Abstract: A digital compute-in-memory (DCIM) macro includes a memory cell array and an arithmetic logic unit (ALU). The memory cell array stores weight data of a neural network. The ALU receives parallel bits of a same input channel in an activation input, and generates a convolution computation output of the parallel bits and target weight data in the memory cell array.

Abstract: A digital compute-in-memory (DCIM) system includes a first DCIM macro. The first DCIM macro includes a first memory cell array and a first arithmetic logic unit (ALU). The first memory cell array has N rows that are configured to store weight data of a neural network in a single weight data download session, wherein N is a positive integer not smaller than two. The first ALU is configured to receive a first activation input, and perform convolution operations upon the first activation input and a single row of weight data selected from the N rows of the first memory cell array to generate first convolution outputs.

Abstract: A latch mechanism includes a frame, an elastic sheet, a sliding bracket, a hooking portion, and a resilient restoring member connected to the frame and the sliding bracket. The elastic sheet includes a fixing portion, a receiving portion and a fastening member. The fixing portion is fixed to the frame opposite to the fastening member. The sliding bracket includes a bracket body slidable between the elastic sheet and the frame, and a protruding portion received in the receiving portion. The hooking portion is connected to the bracket body, and removably hooked on an end surface of the frame. When the sliding bracket moves the protruding portion, the resilient restoring member and the hooking portion, the protruding portion pushes the fastening member into the frame, and the hooking portion is hooked by the end surface of the frame to keep the resilient restoring member not being resumed.

Abstract: A latch mechanism includes a frame, an elastic sheet, a sliding bracket, a hooking portion, and a resilient restoring member connected to the frame and the sliding bracket. The elastic sheet includes a fixing portion, a receiving portion and a fastening member. The fixing portion is fixed to the frame being opposite to the fastening member. The sliding bracket includes a bracket body slidably disposed between the elastic sheet and the frame, and a protruding portion received in the receiving portion. The hooking portion is connected to the bracket body, and removably hooked on a fastener portion. When the sliding bracket moves the protruding portion, the resilient restoring member and the hooking portion, the protruding portion pushes the fastening member into the frame, and the hooking portion is hooked by the fastener portion to keep the resilient restoring member not being resumed.

Abstract: A latch mechanism includes a frame, an elastic sheet, a sliding bracket, a hooking portion, and a resilient restoring member connected to the frame and the sliding bracket. The elastic sheet includes a fixing portion, a receiving portion and a fastening member. The fixing portion is fixed to the frame opposite to the fastening member. The sliding bracket includes a bracket body slidable between the elastic sheet and the frame, and a protruding portion received in the receiving portion. The hooking portion is connected to the bracket body, and removably hooked on an end surface of the frame. When the sliding bracket moves the protruding portion, the resilient restoring member and the hooking portion, the protruding portion pushes the fastening member into the frame, and the hooking portion is hooked by the end surface of the frame to keep the resilient restoring member not being resumed.

Abstract: A latch mechanism includes a frame, an elastic sheet, a sliding bracket, a hooking portion, and a resilient restoring member connected to the frame and the sliding bracket. The elastic sheet includes a fixing portion, a receiving portion and a fastening member. The fixing portion is fixed to the frame being opposite to the fastening member. The sliding bracket includes a bracket body slidably disposed between the elastic sheet and the frame, and a protruding portion received in the receiving portion. The hooking portion is connected to the bracket body, and removably hooked on a fastener portion. When the sliding bracket moves the protruding portion, the resilient restoring member and the hooking portion, the protruding portion pushes the fastening member into the frame, and the hooking portion is hooked by the fastener portion to keep the resilient restoring member not being resumed.

Abstract: An apparatus comprising a wall of a drawer adapted to secure a set of cables at a first end, the set of cables can be housed in a cable housing, the wall coupled to a roller and a flattening appendage. In some implementations, the apparatus can comprise a deck comprising a plate adapted to secure the set of cables at a second end, the plate located at a midpoint of the deck. Alternatively, a drawer is adapted to slide along the deck, a shelf attached to the drawer. The flattening appendage presses down on the first end of the set of cables and the roller presses down on the second end of the set of cables as the drawer is opened and closed such that the set of cables is stored neatly under the drawer.

Abstract: An apparatus comprising a wall of a drawer adapted to secure a set of cables at a first end, the set of cables can be housed in a cable housing, the wall coupled to a roller and a flattening appendage. In some implementations, the apparatus can include a deck including a plate adapted to secure the set of cables at a second end, the plate located at a midpoint of the deck. Alternatively, a drawer is adapted to slide along the deck, a shelf attached to the drawer. The flattening appendage presses down on the first end of the set of cables and the roller presses down on the second end of the set of cables as the drawer is opened and closed such that the set of cables is stored neatly under the drawer.