Abstract: An example method is provided for resuming a communication session encrypted using a post-quantum cipher. The example method can include receiving, by a first computing system, a resumption message from a second computing system. The example method can include decrypting, by the first computing system, the resumption message to obtain a resumption secret, wherein the resumption secret is based on at least a portion of a shared secret that was obtained using a post-quantum cipher during a prior handshake sequence between the first computing system and the second computing system. The example method can include encrypting, by the first computing system, one or more messages using a session key based on the resumption secret. The example method can include sending, by the first computing system, the encrypted one or more messages to the second computing system.

Abstract: A processing device for film cooling holes on blade of aviation engine includes a working box. A workpiece clamping mechanism is arranged in the working box for holding the workpiece. A cover body having an internal space communicated with an internal space of the working box is connected to an upper part of the working box. A laser processing mechanism is connected to a top end of the cover body and can produce laser rays to carry out laser processing on the workpiece. The cover body is connected to a liquid supply mechanism and an acid gas filtration mechanism. The liquid supply mechanism can spray an acidic solution to the workpiece in the working box, and the working box can collect the acidic solution. The acid gas filtration mechanism can filter acid steam produced during processing. A working method of the processing device is also provided.

Abstract: The present invention discloses a negative plate, a secondary battery including the negative plate, and an electric device. The negative plate of the present invention comprises a negative current collector and an anode active material layer. The anode active material layer comprising an anode active material. The negative plate satisfies the following relationship: ?1.75?lg(WAl×WS/?)?1.05, 0.2?lg(WS×R)+0.15×R?2.5, where WAl and WS are mass fractions of aluminum and sulfur respectively; ? is a contact angle of the anode active material layer with a mixed solvent of ethylene carbonate and methyl ethyl carbonate; and R is an ion transport impedance of the negative plate. When the negative plate of the present invention is applied to the secondary battery, cracking of the negative plate during charging and discharging can be significantly reduced, thereby improving the cycle performance of the battery and also improving the capacity retention rate of the battery during low-temperature cycling.

Abstract: A first host receives a packet from a first compute node for a second compute node of a second host. The payload is larger than a maximum transmission unit size. The first packet is encapsulated with an outer header. The first host analyzes a length of at least a portion of the outer header in determining a size of an encrypted segment of the payload. Then, the first host forms a plurality of packets where each packet in the packets includes an encrypted segment of the payload, a respective encryption header, and a respective authentication value. The payload of the first packet is segmented to form a plurality of encrypted segments based on the size. The first host sends the packets to the second host and receives an indication that a packet was not received. A second packet including the encrypted segment is sent to the second compute node.

Abstract: The present invention discloses a negative electrode sheet, a secondary battery including the negative electrode sheet, and an electric device, and belongs to the technical field of batteries. The negative electrode sheet of the present invention includes a negative electrode current collector and a negative electrode active material layer. The negative electrode active material layer includes an negative electrode active material, the negative electrode sheet satisfies an equation as follows: 0.15?(F×ps)/(?×100)?10, where F is a cohesive force of the negative electrode sheet, in the unit of N/m; ps is a particle size change rate of the negative electrode active material, in the unit of %; and ? is a compaction density of the negative electrode sheet, in the unit of g/cm3.

Abstract: The present application relates to the technical field of vehicle controlling technology, and provides a method and a device for gradient calculating. The method for gradient calculating includes: acquiring current operating parameters of the vehicle, wherein the current operating parameters include a current longitudinal acceleration, a current lateral acceleration, a current vehicle acceleration, and a current vehicle speed; determining a first influence value of the current lateral acceleration on the current longitudinal acceleration according to the current lateral acceleration and the current vehicle speed; determining a second influence value of the current vehicle acceleration on the current longitudinal acceleration according to the current vehicle acceleration and the current vehicle speed; correcting the current longitudinal acceleration according to the first influence value and the second influence value; and determining the gradient value based on the corrected current longitudinal acceleration.

Abstract: The present application provides a vehicle collision detection method and system and a vehicle. The vehicle collision detection method includes: dividing an acquired collection of obstacle information into a first obstacle map and a second obstacle map based on a preset obstacle height; modeling a current vehicle based on the first obstacle map and the second obstacle map, and fusing modeling results with the first obstacle map and the second obstacle map to obtain a first collision detection model and a second collision detection model; and further, obtaining a distance relationship between a preset position of the current vehicle and obstacles corresponding to the collection of obstacle information through the first collision detection model and/or the second collision detection model, and determining whether the current vehicle is in collision based on the distance relationship.

Abstract: In some embodiments, a method fragments a first packet into a plurality of fragments when a length of an encapsulated first packet is larger than a maximum transmission unit size. For each fragment in the plurality of fragments, fragmentation information is generated. The method encapsulates each fragment in the plurality of fragments with an outer header to form a plurality of encapsulated packets. The respective fragmentation information for each fragment is inserted in a portion of the outer header that is processed by endpoints of an overlay tunnel and not processed by a device along a path of the overlay tunnel. The plurality of encapsulated packets are sent via the overlay tunnel.

