mhurhangee/ep-ind-claims huggingface dataset:
System for establishing trust of a network device, the system comprising: a first network device and a second network device, wherein the first network device includes a trust information unit adapted to generate trust information data, apply modification protection on the generated trust information data, and forward the protected trust information data to the second network device; and the second network device is adapted to receive the protected trust information data from the first network device, store the received trust information data, and provide the stored trust information to a further network device, wherein the second network device is adapted to receive a request for trust information data from the further network device, the request specifying a predetermined point in time or a predetermined period of time, and wherein the provided trust information data relate to the predetermined point in time or the predetermined period of time. a first network device and a second network device, wherein the first network device includes a trust information unit adapted to generate trust information data, apply modification protection on the generated trust information data, and forward the protected trust information data to the second network device; and the second network device is adapted to receive the protected trust information data from the first network device, store the received trust information data, and provide the stored trust information to a further network device, wherein the second network device is adapted to receive a request for trust information data from the further network device, the request specifying a predetermined point in time or a predetermined period a predetermined point in time or a predetermined period of time, and wherein the provided trust information data relate to the predetermined point in time or the predetermined period of time.
Ice surface preparation machine comprising a supporting frame provided with skids and a planer blade present transversely to the driving direction of the ice surface preparation machine, characterised in that when in use the supporting frame can be rotated and/or displaced in at least a horizontal plane relative to the ice surface preparation machine by means of an adjusting unit.
Lighting device for a motor vehicle, comprising a support, a first lighting module and a second lighting module distinct from the first lighting module, each lighting module being mounted om the support via pivoting elements (121, 122, 133, 134) defining a first axis of rotation (AA') and a second axis of rotation (BB') which are specific to each of the modules, and wherein drive elements connecting the two lighting modules are provided for driving the first lighting module in pivoting according to the pivoting of the second lighting module, said lighting device further comprising an actuating device configured to apply a first force, in a first direction, to the second lighting module, the drive elements (130, 150) being configured to convert the first force into a second force applied, in a second direction distinct from the first direction of the first force, to the first lighting module; the drive elements comprising at least a first mount to which the second lighting module is fixed, the first mount being mounted with the ability to pivot on the support about the second axis of rotation (BB'), and a second mount configured to apply the second force in the second direction to the first lighting module, the second mount is mounted with the ability to pivot on the support about a third axis of rotation (CC'), characterized in that the second mount is connected to the first mount via a slideway connection with clearance to allow the second mount to be driven by the first mount. said lighting device further comprising an actuating device configured to apply a first force, in a first direction, to the second lighting module, the drive elements (130, 150) being configured to convert the first force into a second force applied, in a second direction distinct from the first direction of the first force, to the first lighting module; the drive elements comprising at least a first mount to which the second lighting module is fixed, the first mount being mounted with the ability to pivot on the support about the second axis of rotation (BB'), and a second mount configured to apply the second force in the second direction to the first lighting module, the second mount is mounted with the ability to pivot on the support about a third axis of rotation (CC'), characterized in that the second mount is connected to the first mount via a slideway connection with clearance to allow the second mount to be driven by the first mount.
A gas pressure regulator adapted for being mounted to a gas cylinder, the gas pressure regulator comprising a body defining a front portion and opposed side portions (26, 28), and a plurality of gas pressure indicators (30, 40) mounted to the front portion of the body, characterized in that the gas pressure regulator comprises: a bonnet mounted to an exterior portion of the body; a pressure adjustment knob mounted to one of the side portions (26, 28) of the body, the bonnet disposed between the body and the pressure adjustment knob; and an energy absorbing device operatively engaged with the pressure adjustment knob and the bonnet, the energy absorbing device being capable of absorbing energy from impact loads imposed on the pressure adjustment knob, wherein the energy absorbing device comprises a series of members (92, 94, 96) that progressively slow a velocity of the pressure adjustment knob under impact loads, the series of members comprising a first stage member defining an arcuate wall and an end portion, the arcuate wall extending along an interior central portion of the pressure adjustment knob; a second stage member defining a plurality of angled walls positioned around an inner periphery of the pressure adjustment knob; wherein the arcuate wall defines a specific thickness to buckle under a load limit. a bonnet mounted to an exterior portion of the body; a pressure adjustment knob mounted to one of the side portions (26, 28) of the body, the bonnet disposed between the body and the pressure adjustment knob; and an energy absorbing device operatively engaged with the pressure adjustment knob and the bonnet, the energy absorbing device being capable of absorbing energy from impact loads imposed on the pressure adjustment knob, a first stage member defining an arcuate wall and an end portion, the arcuate wall extending along an interior central portion of the pressure adjustment knob;
A rotor blade assembly for a wind turbine, the rotor blade assembly comprising: a rotor blade having exterior surfaces defining a pressure side, a suction side, a leading edge, and a trailing edge each extending between a tip and a root, the rotor blade further defining a span and a chord, characterised in that a span-wise portion of the pressure side comprises a tab mounted to the rotor blade, an outer surface of the tab modifying an exterior surface of the rotor blade such that the span-wise portion of the pressure side comprises along a chord-wise cross-section a plurality of inflection points (112, 114, 116), the plurality of inflection points (112, 114, 116) comprising a first inflection point and a second inflection point, the first and second inflections points (112, 114) positioned within 50% of the chord from the leading edge. a rotor blade having exterior surfaces defining a pressure side, a suction side, a leading edge, and a trailing edge each extending between a tip and a root, the rotor blade further defining a span and a chord, characterised in that a span-wise portion of the pressure side comprises a tab mounted to the rotor blade, an outer surface of the tab modifying an exterior surface of the rotor blade such that the span-wise portion of the pressure side comprises along a chord-wise cross-section a plurality of inflection points (112, 114, 116), the plurality of inflection points (112, 114, 116) comprising a first inflection point and a second inflection point, the first and second inflections points (112, 114) positioned within 50% of the chord from the leading edge.
