Abstract: Disclosed herein are enhancements for deploying application in an edge system of a communication network. In one implementation, a runtime environment identifies a request from a Hypertext Transfer Protocol (HTTP) accelerator service to be processed by an application. In response to the request, the runtime environment may identify an isolation resource to support the request, initiate execution of code for the application, and pass context to the code. Once initiated, the runtime environment may copy data from the artifact to the isolation resource using the context and return control to the HTTP accelerator service upon executing the code.

Abstract: Disclosed herein are enhancements for deploying application in an edge system of a communication network. In one implementation, a runtime environment identifies a request from a Hypertext Transfer Protocol (HTTP) accelerator service to be processed by an application. In response to the request, the runtime environment may identify an isolation resource to support the request, initiate execution of code for the application, and pass context to the code. Once initiated, the runtime environment may copy data from the artifact to the isolation resource using the context and return control to the HTTP accelerator service upon executing the code.

Abstract: Disclosed herein are enhancements for deploying application in an edge system of a communication network. In one implementation, a runtime environment identifies a request from a Hypertext Transfer Protocol (HTTP) accelerator service to be processed by an application. In response to the request, the runtime environment may identify an isolation resource to support the request, initiate execution of code for the application, and pass context to the code. Once initiated, the runtime environment may copy data from the artifact to the isolation resource using the context and return control to the HTTP accelerator service upon executing the code.

Abstract: Disclosed herein are enhancements for deploying application in an edge system of a communication network. In one implementation, a runtime environment identifies a request from a Hypertext Transfer Protocol (HTTP) accelerator service to be processed by an application. In response to the request, the runtime environment may identify an isolation resource to support the request, initiate execution of code for the application, and pass context to the code. Once initiated, the runtime environment may copy data from the artifact to the isolation resource using the context and return control to the HTTP accelerator service upon executing the code.

Abstract: Disclosed herein are enhancements for deploying application in an edge system of a communication network. In one implementation, a runtime environment identifies a request from a Hypertext Transfer Protocol (HTTP) accelerator service to be processed by an application. In response to the request, the runtime environment may identify an isolation resource to support the request, initiate execution of code for the application, and pass context to the code. Once initiated, the runtime environment may copy data from the artifact to the isolation resource using the context and return control to the HTTP accelerator service upon executing the code.

Abstract: Disclosed herein are enhancements for deploying application in an edge system of a communication network. In one implementation, a runtime environment identifies a request from a Hypertext Transfer Protocol (HTTP) accelerator service to be processed by an application. In response to the request, the runtime environment may identify an isolation resource to support the request, initiate execution of code for the application, and pass context to the code. Once initiated, the runtime environment may copy data from the artifact to the isolation resource using the context and return control to the HTTP accelerator service upon executing the code.

Abstract: A biochip comprising a substrate defining a plurality of fluid holding areas, the fluid holding areas separated by fluid separating elements for preventing mixing of fluids held in the fluid holding areas until the application of pressure to one or more of the fluids.

Abstract: A luminescent device comprises a gaseous tritium light source (GTLS). The GTLS is held within a housing which may optionally be located in an outer casing. A filter, such as a neutral density filter, may be used to modify the light output to predetermined levels. The device may be used to calibrate apparatus used to measure optical output, such as a luminometer.

Abstract: A die assembly for draw stamping sheet metal in a press. The die assembly has an upper die structure and a lower die structure, each constructed and arranged to me mounted on a press for reciprocal movement therebetween. The upper die structure and the lower die structure have complementary stamping surfaces for stamping sheet metal to a desired configuration. A clamping assembly and a stretching assembly grip the sheet metal along opposite sides of the complementary stamping surfaces and drivingly move apart in response to movement of the upper and lower die structures toward one another, thus pre-stretching the sheet metal as the upper and lower die structure are closed to stamp the sheet metal to a desired configuration.

Abstract: An adhesive tape roll for a clothes cleaning device, with a winding mandrel (3) and separate adhesive tapes (5). Each adhesive tape is formed of a strip (7) made of paper, on only one side of which an adhesive layer (8) is provided, an adhesive-repelling material layer (9) being provided on an end section of an opposite side of the strip (7). Adhesive tapes (5) are wound one on top of another around winding mandrel (3), alternately in one direction and then in an opposite direction, so that the adhesive-free sides of at least second and subsequently wound adhesive tapes (5) face the mandrel, and for each adhesive tape (5), the adhesive-repelling material layer (9) lies on the adhesive layer (8) at the opposite end section of same adhesive tape (5).