An interconnection mechanism for LED bar lighting includes a plug mechanism and a socket mechanism. The plug mechanism includes a hollow socket, a plug, and a connection pin. The hollow socket includes a hollow plug barrel, a stop ring, a wedge importing ring, and at least one opening. A slope of the wedge importing ring extends toward a free end of the hollow plug barrel. The connection pin includes at least one plug locating ring, at least one socket locating ring, and at least one socket locating bar. The plug locating ring is arranged between the stop ring and the wedge importing ring for fixing the relative position of the connection pin and the hollow socket. The socket mechanism includes a hollow socket barrel, and a locating slot. The socket locating bar is engaged with the locating slot so as to fix the relative position of the connection pin and the hollow socket barrel.

A pressure contact terminal includes a component clip configured to clip an electronic component and be electrically connected with the electronic component, a pressure contact blade to be connected with a wire by pressure contact, and a step connection configured to connect the component clip and the pressure contact blade to each other at different bottom face heights.

Present invention disclosed a threaded lamp socket conversion connector, having the major parts of a metal shell, a metal contact point located at the top portion of said metal shell, an insulator surrounding the metal contact point, a plastic main body, a first terminal piece and a second terminal piece. By relying on the terminal pieces extending and connecting from the structure of a connection port, different power input sources pertaining to the newer generation energy-saving lights can be converted to the prevalent E26/E27 specification via the connection mechanism as disclosed in the present application.

An embodiment includes a holder assembly with terminals that are supported by insert molding. The terminals are electrically connector to conductors, which can be covered with an insulative covering, and thus provide easy to connector holder assemblies. The holder can include features that allow an LED module to be inserted into a recess in the housing and retained via a friction fit. Such a configuration allows the assembly to be shipped as an assembly without the need to solder the LED module to the holder and while still ensuring a reliable electrical connection between the LED module and the corresponding holder assembly.

In various embodiments, a reflector lamp having a longitudinal axis is provided. The reflector lamp may include: a reflector which has a contour and a neck, with a pin base resting at the end of said neck, a light source arranged in the reflector, wherein the light source is fastened in the reflector with the aid of a mounting clip, which simultaneously adjusts the light source, wherein the mounting clip comprises three sections, namely a first section which holds the light source, a second section which serves for the adjustment in the neck and a third section which is used for the base connection.

An apparatus for connecting an electrical device to a high-voltage power grid with a leadthrough plug-in bushing which has a hollow receiving section which extends in a plug-in direction and is composed of an electrically nonconductive insulating material, wherein a metallic contact part is arranged on a closed end region of the receiving section, which metallic contact part extends through the insulating material of the receiving section or lengthens said receiving section in the direction of the closed end region. The apparatus can be assembled and serviced in a simple, quick and therefore cost-effective manner. The receiving section is equipped with a current sensor which is designed to detect an electric current flowing across the metallic contact part.

Embodiments of the present disclosure generally relate to an improved retention and insulation features for lamps used as a source of heat radiation in a thermal processing chamber. In one embodiment, a process chamber is provided. The process chamber includes a lamp assembly for thermal processing of semiconductor substrates, the lamp assembly has a lamp electrical connector and a first laterally operative element, a lamp assembly housing having a passage for receiving the lamp assembly, a power distribution assembly having a receptacle for receiving the lamp electrical connector and delivering power to the lamp electrical connector, and a spacer plate disposed between the lamp assembly housing and the power distribution assembly, wherein the spacer plate has a passage contoured to allow passage of the lamp electrical connector therethrough, and the spacer plate has a retention feature configured to engage or disengage the first laterally operative element.

Embodiments of the present disclosure generally relate to an improved retention and insulation features for lamps used as a source of heat radiation in a thermal processing chamber. In one embodiment, a process chamber is provided. The process chamber includes a lamp assembly for thermal processing of semiconductor substrates, the lamp assembly has a lamp electrical connector and a first laterally operative element, a lamp assembly housing having a passage for receiving the lamp assembly, a power distribution assembly having a receptacle for receiving the lamp electrical connector and delivering power to the lamp electrical connector, and a spacer plate disposed between the lamp assembly housing and the power distribution assembly, wherein the spacer plate has a passage contoured to allow passage of the lamp electrical connector therethrough, and the spacer plate has a retention feature configured to engage or disengage the first laterally operative element.

An adaptor includes: a main body, a first and a second grooves being disposed in the main body; a connection port is disposed at a bottom end of the main body, one end of the two grooves communicating with the connection port; an electrode case is connected around the main body to enclose the main body; an electrode member disposed at a top end of the main body; and a first conductive plate and a second conductive plate respectively mounted in the first and second grooves of the main body. The connection end of the first conductive plate is electrically connected with the electrode member. The connection end of the second conductive plate is electrically connected with the electrode case. The contact ends of the two conductive plates are positioned in the connection port.

A decorative lamp structure which includes at least one set of light emitting elements, a power connector and a connecting wire. Each set of light emitting elements includes a plurality of light emitting elements spacedly connected in series on the connecting wire. Each light emitting element is connected to a bidirectional diode in parallel. When one or more of the light emitting element is faulty or damaged, the bidirectional diode of the faulty or damaged light emitting element is triggered and turned on so that the light emitting elements in the same set of light emitting elements are capable of working safely at a constant voltage. The connecting wire has two terminals connecting to the power connector respectively. In other words, when one or more light beads fails, the remaining light beads can still work under normal voltage and hence the Christmas decorative lamp structure can still operate safely.