mhurhangee/patent-ind-claim-en huggingface dataset:
A hub motor arrangement , comprising: a housing having a housing portion defining an interior space and an axis of rotation; a first lateral support member ; a second lateral support member spaced from the first lateral support member along the axis of rotation; a plurality of connecting shafts extending between the first lateral support member and the second lateral support member, wherein at least one of the plurality of connecting shafts is provided for lateral support of the housing; a plurality of planet gears , each planet gear being a double spur gear supported on a respective one of the plurality of connecting shafts; a motor occupying a portion of the axis of rotation; a sun gear driven by the motor and that drives a first gear portion of each of the plurality of planet gears; a ring gear driven by a second gear portion of each of the plurality of planet gears, wherein the ring gear drives the housing portion for rotation about the axis of rotation. a housing having a housing portion defining an interior space and an axis of rotation; a first lateral support member ; a second lateral support member spaced from the first lateral support member along the axis of rotation; a plurality of connecting shafts extending between the first lateral support member and the second lateral support member, wherein at least one of the plurality of connecting shafts is provided for lateral support of the housing; a plurality of planet gears , each planet gear being a double spur gear supported on a respective one of the plurality of connecting shafts; a motor occupying a portion of the axis of rotation; a sun gear driven by the motor and that drives a first gear portion of each of the plurality of planet gears; a ring gear driven by a second gear portion of each of the plurality of planet gears, wherein the ring gear drives the housing portion for rotation about the axis of rotation.
Method for operating a hydraulic damping device for a lifting mast of an industrial truck, in which deflections of the lifting mast are measured and the measured values are fed into a control device for the damping device and the control device generates actuating signals for an electric motor driving a hydraulic pump in accordance with the measured values, in which, furthermore, one or more operating parameters are stored in the control device, from which a prompt or imminent deflection of the mast can be derived, and the control device generates a preliminary signal in accordance with the operating parameters for generating an actuating signal for the electric motor in such a way that the electric motor is put into operation at a minimum rotational speed (N min ) before the occurrence of a damping operation, independent of the speed (N soll ) predetermined in the damping operation by the control device or an operator.
A lighting device comprising: a substrate ; a light source including a plurality of light emitting devices disposed on the substrate , each light emitting device having an emission surface through which light is emitted; a resin layer disposed on the substrate ; and a first diffusion layer disposed on the resin layer , wherein the resin layer includes a first resin portion disposed on each of the light emitting devices , and a second resin portion adjacent to the first resin portion , wherein an upper surface (RS1) of the first resin portion has an inclination and is spaced apart from the first diffusion layer , characterized in that the second resin portion includes a material different from that of the first resin portion , wherein a height of an upper surface of the second resin portion is higher than a height of a lowermost end (PS1) of the upper surface (RS1) of the first resin portion with respect to an upper surface of the substrate , and wherein the first resin portion contacts the emission surface of the plurality of light emitting devices , the second resin portion being spaced apart from the emission surface of the plurality of light emitting devices . a substrate ; a light source including a plurality of light emitting devices disposed on the substrate , each light emitting device having an emission surface through which light is emitted; a resin layer disposed on the substrate ; and a first diffusion layer disposed on the resin layer , wherein the resin layer includes a first resin portion disposed on each of the light emitting devices , and a second resin portion adjacent to the first resin portion , wherein an upper surface (RS1) of the first resin portion has an inclination and is spaced apart from the first diffusion layer , characterized in that the second resin portion includes a material different from that of the first resin portion , wherein a height of an upper surface of the second resin portion is higher than a height of a lowermost end (PS1) of the upper surface (RS1) of the first resin portion with respect to an upper surface of the substrate , and wherein the first resin portion contacts the emission surface of the plurality of light emitting devices , the second resin portion being spaced apart from the emission surface of the plurality of light emitting devices .
