The invention relates to a contact element, made of an electrically conductive contact material. In order to provide a contact element which can be passed repeatedly and non-destructively through a housing or a seal of a plug connector in and/or opposite to a direction of insertion (E), a contact element is provided comprising a body extending in the direction of insertion (E) and a position securing element disposed on an upper side of the body, projecting upwards out of an opening in the body transversely to the direction of insertion (E), and that can be deflected elastically, the position securing element having a slope surface that is inclined against the direction of insertion (E), adjoining which, without any kinks or edges, are a curved section and an end section, and the end section ending with a free end within the cubature of the body.

The invention relates to a contact element, made of an electrically conductive contact material. In order to provide a contact element which can be passed repeatedly and non-destructively through a housing or a seal of a plug connector in and/or opposite to a direction of insertion (E), a contact element is provided comprising a body extending in the direction of insertion (E) and a position securing element disposed on an upper side of the body, projecting upwards out of an opening in the body transversely to the direction of insertion (E), and that can be deflected elastically, the position securing element having a slope surface that is inclined against the direction of insertion (E), adjoining which, without any kinks or edges, are a curved section and an end section, and the end section ending with a free end within the cubature of the body.

A powering surface assembly includes an electric power transfer arrangement connected to a power source, and having at least one of a conductive fabric, a conductive foam, or an inductive transmitter coil. A light assembly includes an electric power receiving arrangement, which electrically couples with the electric power transfer arrangement when the light assembly is attached to the surface assembly, such that power is transferred from the power source to the light assembly. The electric power receiving arrangement includes at least one of electrical contacts which contact the conductive fabric or the conductive foam, or an inductive receiver coil that inductively couples with the inductive transmitter coil.

A powering surface assembly includes an electric power transfer arrangement connected to a power source, and having at least one of a conductive fabric, a conductive foam, or an inductive transmitter coil. A light assembly includes an electric power receiving arrangement, which electrically couples with the electric power transfer arrangement when the light assembly is attached to the surface assembly, such that power is transferred from the power source to the light assembly. The electric power receiving arrangement includes at least one of electrical contacts which contact the conductive fabric or the conductive foam, or an inductive receiver coil that inductively couples with the inductive transmitter coil.

Examples of this disclosure relate to an accessory device for a hearing instrument. The accessory device comprises a connector tip that comprises a first wire segment and a second wire segment. The first and second wire segments are electrically conductive and electrically insulated from each other. The connector tip also comprises a first set of bristles and a second set of bristles. The first and second sets of bristles are electrically conductive. The first set of bristles is electrically connected to the first wire segment and electrically insulated from the second wire segment. The second set of bristles is electrically connected to the second wire segment and electrically insulated from the first wire segment. The first set of bristles is spaced sufficiently far from the second set of bristles as to prevent a short circuit between the first and second sets of bristles.

A terminal (10) of a connector (1) includes a case (20) and a first conductive member (40). The first conductive member (40) includes a junction (43) for connection with a mating terminal. The junction (43) is movable in the compression direction (Y) in which the coil spring (30) is compressed. The case (20) is composed of metal and includes a front wall (22) bent at a front end (21A) of the top wall (21) toward the first conductive member. The front wall (22) is at such a distance from the coil spring (30) that movement of the first conductive member (40) in the compression direction (Y) is not prevented. The front wall (22) includes a support (28) that supports one end (45) of the first conductive member on the front wall side, the one end (45) being movable in the compression direction (Y) at the support when the junction moves.

A terminal (10) of a connector (1) includes a case (20) and a first conductive member (40). The first conductive member (40) includes a junction (43) for connection with a mating terminal. The junction (43) is movable in the compression direction (Y) in which the coil spring (30) is compressed. The case (20) is composed of metal and includes a front wall (22) bent at a front end (21A) of the top wall (21) toward the first conductive member. The front wall (22) is at such a distance from the coil spring (30) that movement of the first conductive member (40) in the compression direction (Y) is not prevented. The front wall (22) includes a support (28) that supports one end (45) of the first conductive member on the front wall side, the one end (45) being movable in the compression direction (Y) at the support when the junction moves.

Provided is an electrical connection device (1) including a connector (2) having a hollow connecting cavity (21), each of two opposite sides of the connecting cavity is connected to a conductive plug (22) electrically coupled with the connecting cavity (21). The connecting cavity (21) is form by a plurality of flexible conductive materials. When in use, the grid-like connecting cavity (21) made of the flexible conductive materials can be elongated, compressed, or radially twisted, and is adaptive to changes in relative displacement at various angles at various angles in the axial direction or radial direction between different electrical connecting bases, thereby preventing degradation of performance of electrical connection due to the changes in relative displacement.

Provided is an electrical connection device (1) including a connector (2) having a hollow connecting cavity (21), each of two opposite sides of the connecting cavity is connected to a conductive plug (22) electrically coupled with the connecting cavity (21). The connecting cavity (21) is form by a plurality of flexible conductive materials. When in use, the grid-like connecting cavity (21) made of the flexible conductive materials can be elongated, compressed, or radially twisted, and is adaptive to changes in relative displacement at various angles at various angles in the axial direction or radial direction between different electrical connecting bases, thereby preventing degradation of performance of electrical connection due to the changes in relative displacement.

A rotatable power strip outlet assembly that includes a power strip housing, a plurality of electrical sockets formed on a front surface of the power strip housing, and a rear plug support member rotatably coupled to the power strip housing, that includes a front surface, a rear surface, and an electrical plug disposed on the rear surface of the rear plug support member and with electrical prongs extending outwardly away from the rear surface of the rear plug support member and electrically coupled to the plurality of electrical sockets, wherein the power strip housing is operably configured to selectively rotate at least 270° with respect to the rear plug support member to reorient the power strip housing while plugged into an electrical outlet.