Abstract: A chip package structure and a method for producing the same are provided. The method at least includes: providing a substrate; placing a chip upside-down on the substrate; forming bonding wires coupled with the chip and the substrate; providing at least one reflecting member on an upper surface of the substrate, forming a support body on the substrate to cover the at least one reflecting member; providing a package cover adhered to the support body by a glass adhesive; performing a solidifying process in which a solidifying light beam is emitted to the reflecting member and the reflecting member reflects the solidifying light beam to the glass adhesive to solidify the glass adhesive; performing a packaging process in which a package body is formed to cover an edge surface of the package cover and a top part of the support body.

Abstract: Various embodiments of the teachings herein include a method for controlling a robot with a tool carried along a path with preset positions and preset directions at a plurality of points. The method may include: at a plurality of points, controlling the robot according to a preset angle of each joint of a plurality of joints; obtaining an actual position and an actual direction of the tool at the points while the robot carries the tool along the path according to the preset angles; determining an actual movement parameter of the robot at a point based on the actual positions and the actual directions; determining an adjusted angle of each joint at each point based on the actual movement parameter so the positions and the directions are consistent with the preset positions and the preset directions at the plurality of points; and controlling the robot to move the tool along the path according to the adjusted angles.

Abstract: The present disclosure relates to nanoparticles containing cellular membrane and uses thereof. The nanoparticle comprises an interior compartment (or an inner core) and an outer surface (or shell) comprising a cellular membrane derived from a cell, said interior compartment (or an inner core) not providing a solid support to said cellular membrane in said outer surface (or shell). The present disclosure also relates to processes of making the nanoparticles. The present disclosure further relates to compositions comprising the nanoparticles and methods of using the nanoparticles.

Abstract: A method of parameter estimation for a multi-input multi-output system based on deep learning is executed. The method includes creating a connection between the base station and a user device entering a coverage of the base station, transmitting real-time channel information from the user device to the base station through the connection, optimizing a parameter for the user device based on the real-time channel information through a deep learning algorithm, transmitting the optimized parameter to the user device, and applying the optimized parameter in a signal detection for the multi-input multi-output system at the user device. The real-time channel information is a channel status of the user device upon the creation of the connection between the base station and the user device. Another method of parameter estimation for a multi-input multi-output system having a base station and a plurality of user devices is also disclosed.

Abstract: A method of parameter estimation for a multi-input multi-output system based on deep learning is executed. The method includes creating a connection between the base station and a user device entering a coverage of the base station, transmitting real-time channel information from the user device to the base station through the connection, optimizing a parameter for the user device based on the real-time channel information through a deep learning algorithm, transmitting the optimized parameter to the user device, and applying the optimized parameter in a signal detection for the multi-input multi-output system at the user device. The real-time channel information is a channel status of the user device upon the creation of the connection between the base station and the user device. Another method of parameter estimation for a multi-input multi-output system having a base station and a plurality of user devices is also disclosed.

Abstract: The present invention relates to a graphics card connector module for being connected to a motherboard device, the motherboard including a primary slot coupling over N channels, said graphics card connector module comprising a first coupling connector adapted to be coupled to the primary slot of the motherboard; and a second coupling connector adapted to be connected electrically to a display device; the first coupling connector having a plurality of up to N conductive terminals adapted to be each electrically coupled to a corresponding one of the channels of the primary slot.

Abstract: A graphics card connector module is adapted for interconnecting a motherboard, a graphics card and a display device. The motherboard includes a primary slot that provides signal coupling compatible with the PCI-Express industry standard. The graphics card connector module includes a first coupling connector mounted on a card body and adapted to be coupled electrically to the primary slot of the motherboard, a graphics card connector mounted on the card body, connected electrically to the first coupling connector, and adapted to be coupled electrically to the graphics card, and a second coupling connector mounted on the card body, connected electrically to the graphics card connector, and adapted to be connected electrically to the display device.