A filler neck of a fuel tank comprising a receiving pipe intended to receive a filling nozzle , and a liquid-vapor separator , comprising a hollow body into which a single vapor flow inlet pipe from the fuel tank , a drainage pipe flowing into the receiving pipe , and a vapor outlet pipe open, said hollow body containing separating means allowing the extraction of droplets present in the vapor flow such that they flow into the drainage pipe , characterized in that the separating means comprise at least one wall movable between a first and a second configuration such that: - in the first configuration, the movable wall is arranged substantially vertically and forms together with the walls of the hollow body a labyrinth in which the vapor flow passing from the inlet pipe to the outlet pipe is forced to circulate along a given path bypassing said wall, so that fuel droplets contained in the vapors are deposited on the movable wall and flow by gravity towards the receiving pipe , and that, - in the second configuration, the movable wall is arranged so as to define a passage in which the vapor flow circulates from the inlet pipe to the outlet pipe along a path avoiding all or part of the path taken by said vapors when the movable wall is in the first configuration, the cross-section of said passage being arranged such that the load loss suffered by the vapor flow circulating in the hollow body between the inlet pipe and the outlet pipe is strictly smaller than that suffered by a same vapor flow when the movable wall is in the first configuration. - in the first configuration, the movable wall is arranged substantially vertically and forms together with the walls of the hollow body a labyrinth in which the vapor flow passing from the inlet pipe to the outlet pipe is forced to circulate along a given path bypassing said wall, so that fuel droplets contained in the vapors are deposited on the movable wall and flow by gravity towards the receiving pipe , and that, - in the second configuration, the movable wall is arranged so as to define a passage in which the vapor flow circulates from the inlet pipe to the outlet pipe along a path avoiding all or part of the path taken by said vapors when the movable wall is in the first configuration, the cross-section of said passage being arranged such that the load loss suffered by the vapor flow circulating in the hollow body between the inlet pipe and the outlet pipe is strictly smaller than that suffered by a same vapor flow when the movable wall is in the first configuration.
A multi-channel head assembly of three-dimensional modeling equipment, comprising a modeling light source unit which has N modeling beams incident on a light guide unit; a light guide unit (A, B) which receives the incident N modeling beams and has a function for having the N modeling beams incident on the respective N modeling planes by guiding each of the N modeling beams to a specific path; a control unit which controls driving of the modeling light source unit and the light guide unit by interlocking; the modeling light source unit comprises a light output distributor; and the light output distributor generates the N modeling beams by outputting and distributing an input beam; wherein a three-dimensional modeling product is modeled by radiating each of the N modeling beams to an entire surface of one of the N modeling planes in a specific scanning pattern, the light guide unit comprises 1 1 th to 1 N th light reflection units having a function for having the respective N modeling beams incident on a second light reflection unit by primarily reflecting the N modeling beams and a second light reflection unit having a function for having the N modeling beams received from the 1 1 th to 1 N th light reflection units incident on the N modeling planes by secondarily reflecting the N modeling beams, and characterized in that the 1 1 th to 1 N th light reflection units are spaced apart at specific angles around the second light reflection unit using the second light reflection unit as a center.
A system for nondestructive evaluation of railroad rails the system comprising: a carriage including a plurality of wheels movably supporting the carriage on the rails ; a source of vibration mounted on the carriage and connected to the carriage to transmit vibrations of a preselected frequency to test regions on the rails through the wheels to cause an increase in temperature of the rails at locations of flaws in the test regions , wherein the source of vibration includes one or more of the plurality of wheels having peripheries comprising transverse grooves or ridges spaced and shaped to cause the vibrations in the test regions of the preselected frequency when the carriage moves relative to the rails at a preselected speed, wherein the vibrations generated by said transverse grooves or ridges are in excess of 1 kHz when the carriage moves at a speed of 40.2 km/h (25 miles per hour); an infrared detector for recording thermal images of the test regions to detect the increase in temperature at the locations of flaws as a result of heat generated by the vibrations from the source of vibration ; and a controller connected to the infrared detector to actuate the infrared detector to record the thermal images , and store the thermal images recorded by the infrared detector . a carriage including a plurality of wheels movably supporting the carriage on the rails ; a source of vibration mounted on the carriage and connected to the carriage to transmit vibrations of a preselected frequency to test regions on the rails through the wheels to cause an increase in temperature of the rails at locations of flaws in the test regions , wherein the source of vibration includes one or more of the plurality of wheels having peripheries comprising transverse grooves or ridges spaced and shaped to cause the vibrations in the test regions of the preselected frequency when the carriage moves relative to the rails at a preselected speed, wherein the vibrations generated by said transverse grooves or ridges are in excess of 1 kHz when the carriage moves at a speed of 40.2 km/h (25 miles per hour); an infrared detector for recording thermal images of the test regions to detect the increase in temperature at the locations of flaws as a result of heat generated by the vibrations from the source of vibration ; and a controller connected to the infrared detector to actuate the infrared detector to record the thermal images , and store the thermal images recorded by the infrared detector .
Emergency flooding device for a weapon tube , wherein the emergency flooding device can be inserted in the boat-side opening of a weapon tube , wherein the boat-side opening of the weapon tube is arranged within the pressure body, wherein the emergency flooding device is detachable from the weapon tube , wherein the emergency flooding device comprises a holding apparatus and an opening device , wherein the holding apparatus can be connected to the weapon tube in a force-locking way, wherein the holding apparatus comprises an opening, wherein the opening of the holding apparatus can be closed with the opening device , wherein the cross-sectional area of the opening of the holding apparatus is smaller than the cross-sectional area of the weapon tube .
