Abstract: A carrier system is disclosed for use in an object processing system. The carrier system includes a carrier body including a plurality of containment areas for respectively receiving a plurality of objects at a loading station, a motion actuator for moving the carrier body from the loading station to a distribution area, and an ejection actuation system for actuating the carrier body to deposit each of the plurality of objects into different destination locations.

Abstract: An object processing system is disclosed that includes an object induction station at which objects are provided for processing. The object induction station includes at least one perception unit for providing perception data regarding an object, and an object processing system for receiving objects from the object induction station, and for urging an object into a first end of one of a plurality of chute location, each of which including a first end that is accessible by the carrier and a second end that is accessible by a mobile destination container of a plurality of mobile destination containers.

Abstract: An operator inducted object processing system is disclosed that includes an object induction station at which objects are provided for processing, said object induction station including at least one perception unit for providing perception data regarding an object, an object processing system for receiving objects from the object induction station, said object processing system including a carrier configured for movement in a first generally horizontal direction between two mutually opposing arrays of destination locations, each of which extends along the first generally horizontal direction, and the carrier also being configured for movement in a second generally vertical direction between the two mutually opposing arrays of destination locations, each of which also extends along the second generally vertical direction, wherein the movement in the first generally horizontal direction is independent of the movement in the second generally vertical direction, and wherein the carrier is further configured for

Abstract: Obtaining, in association with origination of outbound network traffic to be sent by a system, user account information of a user account on behalf of which the outbound network traffic is generated, and performing filtering of the outbound network traffic based on the obtained user account information of the user account on behalf of which the outbound network traffic is generated, where the filtering is further based on one or more rules, and the filtering includes determining whether to block or allow sending of the outbound network traffic from the system.

Abstract: Obtaining, in association with origination of outbound network traffic to be sent by a system, user account information of a user account on behalf of which the outbound network traffic is generated, and performing filtering of the outbound network traffic based on the obtained user account information of the user account on behalf of which the outbound network traffic is generated, where the filtering is further based on one or more rules, and the filtering includes determining whether to block or allow sending of the outbound network traffic from the system.

Abstract: Provided are facilities for secure execution of an encrypted executable comprising an encrypted instruction. The secure execution includes obtaining the encrypted instruction, decrypting the encrypted instruction using a decryption key being maintained in a secure location within a processor, and storing the decrypted instruction to a secure storage for execution, where the decryption key remains in the secure location during the decrypting and the storing to facilitate maintaining security of the decryption key.

Abstract: Provided are facilities for secure execution of an encrypted executable comprising an encrypted instruction. The secure execution includes obtaining the encrypted instruction, decrypting the encrypted instruction using a decryption key being maintained in a secure location within a processor, and storing the decrypted instruction to a secure storage for execution, where the decryption key remains in the secure location during the decrypting and the storing to facilitate maintaining security of the decryption key.

Abstract: Verification of trustworthiness of a computing platform is provided. The trustworthiness of the computing platform is dynamically assessed to determine whether a root of trust exists on the computing platform. Responsive to determining existence of the root of trust, data is unsealed from a sealed storage facility. The sealed storage facility is unsealed responsive to a root of trust being determined to exist on the computing platform. The data can be used to attest to the trustworthiness of the computing platform to other device on a network.

Abstract: Trusted execution of a self-modifying executable is facilitated. An attempt to access a data portion of a self-modifying executable during execution of the self-modifying executable is detected. The self-modifying executable includes the data portion, for storing data to be accessed during execution of the self-modifying executable, and an instruction portion including instructions for execution of the self-modifying executable. The attempt to access the data portion is retargeted to a separate portion of memory space that is separate from another portion of memory space in which the self-modifying executable is loaded for execution. Meaningful measurability of the integrity of the self-modifying executable is thereby provided.

Abstract: Trusted execution of a self-modifying executable is facilitated. An attempt to access a data portion of a self-modifying executable during execution of the self-modifying executable is detected. The self-modifying executable includes the data portion, for storing data to be accessed during execution of the self-modifying executable, and an instruction portion including instructions for execution of the self-modifying executable. The attempt to access the data portion is retargeted to a separate portion of memory space that is separate from another portion of memory space in which the self-modifying executable is loaded for execution. Meaningful measurability of the integrity of the self-modifying executable is thereby provided.

Abstract: Verification of trustworthiness of a computing platform is provided. The trustworthiness of the computing platform is dynamically assessed to determine whether a root of trust exists on the computing platform. Responsive to determining existence of the root of trust, data is unsealed from a sealed storage facility. The sealed storage facility is unsealed responsive to a root of trust being determined to exist on the computing platform. The data can be used to attest to the trustworthiness of the computing platform to other device on a network.