Abstract: A deployment system for forming an incision in a target vessel, for placement of an anastomosis device and for deployment of an anastomosis device having an inner flange formed by radial expansion of the device and an outer flange formed by axial compression of the device.

Abstract: A reel comprises a drum assembly enclosed within a shell comprising upper and lower shell portions. The drum assembly is secured to the lower shell portion. The drum assembly comprises a motor-driven rotating drum rigidly secured between two discs, and a frame subassembly. The drum is adapted to received a linear material spooled thereon. A first of the discs has a spiral groove on an outer surface thereof. The spiral groove has a first end near the center of the first disc and a second end near an outer edge thereof. The second end is tapered to lesser depth. The frame subassembly comprises side plates enclosing the drum and discs. A first side plate has a track assembly attached to its inner surface, and a translating plate adapted to translate horizontally within the track assembly. The translating plate has a horizontal pin at each of its ends, which pins are adapted to be received within the spiral groove of the first disc.

Abstract: A compliant structure which includes a means for sensing translation and rotation of a top plate is disclosed. The structure is composed of a base plate and three supporting legs. The legs are compliant. The deflections of the structure are substantially in a plane and the translation and twist of the top platform may be measured by the gimbaled sensor assembly attached to one of the legs.

Abstract: A reel comprises a drum assembly enclosed within a shell comprising upper and lower shell portions. The drum assembly is secured to the lower shell portion. The drum assembly comprises a motor-driven rotating drum rigidly secured between two discs, and a frame subassembly. The drum is adapted to received a linear material spooled thereon. A first of the discs has a spiral groove on an outer surface thereof. The spiral groove has a first end near the center of the first disc and a second end near an outer edge thereof. The second end is tapered to lesser depth. The frame subassembly comprises side plates enclosing the drum and discs. A first side plate has a track assembly attached to its inner surface, and a translating plate adapted to translate horizontally within the track assembly. The translating plate has a horizontal pin at each of its ends, which pins are adapted to be received within the spiral groove of the first disc.

Abstract: A data input glove for use with a computer system, virtual reality system or the like, with numerous electrodes place on the glove and interconnected with electronic controls enabling sensing of contact between any combination of the electrodes, with electrodes made of flexible electrically conductive fabric, silk-screened electrically conductive paint or the like.

Abstract: A compliant structure which includes a sensor for sensing translation and rotation of a top plate is disclosed. The structure is composed of a base plate and three supporting legs. The legs are compliant. The deflections of the structure are substantially in a plane and the translation and twist of the top platform may be measured by the gimbaled sensor assembly attached to one of the legs.

Abstract: The spring counterbalanced boom suspension system is designed for suspending a viewer for use in a visual virtual environment system. The spring counterbalanced boom suspension has an improved range of motion which allows for fully counterbalanced movement of the viewing device to a vertical positions, and to horizontal positions on either side of the vertical. The viewer is suspended by a counterbalanced boom arm which is in turn supported by a cantilever arm pivotably and rotatably connected to a support structure. A tension spring is connected between the support structure and an attachment point on the cantilever arm by a cable for counterbalancing the weight of the viewing means and the boom arm. The spring tension and preload are adjusted to the geometry and counterbalancing weight of the suspension system, and the cantilever arm is capable of a fully counterbalanced range of motion.