A Brassica plant, or a cell, part, seed or progeny thereof, characterised in that it comprises at least three mutant FATB alleles in its genome, which produces seed oil, wherein the seed oil has less than 7 wt % saturated fatty acids, based on the total amount of fatty acids in the seed oil, wherein said mutant FATB alleles are mutant alleles of a gene encoding a functional FATB protein, wherein the functional FATB gene comprises a nucleic acid molecule selected from the group consisting of: - a nucleic acid molecule which comprises at least 90% sequence identity to SEQ ID NO: 1, SEQ ID NO: 3, SEQ ID NO: 5, SEQ ID NO: 7, SEQ ID NO: 9 or SEQ ID NO: 11; and - a nucleic acid molecule encoding an amino acid sequence comprising at least 90% sequence identity to SEQ ID NO: 2, SEQ ID NO: 4, SEQ ID NO: 6, SEQ ID NO: 8, SEQ ID NO: 10 or SEQ ID NO: 12 wherein said mutant FATB alleles comprise a mutated DNA region consisting of one or more inserted, deleted or substituted nucleotides compared to a corresponding wild-type DNA region in the functional FATB gene and wherein said mutant FATB alleles encode a non-functional protein having no acyl ACP-thioesterase activity in vivo, or encode no protein. - a nucleic acid molecule which comprises at least 90% sequence identity to SEQ ID NO: 1, SEQ ID NO: 3, SEQ ID NO: 5, SEQ ID NO: 7, SEQ ID NO: 9 or SEQ ID NO: 11; and - a nucleic acid molecule encoding an amino acid sequence comprising at least 90% sequence identity to SEQ ID NO: 2, SEQ ID NO: 4, SEQ ID NO: 6, SEQ ID NO: 8, SEQ ID NO: 10 or SEQ ID NO: 12
A piezoelectric pump comprising a pump body including an opening; a diaphragm fixed to the pump body so as to close the opening, the diaphragm forming a pump chamber between the diaphragm and the pump body; and a piezoelectric element bonded face-to-face to a surface of the diaphragm, wherein the diaphragm combined with the piezoelectric element is bent when a voltage is applied to the piezoelectric element, wherein the piezoelectric element is a bimorph piezoelectric element in which a plurality of piezoelectric layers (22a, 22b, 22c) are stacked, characterised in that, among the plurality of piezoelectric layers, at least one layer positioned in the middle of the piezoelectric element in the thickness direction is a neutral layer that does not spontaneously become displaced when a voltage is applied, and wherein a neutral plane (Fd) of the entire diaphragm combined with the piezoelectric element is positioned in the neutral layer of the piezoelectric element.
