Abstract: This disclosure relates generally to the fields of data management, collection, conditioning, and curation for driving advanced data analytics, artificial intelligence (AI) and machine learning (ML), and more particularly to contextualized data collection and curation for adaptive learning and for training advanced autonomy models in multi-actor applications in dynamic high-risk environments (e.g., multi-domain socio-technical work environments (MSWEs))—from mission control to military operations, from operating rooms to racecar engineering—where experts must effectively employ technologies to drive data-informed decisions based on situational assessment. This disclosure provides enabling technology for ML-based autonomy solutions to effectively utilize current and emerging analysis and debrief tools across relevant domains, which necessitates an inclusion of formal data contextualization processes.

Abstract: A tissue fixation device includes an elongated body extending between a proximal portion and a distal portion including a plurality of barbed loops. The elongated body, proximal portion, and distal portion are provided in a variety of configurations depending upon the performance requirements desired of the tissue fixation device for the envisaged application of use.

Abstract: A tissue fixation device includes an elongated body defining a longitudinal axis and including a proximal end and a distal end. At least two barbed segments diverge distally away from the distal end of the elongated body and a pledget is disposed at distal ends of the barbed segments. The elongated body, barbed segments, and pledget are provided in a variety of configurations depending upon the performance requirements desired of the tissue fixation device for the envisaged application of use.

Abstract: A tissue fixation device includes an elongated body extending between a distal portion including a barbed loop, and a proximal portion including a blunt tip. The elongated body, proximal portion, and distal portion are provided in a variety of configurations depending upon the performance requirements desired of the tissue fixation device for the envisaged application of use.

Abstract: A tissue fixation device includes an elongated body defining a longitudinal axis and including a proximal end and a distal end. At least two barbed segments diverge distally away from the distal end of the elongated body and a pledget is disposed at distal ends of the barbed segments. The elongated body, barbed segments, and pledget are provided in a variety of configurations depending upon the performance requirements desired of the tissue fixation device for the envisaged application of use.

Abstract: A tissue fixation device includes a barbed body in a general figure eight configuration including a first loop intersecting a second loop. The barbed body may include a third loop at a proximal end thereof, and/or a pledget at a distal end thereof. The configuration of the tissue fixation device may vary depending upon the performance requirements desired of the tissue fixation device for the envisaged application of use.

Abstract: A tissue fixation device includes an elongated body extending between a distal portion including a barbed loop, and a proximal portion including a blunt tip. The elongated body, proximal portion, and distal portion are provided in a variety of configurations depending upon the performance requirements desired of the tissue fixation device for the envisaged application of use.

Abstract: A tissue fixation device includes an elongated body extending between a proximal portion and a distal portion including a plurality of barbed loops. The elongated body, proximal portion, and distal portion are provided in a variety of configurations depending upon the performance requirements desired of the tissue fixation device for the envisaged application of use.

Abstract: A method and apparatus is disclosed for reliably storing data to be written to a peripheral device subsystem. The method disclosed includes the following steps. A first peripheral device controller, which includes a cache memory, receives write data from a central processor, stores it in its cache memory, and transmits a copy of it to a second peripheral device controller via a communications path. The second controller, which also includes a cache memory, stores the copy of the write data transmitted to it in its cache memory. Meanwhile the first controller processes the write data. In the event the first controller fails, the second controller processes the write data stored in its cache memory. The apparatus disclosed includes a central processor which generates write data. A first peripheral device controller, which includes a cache memory, is coupled to the central processor.