Abstract: An electrical fuse (100) comprising: —an electrical conductor element (108) comprising a melting section (110) and further comprising a first extension section (112) and a second extension section (114) both integrally formed with the melting section (110) and extending from both ends of the melting section (110) in the lengthwise direction thereof, —an electrically insulating, multi-part housing (102), which encloses said melting section (110) in an interior space (116), wherein the multi-part housing (102) comprises a first part (104) and a second part (106) slidingly engaged with said first part (104) and arranged such that the second part (106) covers an access opening (118) of the first part to the interior space (116), and wherein the first extension section (112) and second extension section (114) comprise a terminal area, respectively, both terminal areas are arranged outside the multi-part housing (102).

Abstract: A power outlet module, comprising an electrically insulating unitary body, said unitary body comprising a base and an outlet core extending from said base. Said outlet core comprises a plurality of recesses extending in longitudinal direction thereof. The power outlet module further comprises a plurality of terminals made of an electrically conductive material each positioned in one of the plurality of recesses. The terminals each extend in a plane, each terminal including two legs extending in parallel to each other, facing each other with a predetermined gap in-between. The two legs at one end merge into a merging portion, said legs being bendable via the merging portion in a direction parallel to the plane.

Abstract: A signaling device adapted to be electrically coupled to an electric potential applied to terminals of a fuse element or to clips of a fuse holder. The signaling device is adapted to signal to the outside at least one property of the fuse element. In addition, the signaling device includes at least one transmission layer having an electrically controllable transmission factor.

Abstract: Current-limiting fuse comprising an electrically insulating housing with walls surrounding an interior space, with a first opening and with a second opening opposite to said first opening, and an integrally formed electrical conductor element extending from a first terminal area outside said housing, across said first opening, across said interior space, across said second opening and to a second terminal area outside said housing, wherein said conductor element comprises a melting section of reduced cross-section, said melting section being located in said interior space and being configured to melt, when a predefined maximum allowable electrical current in the conductor element is exceeded, and wherein a first sealing section of the conductor element seals said first opening and wherein a second sealing section of the conductor element seals said second opening. The invention is further directed to a method of manufacturing the current-limiting fuse.

Abstract: A method of manufacturing a fuse includes stacking a base plate, an at least partially conductive fabric over the base plate and a cover layer over the fabric, each with an intervening bonding layer. At least one cavity is provided on both sides of the fabric, adjoining the fabric, between the respective edge regions. In addition, the fabric includes at least one first fiber which is electrically conductive and second fibers which are non-conductive and which have a lower melting temperature than the first fiber. The method further includes heating the stacked elements to a temperature below the melting temperature of the first fiber and above the melting temperature of the second fibers.

Abstract: A signaling device adapted to be electrically coupled to an electric potential applied to terminals of a fuse element or to clips of a fuse holder. The signaling device is adapted to signal to the outside at least one property of the fuse element. In addition, the signaling device includes at least one transmission layer having an electrically controllable transmission factor.

Abstract: A method of manufacturing a fuse includes stacking a base plate, an at least partially conductive fabric over the base plate and a cover layer over the fabric, each with an intervening bonding layer. At least one cavity is provided on both sides of the fabric, adjoining the fabric, between the respective edge regions. In addition, the fabric includes at least one first fiber which is electrically conductive and second fibers which are non-conductive and which have a lower melting temperature than the first fiber. The method further includes heating the stacked elements to a temperature below the melting temperature of the first fiber and above the melting temperature of the second fibers.

Abstract: An activatable thermal fuse includes a first electrical terminal, a second electrical terminal, and an electrically conductive bridge element having a first electric contact with the first electrical terminal and a second electric contact with the second electrical terminal. At least a part of the bridge element is displaceable from a first position in which the first contact is established to a second position in which the first contact is opened, and a thermally sensitive member releases the part when exposed to a predetermined temperature value. An activating element blocks displacement of the part from the first position, in a first position of the activating element, and enables the displacement of the part in a second position of the activating element. A method of manufacturing a printed circuit board, a method of monitoring, and an electronic circuit including the thermal fuse are also provided.

Abstract: A fuse element, in particular suited for use in electric and/or electronic circuits constructed by multilayer technology, including a printed circuit board substrate material, which is usable particularly in the multilayer technology and is coated with a metal or metal alloy from which the fuse is generated by means of photolithographic and/or printing image-producing techniques and ensuing etching or engraving processes, is proposed. The fuse is distinguished in that the printed circuit board substrate material, on which the fuse can be provided, includes at least a high-temperature-stable, electrically insulating material, with a coefficient of thermal expansion that varies essentially analogously to the coefficient of thermal expansion of the metal or metal alloy from which the fuse is made.

