Abstract: An electrochemical testing device can include a bottom electrochemical block, a top electrochemical block, and a plurality of well inserts. The bottom electrochemical block can have multiple wells, each being configured to receive therein a prepared liquid electrolyte suitable for electrochemical testing. The top electrochemical block can have multiple chambers and can be configured for fastening onto the bottom electrochemical block such that the multiple chambers align with the multiple wells to form multiple testing cells. Each well insert can be configured to be removably placed within a testing cell to facilitate normalizing its respective testing cell such that all testing cells having a well insert provide electrochemical testing parameters that are substantially identical. Each well insert can include an inner spacer, an outer spacer, an inner electrode situated therebetween, and an internal testing volume for receiving a liquid electrolyte.

Abstract: A computer-implemented system utilizes a traffic inspection subsystem (e.g., an extended Berkeley Packet Filter (eBPF) subsystem) to extract unencrypted data, before it has been encrypted or after it has been decrypted (e.g., by SSL/TLS), without the need for cryptographic key material from applications or processes. The system extracts the unencrypted data by attaching into the corresponding encryption libraries (e.g., SSL/TLS libraries) and their functions using the traffic inspection subsystem. The extracted unencrypted data is correlated to the corresponding network sockets that the encrypted traffic is using.

Abstract: A computer-implemented system captures raw Internet Protocol (IP) packets using a traffic inspection subsystem (e.g., an extended Berkeley packet filter (eBPF) subsystem). It then reassembles the raw IP flows into Layer 7 (OSI model application layer) flows. Once the Layer 7 protocol flows (e.g., HTTP, FTP, SMTP) are reassembled, the system may apply dynamic contextual rules to the reassembled flows to determine whether the client communicating with an application being protected has any malicious intent. If the system identifies any such malicious intent, the system blocks further communications from the client, such as by dropping requests, rejecting requests with a custom response, or other means.

Abstract: An automated coin cell battery manufacturing system can include a holding arrangement, an electrolyte dispensing component, a case providing component, a pick and place component, and a crimping component. The holding arrangement can hold multiple partially assembled coin cells that can each include electrode(s) and a spacer within a coin cell cap. The electrolyte dispensing component can automatically dispense electrolyte material into the partially assembled coin cells, and the electrolyte material can be different for different coin cells. The case providing component can store multiple coin cell cases and automatically provide the stored coin cell cases. The pick and place component can automatically pick the coin cell cases from the case providing component and can automatically place the coin cell cases on the multiple partially assembled coin cells to form fully assembled coin cells within the holding arrangement. The crimping component can automatically crimp the fully assembled coin cells.

Abstract: Various methods and systems are provided for a leakage passageway for a fuel injector of a common rail fuel system. In one embodiment, a fuel injector for an engine comprises an injector accumulator, an injector flow limiter valve configured to control a flow of fuel from a common fuel rail and into the injector accumulator, and a leakage passageway coupled between the injector accumulator and an inlet of the injector flow limiter valve, the leakage passageway bypassing the injector flow limiter valve.

Abstract: Various methods and systems are provided for a leakage passageway for a fuel injector of a common rail fuel system. In one embodiment, a fuel injector for an engine comprises an injector accumulator, an injector flow limiter valve configured to control a flow of fuel from a common fuel rail and into the injector accumulator, and a leakage passageway coupled between the injector accumulator and an inlet of the injector flow limiter valve, the leakage passageway bypassing the injector flow limiter valve.