Abstract: A method includes receiving a plurality of sets of extracted data from one or more devices under analysis. An evidence storage server generates a plurality of evidence packages based on a first copy of the plurality of sets of extracted data from the one or more devices under analysis. A virtual desktop server generates one or more virtual desktop sessions that interface with one or more analysis workstations and interface with the evidence storage server to access the first copy of the sets of extracted data in the evidence packages. One or more associated work products are stored in the evidence packages based on a forensic analysis of the first copy of the sets of extracted data in the evidence packages. The one or more associated work products are stored with a second copy of the sets of extracted data to an archive system including a plurality of storage arrays.

Abstract: A method includes receiving a plurality of sets of extracted data from one or more devices under analysis. An evidence storage server generates a plurality of evidence packages based on a first copy of the plurality of sets of extracted data from the one or more devices under analysis. A virtual desktop server generates one or more virtual desktop sessions that interface with one or more analysis workstations and interface with the evidence storage server to access the first copy of the sets of extracted data in the evidence packages. One or more associated work products are stored in the evidence packages based on a forensic analysis of the first copy of the sets of extracted data in the evidence packages. The one or more associated work products are stored with a second copy of the sets of extracted data to an archive system including a plurality of storage arrays.

Abstract: A digital forensics system includes an ingestion system, an analysis system including analysis workstations, an archive system including storage arrays, and a server system including an evidence storage server and a virtual desktop server. The ingestion system includes ingestion workstations operable to receive extracted data from devices under analysis. The evidence storage server includes resources operable to generate evidence packages based on extracted data from the devices under analysis. The virtual desktop server includes resources operable to generate virtual desktop sessions that interface with the analysis workstations and interface with the evidence storage server to access the extracted data in the evidence packages, store work products in the evidence packages based on a forensic analysis of the extracted data in the evidence packages, and store associated work products with a second copy of extracted data to the archive system.

Abstract: A digital forensics system includes an ingestion system, an analysis system including analysis workstations, an archive system including storage arrays, and a server system including an evidence storage server and a virtual desktop server. The ingestion system includes ingestion workstations operable to receive extracted data from devices under analysis. The evidence storage server includes resources operable to generate evidence packages based on extracted data from the devices under analysis. The virtual desktop server includes resources operable to generate virtual desktop sessions that interface with the analysis workstations and interface with the evidence storage server to access the extracted data in the evidence packages, store work products in the evidence packages based on a forensic analysis of the extracted data in the evidence packages, and store associated work products with a second copy of extracted data to the archive system.

Abstract: A system for automated assessments is provided. The system includes a processing device and a memory device. The memory device stores instructions that when executed by the processing device may result in receiving a video stream including image frames from an imaging source. Image data from one or more of the image frames can be compared with an image profile database to determine whether at least one item in one or more of the image frames is identifiable. A lookup operation can be initiated in a secondary data source to determine one or more item attributes of the one or more identified items. The video stream can be modified to add an item identifier for each of the identified items to the video stream as an annotated video. A record can be stored of the one or more item attributes of the identified items in the annotated video.

Abstract: A system for automated assessments is provided. The system includes a processing device and a memory device. The memory device stores instructions that when executed by the processing device may result in receiving a video stream including image frames from an imaging source. Image data from one or more of the image frames can be compared with an image profile database to determine whether at least one item in one or more of the image frames is identifiable. A lookup operation can be initiated in a secondary data source to determine one or more item attributes of the one or more identified items. The video stream can be modified to add an item identifier for each of the identified items to the video stream as an annotated video. A record can be stored of the one or more item attributes of the identified items in the annotated video.

Abstract: A device (20) has an electrically-operated brake (37) and a manually-operated auxiliary brake (27). The electrically-operated brake includes a coil (70), a core (68), an armature (69), and an alternating series of friction pads (74) and brake disks (75), that are arranged to be compressed between the housing and the armature. The shaft brake (27) includes a collar (22) mounted on the housing for combined axial and rotative movement relative thereto, a first interlock portion (106, 110) mounted on the shaft (24), an annular member (84) surrounding the shaft and having a second interlock portion (85) and a spring (124) urging the member to move toward the shaft. The collar (22) is adapted to be selectively moved relative to the housing between a first portion at which the first (106, 110) and second (85) interlock portions are physically engaged with one another, and a second position at which the first (106, 110) and second (85) interlock portions are physically separated from one another.

Abstract: A device (20) has an electrically-operated brake (37) and a manually-operated auxiliary brake (27). The electrically-operated brake includes a coil (70), a core (68), an armature (69), and an alternating series of friction pads (74) and brake disks (75), that are arranged to be compressed between the housing and the armature. The shaft brake (27) includes a collar (22) mounted on en the housing for combined axial and rotative movement relative thereto, a first interlock portion (106,110) mounted on the shaft (24), an annular member (84) surrounding the shaft and having a second interlock portion (85) and a spring (124) urging the member to move toward the shaft. The collar (22) is adapted to be selectively moved relative to the housing between a first portion at which the first (106,110) and second (85) interlock portions are physically engaged with one another, and a second position at which the first (106,110) and second (85) interlock portions are physically separated from one another.

Abstract: A fluid coupling (30) has a male half (32) and a female half (31). Each half has a poppet (35,42) arranged to move toward and way from a seat (34,43). The male half (32) has an outer sleeve (38) which is adapted to guide initial joinder of the female half distal end (46). After the two halves have been initially joined, the male half body (39) is extended relative to the sleeve (38) so as to move both poppets (35,42) off their respective seats and to permit flow through the coupling. The coupling has protrusions (76) provided with sharpened edges which are positioned to scrape ice adhering to facing surfaces when the coupling halves are joined and separated.

Abstract: A fluid coupling device has a male section (20) and a female section (21). Each of the sections has two rotatable ball valve elements (30,31). A docking member (23,24) is mounted on each section to accomodate a misalignment of the flow passageways when the sections are brought together. When the sections are brought together, the ball valves automatically rotate sequentially from flow-preventing positions to flow-permitting positions.

Abstract: A fluid coupling device has a male section (20) and a female section (21). Each of the sections has two rotatable ball-valve elements (30,31). A docking member (23,24) is mounted on each section to accommodate a misalignment of the flow passageways when the sections are brought together. When the sections are joined together, the ball valves automatically rotate sequentially from flow-preventing positions to flow-permitting positions.