Abstract: The invention relates to a fuse element (12_1; 12_2), comprising two connecting contacts (24_1?, 24_1?; 24_2?, 24_2?) and an interposed conductive track (26_1; 26_2), wherein the conductive track (26_1; 26_2) has a reduced line-cross-section, in relation, to the connecting contacts (24_1?, 24_1?; 24_2?, 24_2?) at least in some sections, further comprising at least one overlay (16_1; 16_2?, 16_2?), wherein the fuse element (12_1; 12_2) and the overlay (16_1; 16_2?, 16_2?) each comprise materials which undergo diffusion when a predetermined ambient temperature is exceeded and when an electric current is conducted by the fuse element (12_1; 12_2). The invention further relates to a fuse (TO) having such a fuse element (12_1; 12_2) and a base support (14), wherein the fuse element (12_1; 12_2) is disposed on a surface of the base support (14).

Abstract: An activatable thermal fuse includes a first electrical terminal, a second electrical terminal, and an electrically conductive bridge element having a first electric contact with the first electrical terminal and a second electric contact with the second electrical terminal. At least a part of the bridge element is displaceable from a first position in which the first contact is established to a second position in which the first contact is opened, and a thermally sensitive member releases the part when exposed to a predetermined temperature value. An activating element blocks displacement of the part from the first position, in a first position of the activating element, and enables the displacement of the part in a second position of the activating element. A method of manufacturing a printed circuit board, a method of monitoring, and an electronic circuit including the thermal fuse are also provided.

Abstract: A fuse element, in particular suited for use in electric and/or electronic circuits constructed by multilayer technology, including a printed circuit board substrate material, which is usable particularly in the multilayer technology and is coated with a metal or metal alloy from which the fuse is generated by means of photolithographic and/or printing image-producing techniques and ensuing etching or engraving processes, is proposed. The fuse is distinguished in that the printed circuit board substrate material, on which the fuse can be provided, includes at least a high-temperature-stable, electrically insulating material, with a coefficient of thermal expansion that varies essentially analogously to the coefficient of thermal expansion of the metal or metal alloy from which the fuse is made.

Abstract: The present invention relates to an appliance connector device having an A plug contact, a B plug contact and a G plug contact, an A? terminal, a B? terminal and a G? terminal, an electrically conducting filter jacket and a filter module, wherein the filter module has an A? conductor, a B? conductor and a G? conductor, wherein the A contact is connected to the A? terminal via the A? conductor, wherein the B contact is connected to the B? terminal via the B? conductor, wherein the G contact is connected to the G? terminal via the G? conductor, wherein the G? conductor of the filter module has a shielding plate extending in a cross-sectional plane of the filter jacket and wherein the filter module has capacitance elements on both sides of the shielding plate with conducting surfaces aligned parallel to the shielding plate to generate capacitances between the A? conductor and the B? conductor and between these conductors and the G? conductor.

Abstract: The present invention relates to an appliance connector device having an A plug contact, a B plug contact and a G plug contact, an A? terminal, a B? terminal and a G? terminal, an electrically conducting filter jacket and a filter module, wherein the filter module has an A? conductor, a B? conductor and a G? conductor, wherein the A contact is connected to the A? terminal via the A? conductor, wherein the B contact is connected to the B? terminal via the B? conductor, wherein the G contact is connected to the G? terminal via the G? conductor, wherein the G? conductor of the filter module has a shielding plate extending in a cross-sectional plane of the filter jacket and wherein the filter module has capacitance elements on both sides of the shielding plate with conducting surfaces aligned parallel to the shielding plate to generate capacitances between the A? conductor and the B? conductor and between these conductors and the G? conductor.

Abstract: A insulating body supports contact pins which are insulated against each other and extend from the outside through the insulating body to the inside. At the inner side which in use is enclosed in a housing of the appliance and thus is not accessible from the outside, at least one electrical fuse is located which is connected in an electrically conducting manner to the corresponding contact pin and the corresponding inner connecting member. An exchanging of the fuse wire insert is possible only from the inner side when the housing of the appliance has been opened, thus only by a skilled person. This allows a simple and low cost solution.

Abstract: The protective equipment switch comprises a mechanical switching contact (2) for a conductor (S1-S3), a latchable switch latch (6) for the switching contact (2), an overcurrent sensor (3) associated with the conductor, and an electromechanical undervoltage relay (7) whose exciting voltage is derived from the conductor voltage and which in its excited state latches the switch latch (6). In the case of overcurrent, the overcurrent sensor (3) causes the separation of the undervoltage relay (7) from its exciting voltage which also drops in the case of undervoltage. Thus both in the case of overcurrent and in the case of undervoltage, unlatching of the switch latch (6) is caused by the same component, namely by the undervoltage relay (7). Preferably the overcurrent sensor (3) is formed by the combination of a current transformer signal with an electronic circuit which itself is preferably an integrated circuit.

Abstract: The breaker mechanism (6) has a position to either side of a zero position and is distinguished in that it has a minimum number of few parts, and that it can be assembled from only one direction. This ensures a trip-free mechanism. Conversely, switching on is impossible when the breaker mechanism (6) is unlatched. The breaker mechanism (6) has an intermediate piece (15) that is assigned an alternating function in reference to the two positions. Together with a rotary handle (12), it forms a toggle lever joint with two effective ends.