present invention relates to a mammalian cell-based high-throughput assay for the profiling and screening of human epithelial sodium channel (hENaC) cloned from a human kidney c-DNA library and is also expressed in other tissues including human taste tissue. The present invention further relates to amphibian oocyte-based medium-throughput electrophysiological assays for identifying human ENaC modulators, preferably ENaC enhancers. Compounds that modulate ENaC function in a cell-based ENaC assay are expected to affect salty taste in humans. The assays described herein have advantages over existing cellular expression systems. In the case of mammalian cells, such assays can be run in standard 96 or 384 well culture plates in high-throughput mode with enhanced assay results being achieved by the use of a compound that inhibits ENaC function, preferably an amiloride derivative such as Phenamil. In the case of the inventive oocyte electrophysiological assays (two-electrode voltage-clamp technique), these assays facilitate the identification of compounds which specifically modulate human ENaC. The assays of the invention provide a robust screen useful to detect compounds that facilitate (enhance) or inhibit hENaC function. Compounds that enhance or block human ENaC channel activity should thereby modulate salty taste in humans.
摘要:
A planar inverted-cone susceptor, preferably made of silicon carbide, inversely disposed between a substrate and a holder of the Rapid Thermal Processor (RTP) so as to perform heat compensation on the substrate. Because the substrate is directly supported by the inverted-cone susceptor, heat stored in the wafer can be rapidly received by the inverted-cone susceptor. Thermal stress and thermal gradient can be effectively decreased in the wafer.
摘要:
Described herein are biometric identification systems and methods that use a set of finely spaced analog sensors to generate and record a unique dynamic pressure user profile. The pressure profile is evaluated based on data from a trained model that comprises a number of personal biometric characteristics used to uniquely identify a person, e.g., for authentication purposes, such as granting access to sensitive, confidential information in connection with an electronic commercial transaction, an Internet of Things (IoT) device, an automotive device, an identity and access management (IAM), or a robotic or high functioning touch sensing device.
摘要:
In one aspect, the present invention relates to a mammalian cell-based high-throughput assay for the profiling and screening of human epithelial sodium channel (hENaC) cloned from a human kidney c-DNA library and is also expressed in other tissues including human taste tissue. The present invention further relates to amphibian oocyte-based medium-throughput electrophysiological assays for identifying human ENaC modulators, preferably ENaC enhancers. Compounds that modulate ENaC function in a cell-based ENaC assay are expected to affect salty taste in humans. The assays described herein have advantages over existing cellular expression systems. In the case of mammalian cells, such assays can be run in standard 96 or 384 well culture plates in high-throughput mode with enhanced assay results being achieved by the use of a compound that inhibits ENaC function, preferably an amiloride derivative such as Phenamil. In the case of the inventive oocyte electrophysiological assays (two-electrode voltage-clamp technique), these assays facilitate the identification of compounds which specifically modulate human ENaC. The assays of the invention provide a robust screen useful to detect compounds that facilitate (enhance) or inhibit hENaC function. Compounds that enhance or block human ENaC channel activity should thereby modulate salty taste in humans.
摘要:
A memory card structure includes a substrate, B-Stage glue, an adhered layer, a chip, wires, and a compound layer. The substrate has an upper surface, which is formed with first electrodes and golden fingers electrically connected to the first electrodes. The B-Stage glue is coated on the periphery of upper surface of the substrate. The adhered layer is coated on the upper surface of the substrate. The chip is formed with bonding pads, and is adhered on the upper surface of the substrate by the B-Stage glue and the adhered layer. The plurality of wires are electrically connected the bonding pads of the chip to the first electrodes of the substrate. And the compound layer is encapsulated on the chip and the wires.