mhurhangee/ep-ind-claims huggingface dataset:
Switch for a vehicle, in particular as a steering column switch for arrangement on a steering column of a vehicle, with an actuable switch lever which has along its longitudinal axis a bearing element with which the switch lever is mounted movably in a bearing of a base housing, a switching element which is movement-coupled to the switch lever and which is embodied with a contactfree signalling element, wherein the switch lever can be actuated on a first side of the bearing element, and the switching element is arranged on a second side of the bearing element, wherein the switching element is embodied as a reversing lever with a first and a second lever arm (40, 42), the reversing lever is retained in the connection region of the first and second lever arm (40, 42) in a reversing bearing rotatably on the base housing, the signalling element is arranged on the first lever arm, and the second lever arm is coupled to the switch lever, and wherein the switch lever is pivotable about an axis, and the reversing lever converts the movement of the switch lever about the one axis into a corresponding movement of the signalling element about the one axis, characterized in that the switch lever is pivotable about a second axis arranged transversely to the axis, and the reversing lever converts the movement of the switch lever about the two axes (50, 52) into a corresponding movement of the signalling element about the two axes (50, 52). an actuable switch lever which has along its longitudinal axis a bearing element with which the switch lever is mounted movably in a bearing of a base housing, a switching element which is movement-coupled to the switch lever and which is embodied with a contactfree signalling element, wherein the switch lever can be actuated on a first side of the bearing element, and the switching element is arranged on a second side of the bearing element, wherein the switching element is embodied as a reversing lever with a first and a second lever arm (40, 42), the reversing lever is retained in the connection region of the first and second lever arm (40, 42) in a reversing bearing rotatably on the base housing, the signalling element is arranged on the first lever arm, and the second lever arm is coupled to the switch lever, and wherein the switch lever is pivotable about an axis, and the reversing lever converts the movement of the switch lever about the one axis into a corresponding movement of the signalling element about the one axis, characterized in that the switch lever is pivotable about a second axis arranged transversely to the axis, and the reversing lever converts the movement of the switch lever about the two axes (50, 52) into a corresponding movement of the signalling element about the two axes (50, 52).
Bearing assembly comprising ▪ a rolling element bearing having an inner ring (121, 122, 320), an outer ring (105, 301, 302) and a set of rolling elements (111, 112, 311, 312) arranged in a bearing cavity between the inner and outer rings; ▪ a first grease is provided in the bearing cavity, the first grease having a first thermal bleed rate at a specific reference temperature; ▪ a grease cartridge (130, 230, 330), arranged at an axial side of the bearing cavity, the cartridge comprising axially extending passageways (135, 235a, 235b, 35a, 335b) which open into the bearing cavity, whereby at least some of the passageways are filled with a second grease, characterized in that the second grease has a second thermal bleed rate at the specific reference temperature that is lower than the first thermal bleed rate of the first grease and in that the grease cartridge (130, 230, 330) is at least partly made from a honeycomb structure which comprises the axially extending passageways. ▪ a rolling element bearing having an inner ring (121, 122, 320), an outer ring (105, 301, 302) and a set of rolling elements (111, 112, 311, 312) arranged in a bearing cavity between the inner and outer rings; ▪ a first grease is provided in the bearing cavity, the first grease having a first thermal bleed rate at a specific reference temperature; ▪ a grease cartridge (130, 230, 330), arranged at an axial side of the bearing cavity, the cartridge comprising axially extending passageways (135, 235a, 235b, 35a, 335b) which open into the bearing cavity, whereby at least some of the passageways are filled with a second grease,
A light-emitting thyristor (13, 23, 32) comprising: a first semiconductor layer (1010, 2010) of a first conductivity type; a second semiconductor layer (1020a, 2020a, 2020c) of a second conductivity type arranged adjacent to the first semiconductor layer; a third semiconductor layer (1030a, 2030a, 2030c) of the first conductivity type arranged adjacent to the second semiconductor layer; and a fourth semiconductor layer (1040, 2040) of the second conductivity type arranged adjacent to the third semiconductor layer, wherein the first semiconductor layer includes an active layer (1012, 2013) adjacent to the second semiconductor layer, the second semiconductor layer includes a first layer (1021, 2021, 2021b) adjacent to the active layer and a second layer (1022a, 2022a, 2022c) arranged between the first layer and the third semiconductor layer, the first layer has a band gap (BGh) wider than a band gap (BGac) of the active layer (1012, 2013) and a band gap (BGng) of the second layer (1022a, 2022a, 2022c), and characterized in that the band gap (BGng) of the second layer (1022a, 2022a, 2022c) is wider than the band gap (BGac) of the active layer (1012, 2013). a first semiconductor layer (1010, 2010) of a first conductivity type; a second semiconductor layer (1020a, 2020a, 2020c) of a second conductivity type arranged adjacent to the first semiconductor layer; a third semiconductor layer (1030a, 2030a, 2030c) of the first conductivity type arranged adjacent to the second semiconductor layer; and a fourth semiconductor layer (1040, 2040) of the second conductivity type arranged adjacent to the third semiconductor layer, wherein the first semiconductor layer includes an active layer (1012, 2013) adjacent to the second semiconductor layer, the second semiconductor layer includes a first layer (1021, 2021, 2021b) adjacent to the active layer and a second layer (1022a, 2022a, 2022c) arranged between the first layer and the third semiconductor layer, the first layer has a band gap (BGh) wider than a band gap (BGac) of the active layer (1012, 2013) and a band gap (BGng) of the second layer (1022a, 2022a, 2022c), and characterized in that the band gap (BGng) of the second layer (1022a, 2022a, 2022c) is wider than the band gap (BGac) of the active layer (1012, 2013).