A method comprising the steps: a) providing a layered structure applicable for preparing an organic electronic device, comprising: aa) a substrate comprising a first electrode structure (34, 35) and a non-electrode part; bb) a grid formed by a grid material, wherein open areas of the grid are arranged above at least a part of the first electrode structure (34, 35) and the grid material is arranged above at least a part of the non-electrode part; and cc) a layer stack comprising at least one redox-doped layer having a conductivity of at least 1E-7 S/cm, the layer stack being deposited on the grid and also deposited on the first electrode (34, 35) in the open areas; wherein the optical density measured by absorption spectroscopy of the grid material is higher than the optical density of the first electrode (34, 35); and b) irradiating light pulses having a duration of < 10 ms and an energy of 0.1 to 20 J/cm 2 per pulse, alternatively 1 to 10 J/cm 2, onto the layered structure. a) providing a layered structure applicable for preparing an organic electronic device, comprising: aa) a substrate comprising a first electrode structure (34, 35) and a non-electrode part; bb) a grid formed by a grid material, wherein open areas of the grid are arranged above at least a part of the first electrode structure (34, 35) and the grid material is arranged above at least a part of the non-electrode part; and cc) a layer stack comprising at least one redox-doped layer having a conductivity of at least 1E-7 S/cm, the layer stack being deposited on the grid and also deposited on the first electrode (34, 35) in the open areas; wherein the optical density measured by absorption spectroscopy of the grid material is higher than the optical density of the first electrode (34, 35); and aa) a substrate comprising a first electrode structure (34, 35) and a non-electrode part; bb) a grid formed by a grid material, wherein open areas of the grid are arranged above at least a part of the first electrode structure (34, 35) and the grid material is arranged above at least a part of the non-electrode part; and cc) a layer stack comprising at least one redox-doped layer having a conductivity of at least 1E-7 S/cm, the layer stack being deposited on the grid and also deposited on the first electrode (34, 35) in the open areas; b) irradiating light pulses having a duration of < 10 ms and an energy of 0.1 to 20 J/cm 2 per pulse, alternatively 1 to 10 J/cm 2, onto the layered structure.
A brush module for an electric machine, in particular an electric motor, the brush module having at least a brush for forming an electric contact with a slip ring of the machine, the brush module having a mounting device and a brush holder for accommodating and holding the brush, the mounting device being realized as a U-shaped sheet-metal bracket which engages over the brush holder, the sheet-metal bracket having laterally protruding fastening tabs for fastening the brush holder to a mounting surface, characterized in that an access opening is formed in the brush holder, a retaining tab, which is formed on a fastening tab of the sheet-metal bracket, engaging in the access opening and holding the brush in the brush holder in a retaining position in a form-fitting manner, the fastening tab having the retaining tab being inclined at an angle α relative to the mounting surface of the brush holder, the fastening tab being inclinable at angle α for coming into contact with the mounting surface, the retaining tab releasing the brush and the brush being moveable into a contact position at an inclination by angle α.
An LED luminaire for generating a white light, having - first LEDs which can radiate a white light, - second LEDs which can radiate a coloured light, wherein the first LEDs and the second LEDs form a light source of the LED luminaire, and wherein the number of the first LEDs is greater than the number of the second LEDs, characterised in that the first LEDs are arranged on a first printed circuit board, and the second LEDs on a second printed circuit board, wherein the first printed circuit board has an elongate and linear form, by which a first longitudinal direction is determined, and the second printed circuit board has an elongate and linear form, by which a second longitudinal direction is determined, wherein the first LEDs are arranged on the first printed circuit board in such a way that along the first longitudinal direction they are each at a first distance from each other, and the second LEDs are arranged on the second printed circuit board in such a way that along the second longitudinal direction they are each at a second distance from each other that is greater than the first distance. - first LEDs which can radiate a white light, - second LEDs which can radiate a coloured light, wherein the first LEDs and the second LEDs form a light source of the LED luminaire, and
A photovoltaic assembly for a portable solar energy system, the photovoltaic assembly comprising: a row of interconnected photovoltaic panels or laminates; a foldable stiffening and/or supporting structure comprising articulated members (4, 5, 6), the foldable stiffening and/or supporting structure being movable between a folded position, in which the articulated members (4, 5, 6) are received in a receiving zone provided in the photovoltaic assembly, and an operative position, in which the foldable stiffening and/or supporting structure protrudes out from the receiving zone; the receiving zone comprising at least one intermediate region located adjacent to contiguous longitudinal side edges of adjacent photovoltaic panels or laminates, said intermediate region being configured to receive therein in the folded position one or more of the articulated members (4, 5, 6) of the stiffening and/or supporting structure; characterized in that the photovoltaic panels or laminates are interconnected by at least a first connection pin parallel to major surfaces of the photovoltaic panels or laminates and perpendicular to the longitudinal side edges of the photovoltaic panels or laminates, and wherein the articulated members (4, 5, 6) comprise a first articulated member having an end portion pivotally connected to said first connection pin. a row of interconnected photovoltaic panels or laminates; a foldable stiffening and/or supporting structure comprising articulated members (4, 5, 6), the foldable stiffening and/or supporting structure being movable between a folded position, in which the articulated members (4, 5, 6) are received in a receiving zone provided in the photovoltaic assembly, and an operative position, in which the foldable stiffening and/or supporting structure protrudes out from the receiving zone; the receiving zone comprising at least one intermediate region located adjacent to contiguous longitudinal side edges of adjacent photovoltaic panels or laminates, said intermediate region being configured to receive therein in the folded position one or more of the articulated members (4, 5, 6) of the stiffening and/or supporting structure; characterized in that the photovoltaic panels or laminates are interconnected by at least a first connection pin parallel to major surfaces of the photovoltaic panels or laminates and perpendicular to the longitudinal side edges of the photovoltaic panels or laminates, and wherein the articulated members (4, 5, 6) comprise a first articulated member having an end portion pivotally connected to said first connection pin.