Abstract: A network system that implements quality of service (QoS) by rate limiting at a logical network entity is provided. The logical network entity includes multiple transport nodes for transporting network traffic in and out of the logical network entity. The system monitors traffic loads of the multiple transport nodes of the logical network entity. The system allocates a local CR and a local BS to each of the multiple transport nodes. The allocated local CR and the local BS are determined based on the CR and BS parameters of the logical network entity and based on the monitored traffic loads. Each transport node of the logical network entity in turn controls an amount of data being processed by the transport node based on a token bucket value that is computed based on the local CR and the local BS of the transport node.

Abstract: A negative plate, a secondary battery and an electrical device, which fall within the technical field of batteries, wherein the negative plate includes a negative current collector and an anode active material layer provided on a surface of the negative current collector, the anode active material layer includes an anode active material, the anode active material includes graphite, and the negative plate satisfies the following relationship: a=ln(DFW)+10×ln(DV50)+?(La)+26.5, b=PD, a/45?b?0.05. By reasonably controlling a particle diameter distribution of the anode active material in the negative plate, as well as a crystal size and a compacted density of the negative plate, the negative plate of the present disclosure maintains good wettability at a higher compacted density and has good liquid absorption capacity for an electrolyte solution, and a battery containing the negative plate has excellent cycle life.

Abstract: An air supply system for a washing apparatus, and a washing apparatus having same including: a fan; an air duct chamber, a first air passage duct and a second air passage duct, which are spaced apart from each other, are arranged in the air duct chamber; an air supply pipe, where the air supply pipe can be in communication with an exhaust port of the fan by the first air passage duct, and the air supply pipe is positioned so as to be able to supply air to a window pad of a washing apparatus by running the fan. With this system, residual water in the window pad can be effectively removed to prevent bacteria breeding and odor generation caused by residual water; also, moist air can be discharged out of the washing apparatus in a timely manner to prevent the moist air from causing pipeline pollution and component erosion.

Abstract: The disclosure discloses a negative electrode sheet, a secondary battery and an electrical device, belonging to the technical field of batteries. The negative electrode sheet of the disclosure includes a negative electrode current collector and a negative electrode active material layer disposed on at least one surface of the negative electrode current collector, in which the negative electrode active material layer includes a negative electrode active material, the negative electrode active material includes graphite, and the negative electrode sheet satisfies an equation as follows: 1.0×10?3?(|La1?La2|/Lax)/(VOI×DV50)?3.0×10?3.

Abstract: Some embodiments provide, for a gateway datapath that executes on a gateway device to implement tenant logical routers for multiple different tenant logical networks and process traffic between the tenant logical networks and an external network, a method for managing QoS for the plurality of tenant logical networks. The method receives a data message for a particular tenant logical network. The method executes a set of processing stages to process the data message. The set of processing stages includes a processing stage for a particular tenant logical router of the particular tenant logical network. As part of the processing stage for the particular tenant logical router, the method uses a QoS data structure specific to the particular tenant logical router to determine whether to allow the data message. The gateway device stores at least one separate QoS data structure for each of a set of the tenant logical routers.

Abstract: Described herein are systems, methods, and software to manage the identification of control packets in an encapsulation header. In one implementation, a computing system may receive a Geneve packet at a network interface and determine that the Geneve packet includes an Operations and Management (OAM) flag. Once the OAM flag is identified, the computing system can select a processing queue from a plurality of processing queues for a main processing system of the computing system based on the OAM flag and assign the Geneve packet to the processing queue.

Abstract: Some embodiments provide a method for a gateway datapath that executes on a gateway device to implement logical routers for a set of logical networks and process traffic between the logical networks and an external network. The method receives a data message at the gateway device. To process the data message, the method executes a set of processing stages that includes a processing stage for a particular logical router. As part of the processing stage for the particular logical router, the method (i) uses an access control list (ACL) table to determine whether the data message is subject to rate limiting controls defined for the particular logical router and (ii) only when the data message is subject to rate limiting controls, determines whether to allow the data message according to a rate limiting mechanism for the particular logical router.

Abstract: In some embodiments, a method fragments a first packet into a plurality of fragments when a length of an encapsulated first packet is larger than a maximum transmission unit size. For each fragment in the plurality of fragments, fragmentation information is generated. The method encapsulates each fragment in the plurality of fragments with an outer header to form a plurality of encapsulated packets. The respective fragmentation information for each fragment is inserted in a portion of the outer header that is processed by endpoints of an overlay tunnel and not processed by a device along a path of the overlay tunnel. The plurality of encapsulated packets are sent via the overlay tunnel.

Abstract: Methods, apparatuses and electronic devices for information segmentation. The method includes, for a target information node in an information sequence and based on first node information of the target information node, determine a first demarcation point probability value, in which the first demarcation point probability value indicates a probability that the target information node is a first type of demarcation point; determine, based on the first demarcation point probability value and second node information of the target information node, a second demarcation point probability value, in which the second demarcation point probability value indicates a probability that the information node is a second type of demarcation point, and the first type of demarcation point is associated with the second type of demarcation point; and determines, based on the first and the second demarcation point probability value, at least two segmentation modes for the information sequence.