A wing arrangement for a projectile, the wing arrangement being configured to be altered between a folded state and a deployed state, the wing arrangement comprising: an elongated wing base configured to be arranged at a circumferential wall of the projectile, the wing base extending longitudinally between a first end and a second end; a wing blade configured to be attached to the wing base along a pivot axis extending along the longitudinal extension of the wing base, the wing blade being folded towards the circumferential wall of the projectile in the folded state and extending away from the circumferential wall in the deployed state; a deployment arrangement configured to control a pivotal movement of the wing blade around the pivot axis from the folded state to the deployed state, the deployment arrangement comprises a power source, a drive block and an elongated drive pin, the drive pin extending longitudinally between a proximal end and a distal end through a throughgoing aperture in the wing base, wherein the throughgoing aperture extends perpendicular to the pivot axis through the wing base, the proximal end of the drive pin is connected to the drive block and the distal end extends into a groove in the wing blade, the power source is configured to displace the drive block whereby the distal end of the drive pin slides along the groove in the wing blade so that the wing blade is pivoted around the pivot axis to the deployed state. an elongated wing base configured to be arranged at a circumferential wall of the projectile, the wing base extending longitudinally between a first end and a second end; a wing blade configured to be attached to the wing base along a pivot axis extending along the longitudinal extension of the wing base, the wing blade being folded towards the circumferential wall of the projectile in the folded state and extending away from the circumferential wall in the deployed state; a deployment arrangement configured to control a pivotal movement of the wing blade around the pivot axis from the folded state to the deployed state, the deployment arrangement comprises a power source, a drive block and an elongated drive pin, the drive pin extending longitudinally between a proximal end and a distal end through a throughgoing aperture in the wing base, wherein the throughgoing aperture extends perpendicular to the pivot axis through the wing base, the proximal end of the drive pin is connected to the drive block and the distal end extends into a groove in the wing blade, the power source is configured to displace the drive block whereby the distal end of the drive pin slides along the groove in the wing blade so that the wing blade is pivoted around the pivot axis to the deployed state.
Electrical device with a functional unit, wherein the functional unit is subdivided into a secure functional block and an non-secure functional block, wherein the functional unit has a single transmission device, wherein the transmission device is designed for transmitting information only from the secure functional block into the non-secure functional block, and wherein the functional unit has a first interface device and the first interface device is arranged in the non-secure functional block, with the further features that a key is stored in the secure functional block, that the secure functional block is designed to assign a meaning to an identifier using the key, to form a value pair from the identifier and a value, and to transmit the value pair to the non-secure functional block via the transmission device, and that the non-secure functional block is designed to transmit the value pair via the first interface.
A quantum memory system comprising a doped ceramic optical device, a magnetic field generation unit, a storage photon generator (270a, 270b), and one or more pump lasers, wherein: the doped ceramic optical device is positioned within a magnetic field of the magnetic field generation unit when the magnetic field generation unit generates the magnetic field; the one or more pump lasers are optically coupled to the doped ceramic optical device; wherein the storage photon generator is optically coupled to the doped ceramic optical device and is structurally configured to output an entangled pair of storage photons comprising a first entangled storage photon entangled with a second entangled storage photon; and characterized in that the doped ceramic optical device is a doped polycrystalline ceramic optical device; wherein the doped polycrystalline ceramic optical device is doped with a rare-earth element dopant that is uniformly distributed within a crystal lattice of the doped polycrystalline ceramic optical device, such that at least 50% of the rare-earth element dopant is doped into grains of the crystal lattice at locations apart from the grain boundaries of the crystal lattice; and the rare-earth element dopant is 0.05% to 0.15% of a total molecular weight of the doped polycrystalline ceramic optical device. the doped ceramic optical device is positioned within a magnetic field of the magnetic field generation unit when the magnetic field generation unit generates the magnetic field; the one or more pump lasers are optically coupled to the doped ceramic optical device; wherein the storage photon generator is optically coupled to the doped ceramic optical device and is structurally configured to output an entangled pair of storage photons comprising a first entangled storage photon entangled with a second entangled storage photon; and characterized in that the doped ceramic optical device is a doped polycrystalline ceramic optical device; wherein the doped polycrystalline ceramic optical device is doped with a rare-earth element dopant that is uniformly distributed within a crystal lattice of the doped polycrystalline ceramic optical device, such that at least 50% of the rare-earth element dopant is doped into grains of the crystal lattice at locations apart from the grain boundaries of the crystal lattice; and the rare-earth element dopant is 0.05% to 0.15% of a total molecular weight of the doped polycrystalline ceramic optical device.
