Abstract: Techniques are disclosed to establish trust in a cluster of edge devices. A new cloud-computing edge device can be connected to a cluster of cloud-computing edge devices. The new cloud-computing edge device can store a fleet encryption key and a plurality of public encryption keys corresponding to the cluster of cloud-computing edge devices. The new cloud-computing edge device can use the fleet encryption key to generate encrypted message data including a new public encryption key and send the encrypted message data to the cluster. If the encrypted message data is successfully decrypted by the cluster of cloud-computing edge devices, the new cloud-computing edge device can send a request for a session token to the cluster of cloud-computing edge devices. If a signature of the request is verified, the new cloud-computing edge device can receive the session token and establish a communication session with the cluster of cloud-computing edge devices.

Abstract: Techniques are disclosed to establish trust in a cluster of edge devices. An edge device cloud service can associate a first cloud-computing edge device with a fleet of cloud-computing edge devices and provision the first cloud-computing edge device with a master encryption key. The edge device cloud service can associate a second cloud-computing edge device with the fleet and provision the second cloud-computing edge device with the master encryption key and the first public encryption key. The first cloud-computing edge device can receive from the second cloud-computing edge device encrypted message data comprising the second public encryption key. The first cloud-computing edge device can decrypt the encrypted message data using the master encryption key stored in the first key store and update the first key store with the second public encryption key.

Abstract: Techniques are disclosed to establish trust in a cluster of edge devices. An edge device cloud service can associate a first cloud-computing edge device with a fleet of cloud-computing edge devices and provision the first cloud-computing edge device with a master encryption key. The edge device cloud service can associate a second cloud-computing edge device with the fleet and provision the second cloud-computing edge device with the master encryption key and the first public encryption key. The first cloud-computing edge device can receive from the second cloud-computing edge device encrypted message data comprising the second public encryption key. The first cloud-computing edge device can decrypt the encrypted message data using the master encryption key stored in the first key store and update the first key store with the second public encryption key.

Abstract: Techniques for test orchestration are disclosed. A system executes multiple test execution plans, using instances of a same test container image that encapsulates a test environment and instances of at least two different test support container images that are specified by different user-defined test configurations and each configured to perform, respectively, one or more test support operations. To execute each of the test execution plans, the system generates a respective instance of the test container image and one or more test support containers. A particular test execution plan includes generating a test support container that is specified in a corresponding user-defined test configuration and that is different from any test support container specified in another user-defined test configuration.

Abstract: Techniques for test orchestration are disclosed. A system executes multiple test execution plans, using instances of a same test container image that encapsulates a test environment and instances of at least two different test support container images that are specified by different user-defined test configurations and each configured to perform, respectively, one or more test support operations. To execute each of the test execution plans, the system generates a respective instance of the test container image and one or more test support containers. A particular test execution plan includes generating a test support container that is specified in a corresponding user-defined test configuration and that is different from any test support container specified in another user-defined test configuration.

Abstract: A subsystem configured to write data to a static random access memory cell employs a single N-channel MOS device connected to ground in each leg of the bi-stable memory cell to overdrive the stored data. The subsystem implements the dual control required to effect matrix operation of the SRAM cell in the gate circuit of the single N-channel MOS device in the drive path. Specifically, the column select signal controls a semiconductor junction that interrupts the data connection to the gate. In this manner, the column select control is removed from the drive path, thus increasing drive strength. Further, a second semiconductor junction connects the gate of the single NMOS device in the drive path when the gate signal is interrupted.

Abstract: A subsystem configured to write data to a static random access memory cell employs a single N-channel MOS device connected to ground in each leg of the bi-stable memory cell to overdrive the stored data. The subsystem implements the dual control required to effect matrix operation of the SRAM cell in the gate circuit of the single N-channel MOS device in the drive path. Specifically, the column select signal controls a semiconductor junction that interrupts the data connection to the gate. In this manner, the column select control is removed from the drive path, thus increasing drive strength. Further, a second semiconductor junction connects the gate of the single NMOS device in the drive path when the gate signal is interrupted.

Abstract: A subsystem configured to write data to a static random access memory cell employs a single N-channel MOS device connected to ground in each leg of the bi-stable memory cell to overdrive the stored data. The subsystem implements the dual control required to effect matrix operation of the SRAM cell in the gate circuit of the single N-channel MOS device in the drive path. Specifically, the column select signal controls a semiconductor junction that interrupts the data connection to the gate. In this manner, the column select control is removed from the drive path, thus increasing drive strength. Further, a second semiconductor junction connects the gate of the single NMOS device in the drive path when the gate signal is interrupted.

Abstract: Novel bioabsorbable, columellar strut implants are disclosed. The struts are useful in rhinoplasty and nasal reconstruction surgical procedures. The devices have opposed lateral sides connected to a spine member to form a tissue-receiving channel.

Abstract: Novel bioabsorbable, columellar strut implants are disclosed. The struts are useful in rhinoplasty and nasal reconstruction surgical procedures. The devices have opposed lateral sides connected to a spine member to form a tissue-receiving channel.