A high voltage connection between a first line of a traveling wave tube and a second line of a voltage supply unit for the traveling wave tube includes a plug which is connected to an end section of the first line or of the second line by a crimp connection, and a socket which is connected to an end section of the other line by a crimp connection. Furthermore, a method for manufacturing a high voltage connection is also described.

A high voltage connection between a first line of a traveling wave tube and a second line of a voltage supply unit for the traveling wave tube includes a plug which is connected to an end section of the first line or of the second line by a crimp connection, and a socket which is connected to an end section of the other line by a crimp connection. Furthermore, a method for manufacturing a high voltage connection is also described.

A method for litz wire termination includes placing a ferrule over exposed conductors on an end of litz wire. The exposed conductors include a portion of the litz wire without an external insulation layer, and a portion at the end of the litz wire protrude past the ferrule. The method includes crimping the ferrule to the litz wire and placing the end of the litz wire with the ferrule in molten solder past the end of the ferrule. The method includes maintaining the litz wire in the molten solder until insulation on conductors of the litz wire is removed from the conductors in the molten solder and solder bonds to the conductors that are within in the molten solder. The method includes removing the litz wire from the molten solder and allowing the litz wire to cool until molten solder bonded to the conductors transitions to a solid state.

A splice for use in high voltage electrical environment employing a combination of cold-shrink and interference fit in a single splice component allowing for the use of a shortened core at a first cold splice end and the absence of a cable adapter at the interference fit second end.

A heat-shrinkable slitted tube includes a tube main body capable of bending into a tube shape and which shrinks due to application of heat; and a heat-resistant tape which, in a closed state where the tube main body is deformed so as to close a slit extending in a length direction, fastens together areas proximate to two end portions of the tube main body so as to maintain the closed state. In the heat-shrinkable slitted tube, in a case where, by affixing the heat-resistant tape to the tube main body such that one of the end portions is positioned at a short-direction center portion of an indicator of the heat-resistant tape, the other end portion is brought together with the end portion to achieve the closed state, the heat-resistant tape is affixed so as to intervene between the areas proximate to the two end portions.

A heat-shrinkable slitted tube includes a tube main body capable of bending into a tube shape and which shrinks due to application of heat; and a heat-resistant tape which, in a closed state where the tube main body is deformed so as to close a slit extending in a length direction, fastens together areas proximate to two end portions of the tube main body so as to maintain the closed state. In the heat-shrinkable slitted tube, in a case where, by affixing the heat-resistant tape to the tube main body such that one of the end portions is positioned at a short-direction center portion of an indicator of the heat-resistant tape, the other end portion is brought together with the end portion to achieve the closed state, the heat-resistant tape is affixed so as to intervene between the areas proximate to the two end portions.

The present invention relates to a push device, a wire processing device and a wire processing method. The push device comprises of: a driving device configured to generate a driving force; a transmission mechanism flexibly connected with the driving device; and a pushing part fixedly connected with the transmission mechanism and being movable under the drive of the transmission mechanism. When the pushing part is moved, the pushing part transmits a pushed part to a predetermined position; when the pushed part is transmitted to the predetermined position, the driving force of the driving device stops acting on the driving mechanism. In the present invention, the driving device drives the pushing part to move by the transmission mechanism, and when the pushing part moves, the insulation heat shrinkable tube is pushed to a predetermined position to facilitate the next processing operation. At least one of the two pushing parts is movable to push the insulation heat shrinkable tube to the predetermined position.

The present invention relates to a push device, a wire processing device and a wire processing method. The push device comprises of: a driving device configured to generate a driving force; a transmission mechanism flexibly connected with the driving device; and a pushing part fixedly connected with the transmission mechanism and being movable under the drive of the transmission mechanism. When the pushing part is moved, the pushing part transmits a pushed part to a predetermined position; when the pushed part is transmitted to the predetermined position, the driving force of the driving device stops acting on the driving mechanism. In the present invention, the driving device drives the pushing part to move by the transmission mechanism, and when the pushing part moves, the insulation heat shrinkable tube is pushed to a predetermined position to facilitate the next processing operation. At least one of the two pushing parts is movable to push the insulation heat shrinkable tube to the predetermined position.

A joint structure of a high-voltage cable includes a cable core wrapped from interior to exterior sequentially by an inner insulating layer, a shielding layer and an outer insulating layer, a section of the inner and outer insulating layers is stripped at an end of the cable core, and a length of the stripped section of the outer insulating layer is greater than a length of the stripped section of the inner insulating layer. The end of the cable core is connected to an external terminal, a connection between the end and the external terminal and an adjacent section of the inner insulating layer are wrapped by a heat-shrinkable tube, a spacing is provided between an end of the heat-shrinkable tube and the outer insulating layer, the shielding layer within the spacing is wrapped by a copper foil and connected externally to a cable connector via the copper foil.

A joint structure of a high-voltage cable includes a cable core wrapped from interior to exterior sequentially by an inner insulating layer, a shielding layer and an outer insulating layer, a section of the inner and outer insulating layers is stripped at an end of the cable core, and a length of the stripped section of the outer insulating layer is greater than a length of the stripped section of the inner insulating layer. The end of the cable core is connected to an external terminal, a connection between the end and the external terminal and an adjacent section of the inner insulating layer are wrapped by a heat-shrinkable tube, a spacing is provided between an end of the heat-shrinkable tube and the outer insulating layer, the shielding layer within the spacing is wrapped by a copper foil and connected externally to a cable connector via the copper foil.