A capacitor comprising: a housing; a wound capacitive couple in said housing wherein said wound capacitive couple comprises: an anode with a dielectric thereon; a cathode; an electrolyte between said cathode and said dielectric; an anode lead in electrical contact with said anode; and a cathode lead in electrical contact with said cathode; a deck secured to said housing and encasing said wound capacitive couple in said housing; an anode press fit pin on said deck and in electrical contact with said anode lead wherein said anode press fit pin comprises an anode riser and an anode compression pin extending from said anode riser opposite said deck; a cathode press fit pin on said deck and in electrical contact with said cathode lead wherein said cathode press fit pin comprises a cathode riser and a cathode compression pin extending from said cathode riser opposite said deck; and a spacer attached to said housing wherein said spacer comprises a central void wherein said anode press fit pin and said cathode press fit pin extend through said void and wherein said spacer extends away from said deck. a housing; a wound capacitive couple in said housing wherein said wound capacitive couple comprises: an anode with a dielectric thereon; a cathode; an electrolyte between said cathode and said dielectric; an anode lead in electrical contact with said anode; and a cathode lead in electrical contact with said cathode; an anode with a dielectric thereon; a cathode; an electrolyte between said cathode and said dielectric; an anode lead in electrical contact with said anode; and a cathode lead in electrical contact with said cathode; a deck secured to said housing and encasing said wound capacitive couple in said housing; an anode press fit pin on said deck and in electrical contact with said anode lead wherein said anode press fit pin comprises an anode riser and an anode compression pin extending from said anode riser opposite said deck; a cathode press fit pin on said deck and in electrical contact with said cathode lead wherein said cathode press fit pin comprises a cathode riser and a cathode compression pin extending from said cathode riser opposite said deck; and a spacer attached to said housing wherein said spacer comprises a central void wherein said anode press fit pin and said cathode press fit pin extend through said void and wherein said spacer extends away from said deck.
A sheet body comprising a first resin layer containing a first resin and a second resin layer containing a second resin, wherein the first resin layer is laminated on one surface of the second resin layer, the first resin layer contains at least one oil component selected from the group consisting of a first oil component and a second oil component, the second oil component contains a low temperature phase-separable oil component that has a hydrophilic group and is capable of exuding out from the first resin layer when a temperature drops to a predetermined value or less, and the following formula and the following formula are satisfied, or the following formula and the following formula are satisfied: Content ratio (mass%) of first resin in first resin layer/Content ratio (mass%) of second resin in second resin layer ≥ 1.75 Content ratio (mass%) of first oil component in first resin layer/Content ratio (mass%) of second oil component in first resin layer ≥ 1 Content ratio (mass%) of first resin in first resin layer/Content ratio (mass%) of second resin in second resin layer ≥ 1.65 Content ratio (mass%) of first oil component in first resin layer/Content ratio (mass%) of second oil component in first resin layer ≥ 4.2 the first resin layer is laminated on one surface of the second resin layer, the first resin layer contains at least one oil component selected from the group consisting of a first oil component and a second oil component, the second oil component contains a low temperature phase-separable oil component that has a hydrophilic group and is capable of exuding out from the first resin layer when a temperature drops to a predetermined value or less, and the following formula and the following formula are satisfied, or the following formula and the following formula are satisfied: Content ratio (mass%) of first resin in first resin layer/Content ratio (mass%) of second resin in second resin layer ≥ 1.75 Content ratio (mass%) of first oil component in first resin layer/Content ratio (mass%) of second oil component in first resin layer ≥ 1 Content ratio (mass%) of first resin in first resin layer/Content ratio (mass%) of second resin in second resin layer ≥ 1.65 Content ratio (mass%) of first oil component in first resin layer/Content ratio (mass%) of second oil component in first resin layer ≥ 4.2
A connector comprising: a first connection terminal and a second connection terminal configured to come into conductive contact with a mating connector as a connection target; a relay terminal which comes into contact with the first connection terminal and the second connection terminal; and a housing having an insertion port for the connection target, wherein the relay terminal includes a switch contact piece which comes into contact with the first connection terminal, the switch contact piece includes a short circuit contact (8b2) which comes into contact with the first connection terminal and an open contact (8b3) configured to be displaced when coming into contact with a mating housing of the mating connector inserted in the housing, and characterized in that the open contact (8b3) is located closer to the insertion port of the housing than the first connection terminal so that during mating the short circuit contact (8b2) is displaced with displacement of the open contact (8b3) in a direction away from the first connection terminal to release the short circuit connection before the first connection terminal comes into contact with mating terminals (4A,4B) of the mating connector. a first connection terminal and a second connection terminal configured to come into conductive contact with a mating connector as a connection target; a relay terminal which comes into contact with the first connection terminal and the second connection terminal; and a housing having an insertion port for the connection target, wherein the relay terminal includes a switch contact piece which comes into contact with the first connection terminal, the switch contact piece includes a short circuit contact (8b2) which comes into contact with the first connection terminal and an open contact (8b3) configured to be displaced when coming into contact with a mating housing of the mating connector inserted in the housing, and characterized in that the open contact (8b3) is located closer to the insertion port of the housing than the first connection terminal so that during mating the short circuit contact (8b2) is displaced with displacement of the open contact (8b3) in a direction away from the first connection terminal to release the short circuit connection before the first connection terminal comes into contact with mating terminals (4A,4B) of the mating connector.