A decorative sheet comprising: a base material layer; and a surface protective layer provided on one surface of the base material layer, wherein the surface protective layer has ridge-like parts provided to project in a ridge-like shape and form an irregular shape on a surface, characterized in that RSm/Ra of the irregular shape of the surface protective layer is within a range of 10 or more and 300 or less, the surface protective layer contains an ionizing radiation curable resin as a main material, the ionizing radiation curable resin contains, in a proportion of 60 parts by mass or more based on 100 parts by mass of the ionizing radiation curable resin, a tetrafunctional acrylic resin containing a repeating structure, the repeating structure is any one of the structures of ethylene oxide, propylene oxide, and ε-caprolactone, and the number of repetitions of the repeating structure is 12 or more, wherein RSm expressed in μm is a surface roughness index in the horizontal direction which is the plane direction of the surface protective layer, Ra expressed in μm is a surface roughness index in the vertical direction which is the depth direction of the ridge-like parts, and Ra and RSm are measured using a line roughness meter according to JIS B0601 (ISO 4287), with the proviso that a decorative sheet as described in Comparative Example 3 of EP 4 101 640 A1 is excluded. a base material layer; and a surface protective layer provided on one surface of the base material layer, wherein the surface protective layer has ridge-like parts provided to project in a ridge-like shape and form an irregular shape on a surface, characterized in that RSm/Ra of the irregular shape of the surface protective layer is within a range of 10 or more and 300 or less, the surface protective layer contains an ionizing radiation curable resin as a main material, the ionizing radiation curable resin contains, in a proportion of 60 parts by mass or more based on 100 parts by mass of the ionizing radiation curable resin, a tetrafunctional acrylic resin containing a repeating structure, the repeating structure is any one of the structures of ethylene oxide, propylene oxide, and ε-caprolactone, and the number of repetitions of the repeating structure is 12 or more, wherein RSm expressed in μm is a surface roughness index in the horizontal direction which is the plane direction of the surface protective layer, Ra expressed in μm is a surface roughness index in the vertical direction which is the depth direction of the ridge-like parts, and Ra and RSm are measured using a line roughness meter according to JIS B0601 (ISO 4287), with the proviso that a decorative sheet as described in Comparative Example 3 of EP 4 101 640 A1 is excluded.
A Cas9 system for altering a sequence of a target nucleic acid in a cell, wherein the Cas9 system comprises: an HDR-enhancer molecule, wherein the HDR-enhancer is an inhibitor of one or more of the Ku70/Ku80 complex, XRCC4, XLF, 53BP1, Rif1, PtIP, Fbh1, RTEL, PARI, Artemis, Rap80, XRCC1, Ligase I, Ligase III, Polymerase theta, Rad52, ERCC1, XPF, Exo 1, KDM4A, Setd2, HDAC1, HDAC2, or EZH2; a dominant negative form of 53BP1 or CtiP; a Cas9 molecule, and a gRNA molecule, wherein the gRNA molecule is capable of targeting the Cas9 molecule to the target nucleic acid in the cell. an HDR-enhancer molecule, wherein the HDR-enhancer is an inhibitor of one or more of the Ku70/Ku80 complex, XRCC4, XLF, 53BP1, Rif1, PtIP, Fbh1, RTEL, PARI, Artemis, Rap80, XRCC1, Ligase I, Ligase III, Polymerase theta, Rad52, ERCC1, XPF, Exo 1, KDM4A, Setd2, HDAC1, HDAC2, or EZH2; a dominant negative form of 53BP1 or CtiP; a Cas9 molecule, and a gRNA molecule, wherein the gRNA molecule is capable of targeting the Cas9 molecule to the target nucleic acid in the cell.
A bearing comprising: a tubular member for containing a shaft on an inner circumferential surface side; and a coating layer that coats the inner circumferential surface of the tubular member, a plurality of grooves (C) being provided therein so as to intersect the axial direction of the shaft , and peak portions (B) formed between the adjacent grooves (C) coming into contact with an outer circumferential surface of the shaft so as to support the shaft , characterized in that it is manufactured such that a thickness (t R0 ) from the inner circumferential surface of the tubular member to the peak portion (B), at a center (R0) of the tubular member in the axial direction, is greater than a thickness (t R1 , t R3 ) from the inner circumferential surface of the tubular member to the peak portion (B) at an end (R1,R3) of the tubular member in the axial direction. a tubular member for containing a shaft on an inner circumferential surface side; and a coating layer that coats the inner circumferential surface of the tubular member, a plurality of grooves (C) being provided therein so as to intersect the axial direction of the shaft , and peak portions (B) formed between the adjacent grooves (C) coming into contact with an outer circumferential surface of the shaft so as to support the shaft , characterized in that it is manufactured such that a thickness (t R0 ) from the inner circumferential surface of the tubular member to the peak portion (B), at a center (R0) of the tubular member in the axial direction, is greater than a thickness (t R1 , t R3 ) from the inner circumferential surface of the tubular member to the peak portion (B) at an end (R1,R3) of the tubular member in the axial direction.