A sensor relay apparatus that receives sensor data detected by each of a plurality of sensor terminals, and relays and transfers the sensor data to other apparatuses (10, 20) utilizing a plurality of relay communication methods, comprising: a communication control unit configured to relay and transfer the sensor data received from the plurality of sensor terminals to the other apparatuses (10, 20), wherein the communication control unit consecutively relays and transfers the sensor data received from the plurality of sensor terminals to one of the other apparatuses (10, 20) utilizing one of the plurality of relay communication methods preset in accordance with a sensor data transfer path to the one of the other apparatuses among the sensor data received from the plurality of sensor terminals.
A coalescing filter element (70, 270, 470, 570, 670, 770, 870), comprising: a frame (72, 272, 772, 872, 972, 1072, 1172) having a partition (60, 560, 660) separating an unfiltered side (34, 534, 644 844) from a filtered side (44, 544, 634, 834), the partition (60, 560, 660) having a coalescing inlet port (42, 242, 442, 697) connecting the unfiltered side (34, 534, 644, 844) and the filtered side (44, 544, 634, 834) and carrying a tubular coalescing filter media (38, 638, 838) arranged to filter fluid flowing through the coalescing inlet port (42, 242, 442, 697); wherein the partition (60, 560, 660) includes a panel member (65, 565, 665, 774, 874, 974, 1074, 1174); wherein the tubular coalescing filter media (38, 638, 838) comprises opposed end faces (96, 98, 398), with a tubular ring extending therebetween to provide a coalescing tube, at least one of the opposed end faces (96, 98, 398) being at least partially exposed to allow fluid flow through at least one of the opposed end faces (96, 98, 398); wherein the coalescing filter element (70, 270, 470, 570, 670, 770, 870) further comprises a plug (40, 790, 840) projecting into an open end of the coalescing tube; wherein the plug (40, 790, 840) includes a flared outer rim that transitions a diameter of the plug (40, 790, 840) from a first diameter to a second diameter, where the second diameter is larger than the first diameter such that the flared outer rim of the plug (40, 790, 840) is in contact with a hollow cylindrical cavity of the coalescing tube. a frame (72, 272, 772, 872, 972, 1072, 1172) having a partition (60, 560, 660) separating an unfiltered side (34, 534, 644 844) from a filtered side (44, 544, 634, 834), the partition (60, 560, 660) having a coalescing inlet port (42, 242, 442, 697) connecting the unfiltered side (34, 534, 644, 844) and the filtered side (44, 544, 634, 834) and carrying a tubular coalescing filter media (38, 638, 838) arranged to filter fluid flowing through the coalescing inlet port (42, 242, 442, 697); wherein the partition (60, 560, 660) includes a panel member (65, 565, 665, 774, 874, 974, 1074, 1174); wherein the tubular coalescing filter media (38, 638, 838) comprises opposed end faces (96, 98, 398), with a tubular ring extending therebetween to provide a coalescing tube, at least one of the opposed end faces (96, 98, 398) being at least partially exposed to allow fluid flow through at least one of the opposed end faces (96, 98, 398); wherein the coalescing filter element (70, 270, 470, 570, 670, 770, 870) further comprises a plug (40, 790, 840) projecting into an open end of the coalescing tube; wherein the plug (40, 790, 840) includes a flared outer rim that transitions a diameter of the plug (40, 790, 840) from a first diameter to a second diameter, where the second diameter is larger than the first diameter such that the flared outer rim of the plug (40, 790, 840) is in contact with a hollow cylindrical cavity of the coalescing tube.
An electricity storage device comprising: a first conductivity-type first oxide semiconductor; an insulator layer on the first oxide semiconductor layer; a solid electrolyte layer disposed on the insulator layer, the solid electrolyte layer including a solid electrolyte enabling proton movement; a second conductivity-type second oxide semiconductor layer disposed on the solid electrolyte layer; a first electrode disposed on a surface which is not opposite to the insulator layer of the first oxide semiconductor layer; and a second electrode disposed on a surface which is not opposite to the solid electrolyte layer of the second oxide semiconductor layer. a first conductivity-type first oxide semiconductor; an insulator layer on the first oxide semiconductor layer; a solid electrolyte layer disposed on the insulator layer, the solid electrolyte layer including a solid electrolyte enabling proton movement; a second conductivity-type second oxide semiconductor layer disposed on the solid electrolyte layer; a first electrode disposed on a surface which is not opposite to the insulator layer of the first oxide semiconductor layer; and a second electrode disposed on a surface which is not opposite to the solid electrolyte layer of the second oxide semiconductor layer.