Die casting mould for the production of pieces of crockery such as beakers, cups or similar, having a mould upper part, a mould lower part and at least two mould side parts, wherein the mould parts (14, 16, 18), in the closed state, fit with one another with a seal along sealing surfaces and, with their mould contours (24, 26, 30), define a mould cavity that corresponds to the piece of crockery, wherein the mould lower part forms a core part and has an annular seal on its sealing surface, wherein the mould lower part has a cylindrical sealing surface adjoining its mould contour and the mould side parts have partially cylindrical sealing surfaces which are adapted to the cylindrical sealing surface of the mould lower part, characterised in that the cylindrical sealing surface of the mould lower part is formed with a peripheral groove for receiving the annular seal and the partially cylindrical sealing surface of the respective mould side part is formed with a groove into which a partial annular seal is pressed.
A method for laser additive manufacturing based on keyhole effects, being characterised by the following steps: arranging a welding wire and a laser beam at two sides of a normal line of a substrate at certain angles with respect to the normal line respectively; applying a light spot of the laser beam on a position of the welding wire having a certain distance from the substrate to produce a deep penetration melting keyhole, the welding wire absorbing energy of the laser beam, being heated and melted in a deep penetration welding mode, and the welding wire transiting energy to the substrate to form a melting pool and a cladding layer at a first area; and after passing through the welding wire, the laser beam irradiating a second area of the substrate to preheat the second area of the substrate in a thermal conduction mode. arranging a welding wire and a laser beam at two sides of a normal line of a substrate at certain angles with respect to the normal line respectively; applying a light spot of the laser beam on a position of the welding wire having a certain distance from the substrate to produce a deep penetration melting keyhole, the welding wire absorbing energy of the laser beam, being heated and melted in a deep penetration welding mode, and the welding wire transiting energy to the substrate to form a melting pool and a cladding layer at a first area; and after passing through the welding wire, the laser beam irradiating a second area of the substrate to preheat the second area of the substrate in a thermal conduction mode.
A light reflector material: wherein the material comprises at least thermosetting resin and a white-based pigment; wherein the white-based pigment is at least one selected from the group consisting of titanium oxide, barium titanate, strontium titanate, aluminum oxide, magnesium oxide, zinc oxide, barium sulfate, magnesium carbonate, barium carbonate, and zirconium oxide; wherein an amount of the white-based pigment is 80-500 pts.mass to 100 pts.mass of the thermosetting resin; wherein the thermosetting resin is comprised by using at least uncrystallized unsaturated polyester resin and diallyl phthalate and/or diallyl isophthalate; and wherein 50/50 (mass ratio) ≤ (the diallyl phthalate and/or diallyl isophthalate)/(the uncrystallized unsaturated polyester resin) is satisfied. wherein the material comprises at least thermosetting resin and a white-based pigment; wherein the white-based pigment is at least one selected from the group consisting of titanium oxide, barium titanate, strontium titanate, aluminum oxide, magnesium oxide, zinc oxide, barium sulfate, magnesium carbonate, barium carbonate, and zirconium oxide; wherein an amount of the white-based pigment is 80-500 pts.mass to 100 pts.mass of the thermosetting resin; wherein the thermosetting resin is comprised by using at least uncrystallized unsaturated polyester resin and diallyl phthalate and/or diallyl isophthalate; and wherein 50/50 (mass ratio) ≤ (the diallyl phthalate and/or diallyl isophthalate)/(the uncrystallized unsaturated polyester resin) is satisfied.