An integrated circuit implementing a receiving entity (UE) for detecting at least one of a plurality of physical control channels, wherein each of the physical control channels is configured according to one of plural control information formats differing in their number of bits, configured to: receive control information from a transmitting entity (Node B) via a physical control channel that is mapped to resource elements, and perform a blind detection of the physical control channel (L1/L2 control channels) on the resource elements, wherein the physical control channel consists of a number of bits that is an integer multiple of a smallest allowed number of coded control information bits for the plural control information formats. receive control information from a transmitting entity (Node B) via a physical control channel that is mapped to resource elements, and perform a blind detection of the physical control channel (L1/L2 control channels) on the resource elements, wherein the physical control channel consists of a number of bits that is an integer multiple of a smallest allowed number of coded control information bits for the plural control information formats.
A magnetic power unit for a power electronics system comprising a magnetic core including a first, a second and a third winding channels respectively arranged around a first, a second and a third crossing axis (A-A, B-B, C-C) orthogonal to each other, each of said winding channels being intended for receiving at least one coil wound around the magnetic core , each coil having at least one turn, wherein said first, second and third crossing axis define orthogonal planes providing eight octants, each including a protrusion defining a protruding spacer , said protruding spacers being spaced to each other by said winding channels , characterized in that the magnetic core is formed by at least two different partial magnetic cores assembled together by an attachment as a composed core in a layered configuration, including two side partial magnetic cores , each including four protruding spacers , wherein said magnetic core includes a through hole associated to a device for heat dissipation including a heat dissipation pipe made of a thermal conductor 20 and non-electrical conductor material, the heat dissipation pipe being arranged in said through hole and connected to a heat dissipation plate . characterized in that the magnetic core is formed by at least two different partial magnetic cores assembled together by an attachment as a composed core in a layered configuration, including two side partial magnetic cores , each including four protruding spacers , wherein said magnetic core includes a through hole associated to a device for heat dissipation including a heat dissipation pipe made of a thermal conductor 20 and non-electrical conductor material, the heat dissipation pipe being arranged in said through hole and connected to a heat dissipation plate .
A packing cup (11A-11E) for a packing case of reciprocating machines, comprising: a body with a hole for the passage of a plunger or rod of the reciprocating machine, said hole having a first longitudinal axis, a sealing ring seat for housing a sealing ring which slidably bear against the plunger or rod to provide sealing, wherein said packing cup (11A-11E) comprises sectors angularly offset with each other, each sector being provided at least by lube oil duct portions in each sector of the packing cup (11A-11E) a plurality of available positions being grouped; every available position of such plurality being lined on the same circumference having its center on said first axis; each available position of such plurality being used for one between: - an axial lube oil duct portion extending between opposed faces of said packing cup (11A-11E), - a radial lube oil duct portion, preferably a radial groove , extending radially to the sealing ring seat of the packing cup (11A-11E), - a stopping wall ; in which different sectors of the same packing cup (11A-11E) have said available positions used for a number of axial lube oil duct portions decreasing from a maximum number equal to the number of sectors , at least one of the remaining available positions of each sector being used for a radial lube oil duct portion, preferably a radial groove . a body with a hole for the passage of a plunger or rod of the reciprocating machine, said hole having a first longitudinal axis, a sealing ring seat for housing a sealing ring which slidably bear against the plunger or rod to provide sealing, - an axial lube oil duct portion extending between opposed faces of said packing cup (11A-11E), - a radial lube oil duct portion, preferably a radial groove , extending radially to the sealing ring seat of the packing cup (11A-11E), - a stopping wall ;
A method for producing an element of a capsule, the capsule being intended to contain a product having at least one component that can be extracted by means of an extraction fluid, the method comprising the step of obtaining at least one preparatory zone intended to define, during use of the capsule, a passage for the extraction fluid, so that the extraction fluid can pass through the capsule in order to extract said component, wherein the preparatory zone is obtained by means of a cutting operation carried out before the capsule is filled with said product, characterized in that said cutting operation is carried out after the capsule element has been formed, and in that said cutting operation is carried out by means of a blade element (28; 228; 328; 428; 528; 628; 728; 828).