Abstract: Provided are computing systems, methods, and platforms that automatically produce production-ready machine learning models and deployment pipelines from minimal input information such as a raw training dataset. In particular, one example computing system can import a training dataset associated with a user. The computing system can execute an origination machine learning pipeline to perform a model architecture search that selects and trains a machine learning model for the training dataset. Execution of the origination machine learning pipeline can also result in generation of a deployment machine learning pipeline configured to enable deployment of the machine learning model (e.g., running the machine learning model to produce inferences and/or optionally other tasks such as re-training and/or re-tuning the model).

Abstract: A microelectromechanical systems (MEMS) package includes a substrate extending between a first pair of outer edges to define a length and a second pair of outer edges to define a width. A seal ring assembly is disposed on the substrate and includes at least one seal ring creating a first boundary point adjacent to at least one MEMS device and a second boundary point adjacent at least one of the outer edges. The package further includes a window lid on the seal ring assembly to define a seal gap containing the at least one MEMS device. The seal ring assembly anchors the window lid to the substrate at the second boundary point such that deflection of the window lid into the seal gap is reduced.

Abstract: An in-line process is provided for economical and concurrent manufacture of attractive flat paper substrate transaction cards and display carriers with or without an RFID chip embedded therein. In the user-friendly process, one or more continuous webs from roller paper are automatically fed and sequentially advanced through a series of operations and stations in a single pass to simultaneously produce the flat paper substrate transaction cards and display carriers.

Abstract: A microelectromechanical systems (MEMS) package includes a substrate extending between a first pair of outer edges to define a length and a second pair of outer edges to define a width. A seal ring assembly is disposed on the substrate and includes at least one seal ring creating a first boundary point adjacent to at least one MEMS device and a second boundary point adjacent at least one of the outer edges. The package further includes a window lid on the seal ring assembly to define a seal gap containing the at least one MEMS device. The seal ring assembly anchors the window lid to the substrate at the second boundary point such that deflection of the window lid into the seal gap is reduced.

Abstract: A microelectromechanical systems (MEMS) package includes a substrate extending between a first pair of outer edges to define a length and a second pair of outer edges to define a width. A seal ring assembly is disposed on the substrate and includes at least one seal ring creating a first boundary point adjacent to at least one MEMS device and a second boundary point adjacent at least one of the outer edges. The package further includes a window lid on the seal ring assembly to define a seal gap containing the at least one MEMS device. The seal ring assembly anchors the window lid to the substrate at the second boundary point such that deflection of the window lid into the seal gap is reduced.

Abstract: A microelectromechanical systems (MEMS) package includes a substrate extending between a first pair of outer edges to define a length and a second pair of outer edges to define a width. A seal ring assembly is disposed on the substrate and includes at least one seal ring creating a first boundary point adjacent to at least one MEMS device and a second boundary point adjacent at least one of the outer edges. The package further includes a window lid on the seal ring assembly to define a seal gap containing the at least one MEMS device. The seal ring assembly anchors the window lid to the substrate at the second boundary point such that deflection of the window lid into the seal gap is reduced.

Abstract: An in-line process is provided for economical manufacture of attractive flat paper substrate transaction cards with or without an RFID chip embedded therein. In the user-friendly process, one or more continuous webs from roller paper are automatically fed and sequentially advanced through a series of operations and stations in a single pass.

Abstract: An in-line process is provided for economical manufacture of attractive flat paper substrate transaction cards with or without an RFID chip embedded therein.

Abstract: An in-line process is provided for economical and concurrent manufacture of attractive flat paper substrate transaction cards and display carriers with or without an RFID chip embedded therein. In the user-friendly process, one or more continuous webs from roller paper are automatically fed and sequentially advanced through a series of operations and stations in a single pass to simultaneously produce the flat paper substrate transaction cards and display carriers.

Abstract: A method and apparatus for testing network elements within a communications system. A test is initiated at a data processing system located at a first site by the selection of one or more network elements for testing. In initiating the test, a communications link is established between the data processing system located at the first site and a network element located at a second site. The network element is monitored during testing of the network element using the communications link. The information is displayed on the data processing system in the form of a web page. Monitoring of the network element is paused from the data processing system in response to detecting an error originating from the network element. Monitoring of the network element is restarted from the data processing system in response to a correction of the error.

Abstract: A home traction table (10) having a generally planar table (11) being supported by a pair of T-shaped leg members (20) and (21). A pelvic support frame (48) is disposed perpendicular to the plane of the table. A pelvic harness (42) is provided for supporting the pelvic area of patient (1) by attaching harness (42) to pelvic frame (48). A weight brace (31) is attached to the head end of planar table (11) and extends angularly upward from that end. A pulley (32) is rotatably mounted in the extended end of weight brace (31). A head harness (35) is provided which longitudinally supports the head of patient (1) and is attached by a flexible member, such as rope, to an adjustable weight. The flexible member is slidably received by pulley (32) which converts the downward weight force to a longitudinal tensive traction force. An elongated rectangular vibrating pad (14) is pivotally mounted within planar table (11) and has a vibrator motor (29 ) attached thereto.

Abstract: A home traction table 10 having a generally planar table 11 being supported by a pair of T-shaped leg members 20 and 21. A pelvic support frame 48 is disposed perpendicular to the plane of the table. A pelvic harness 42 is provided for supporting the pelvic area of patient 1 by attaching harness 42 to pelvic frame 48.A weight brace 31 is attached to the head end of planar table 11 and extends angularly upward from that end. A pulley 32 is rotatably mounted in the extended end of weight brace 31. A head harness 35 is provided which longitudinally supports the head of patient 1 and is attached by a flexible member, such as rope, to an adjustable weight. The flexible member is slidably received by pulley 32 which converts the downward weight force to a longitudianl tensive traction force.An elongated rectangular vibrating pad 14 is privotally mounted within planar table 11 and has a vibrator motor 29 attached thereto.