Abstract: This application provides a degassing apparatus, a battery cell, a battery, and an electric apparatus. The degassing apparatus includes a degassing body, a breathable member, and a protection member. The breathable member and the protection member are disposed at the degassing body, and the protection member is disposed on a side of the breathable member back away from an electrode assembly of the battery cell. The protection member is provided with a through-hole, and a gas channel in communication with the first through-hole is formed between the breathable member and the protection member. The breathable member is configured for gas to pass through when pressure in the battery cell reaches a first threshold, such that the gas passes through the gas channel and the first through-hole to be discharged outside the battery cell.

Abstract: A method for reducing latency and increasing throughput in a reconfigurable computing system includes receiving a compute graph for execution on a reconfigurable dataflow processor comprising a grid of compute units and grid of memory units interconnected with a switching array. The compute graph includes a node specifying an operation on a tensor. The node may be split into multiple nodes that each specify the operation on a distinctive portion of the tensor to produce a first modified compute graph. The first modified compute graph may be executed. In addition, the multiple nodes may be within a single meta-pipeline stage and may be processed in parallel. Furthermore, the compute graph may further comprise a separate node for gathering the distinctive portions of the tensor into a complete tensor, to produce a second modified compute graph.

Abstract: A computer-implemented method of transforming a high-level program for mapping onto a coarse-grained reconfigurable (CGR) processor with an array of CGR units, including sectioning a dataflow graph into a plurality of sections; extracting performance information for each of the plurality of sections; on a CGR unit: assigning to a section at least two computations dependent on a first data element; scheduling an additional load of the first data element in response to available memory bandwidth for that section; eliminating a buffer between the additional load of the first data element and one of the two computations, for that section; generating configuration data for the and communication channels, wherein the configuration data, when loaded onto an instance of the array of CGR units, causes the array of CGR units to implement the dataflow graph; and storing the configuration data in a non-transitory computer-readable storage medium.