Abstract: A connector assembly of a cartridge of an electronic vaping device may be formed by metal in-molding. The connector assembly may include a connector body that is integrally formed. The connector body may include a base portion that is generally cylindrical, a nose portion extending from a first end of the base portion, and at least two slots extending longitudinally through the base portion and on opposing sides of the nose portion. An electrical lead extends through each of the at least two slots.

Abstract: A system may include a blade die, a first clamping caul positioned on a first side of the blade die, and a second clamping caul positioned on a second side of the blade die. A molding surface of the blade die and a molding surface of the first clamping caul may be configured to bend a first interchangeable blade positioned therebetween into a first shape in response to a first compression force. A second molding surface of the blade die and a molding surface of the second clamping caul may be configured to bend a second interchangeable blade positioned therebetween into a second shape in response to a second compression force.

Abstract: A system may include a blade die, a first clamping caul positioned on a first side of the blade die, and a second clamping caul positioned on a second side of the blade die. A molding surface of the blade die and a molding surface of the first clamping caul may be configured to bend a first interchangeable blade positioned therebetween into a first shape in response to a first compression force. A second molding surface of the blade die and a molding surface of the second clamping caul may be configured to bend a second interchangeable blade positioned therebetween into a second shape in response to a second compression force.

Abstract: Disclosed herein is a padded and prewired exoskeleton harness. The exoskeleton harness comprises a clothing article including a clothing material to receive at least a portion of a user. In certain embodiments, the clothing material includes a fabric and at least one patch with a greater coefficient of static friction and greater thickness than the fabric to increase the friction between the user and the exoskeleton, thereby increasing coupling and power transfer therebetween. In certain embodiments, the exoskeleton harness includes at least one internal electronic port positioned at an interior of the clothing material to electronically communicate with one of a plurality of skin-mounted biosensors. The internal ports are prewired within the clothing material to an external electronic a port for communicating with the exoskeleton. The prewiring of the exoskeleton harness facilitates connection between skin-mounted sensors and a data acquisition (DAQ) system.

Abstract: A wheelchair (10) comprises a seat member (14) pivotally mounted on support beam (16) of a chassis (12). The chassis (12) includes a pair of spaced-apart side elements (18), each depending from the support beam (16) and having a first part (20) supporting a front ground-engaging wheel (22) and a second part (24) supporting a rear ground-engaging wheel (26). A bracing member (32) extends between the second parts (24) of the side elements (18), and supports a variable length strut (68). The variable length strut (68) extends from the bracing member (32) to rearward part (66) of seat member (14) and controls pivotal movement of seat member (14) around support beam (16).