Abstract: A seam jump connector provides connectivity over an irregular area, such as seam, in a textile. The textile is part of a textile base structure that includes one or more electrically conductive interconnects formed either directly on the textile or on intermediate substrates that are attached to the textile. The intermediate substrates can be TPU sheets having conductive interconnects printed on a surface. The conductive interconnects of the textile base structure are discontinuous at an irregular area on the textile, and the seam jump connector includes a flexible and/or stretchable substrate with conductive interconnects. The seam jump connector is aligned with and stacked onto the conductive interconnects so as to provide electrical connectivity across the irregular area. The seam jump connectors can be configured to be permanently or removably attached to the textile base structure.

Abstract: An interconnect component is configured as an adapter or interposer providing mechanical and electrical interconnects between conductive threads, such as those woven within fabrics, and electrical connection points, such as contact pads on a printed circuit board (PCB), a flexible printed circuit (FPC), and/or a rigid-flex circuit board.

Abstract: A shield cover and a shield retaining such a cover with an electrical discharge system with an activated condition wherein electrical power is applied to an electrically conductive pathway, which can be formed from positive and negative electrical pathways running generally parallel, on the shield cover. The shield cover has a shield cover body for being applied to, retained by, and removed from the shield body. An electrical discharge system is formed by a source of electrical power, the electrically conductive pathway, and a switch or other actuator for activating the electrical discharge system to the activated condition. The shield cover body could be formed from a stretch fabric, and the electrically conductive pathway could be formed by conductive thread. Electrical insulation material can prevent arcing between the shield cover and the shield body. An arcing structure can automatically or selectively produce visible or audible electrical arcing.

Abstract: An interconnect component is configured as an adapter or interposer providing mechanical and electrical interconnects between conductive threads, such as those woven within fabrics, and electrical connection points, such as contact pads on a printed circuit board (PCB), a flexible printed circuit (FPC), and/or a rigid-flex circuit board.

Abstract: An integrated body armor garment for providing protection to a wearer against ballistic impacts. The garment has a body portion and a ballistic resistant armor system. The body portion can have an outer shell and an underlayer, and the armor system can be embedded within the body portion between the outer shell and the underlayer. The garment can be an upper body garment with a torso portion and left and right arm sleeves and a ballistic-resistant collar, and the armor system can be an upper torso armor system with body armor panels overlapping in a reverse shingle configuration. The armor system can have a plurality of armor panels connected by a resilient cord or other elastic suspension network. The network can be adjustable, as by a cinching of the cord, to permit the body armor panels to be adjusted in relative position.

Abstract: A shield cover and a shield retaining such a cover with an electrical discharge system with an activated condition wherein electrical power is applied to an electrically conductive pathway, which can be formed from positive and negative electrical pathways running generally parallel, on the shield cover. The shield cover has a shield cover body for being applied to, retained by, and removed from the shield body. An electrical discharge system is formed by a source of electrical power, the electrically conductive pathway, and a switch or other actuator for activating the electrical discharge system to the activated condition. The shield cover body could be formed from a stretch fabric, and the electrically conductive pathway could be formed by conductive thread. Electrical insulation material can prevent arcing between the shield cover and the shield body. An arcing structure can automatically or selectively produce visible or audible electrical arcing.

Abstract: An integrated body armor garment for providing protection to a wearer against ballistic impacts. The garment has a body portion and a ballistic resistant armor system. The body portion can have an outer shell and an underlayer, and the armor system can be embedded within the body portion between the outer shell and the underlayer. The garment can be an upper body garment with a torso portion and left and right arm sleeves and a ballistic-resistant collar, and the armor system can be an upper torso armor system with body armor panels overlapping in a reverse shingle configuration. The armor system can have a plurality of armor panels connected by a resilient cord or other elastic suspension network. The network can be adjustable, as by a cinching of the cord, to permit the body armor panels to be adjusted in relative position.

Abstract: A self-defense wearable with a body portion, an electrically conductive pathway applied over the body portion, an electrically charged seam construction for producing an electric charge relative to an outer surface of the body portion, a power source, an activating switch for inducing the self-defense wearable into a charged condition, and a wiring network for producing an electrical association between the electrically conductive pathway, the power source, and the at least one activating switch. The self-defense wearable can be an upper body covering, and the activating switch can be a compression activated switch disposed on a tongue disposed at a distal end of an arm of the self-defense wearable to underlie the wearer's palm whereby the self-defense wearable can be induced into a charged condition by a clenching of the wearer's hand.