mhurhangee/ep-ind-claims huggingface dataset:
A universal handgrip of a surgical clip applicator to which an individual clip magazine, which comprises a crimping head/crimping tool (20, 22) and can be arbitrarily selected from a number of different clip magazines, can be mounted or fastened such that the universal handgrip and the individual clip magazine fastened thereto mechanically interact for crimping individual clips in the crimping head/crimping tool (20, 22) as well as for conveying individual clips from a clip receiving portion via an individual feed path toward the crimping head/crimping tool (20, 22), for which purpose the universal handgrip is provided with an integrated force transmission gearing comprising at least one manually graspable handle (6, 8) as an actuation-/input part and comprising a coupling means as an actuation-/delivery part to the individual clip magazine, characterized by an adaptation device (50, 52) with an overload protection means arranged between the actuation-/input part and the actuation-/delivery part for interruption of the power transmission in the force transmission gearing when delivery of individual clips from the clip magazine is limited by at least one limiting stops (42, 44), for compensating and accommodating clip-related differences between the individual feed path of the currently mounted individual clip magazine and a maximum actuating travel of the actuation-/input part on the universal handgrip.
Anti-theft device for a helmet for a two-wheeled vehicle comprising a lock with a first part consisting of a bolt and a second part consisting of a cylinder inserted into an end of a handlebar, said cylinder comprising a strike plate and a locking key for said bolt, characterised in that the bolt is mounted in a support comprising a groove so as to be able to rotate through 90° in the groove of said support and the cylinder has suitable dimensions for being inserted and locked in the end of a handlebar so that there is very little or optimally no space between the support and the end of the handlebar when the bolt is locked in the cylinder.
A method performed by a base station for using demodulation reference signals, DMRS, to provide side information per layer for interference cancellation, comprising: preparing a sub-frame comprising two slots and configuring a physical resource block (140, 330) for each slot, wherein each physical resource block (140, 330) comprises twelve OFDM subcarriers transmitting for a duration of 7 OFDM symbols per slot; allocating, in resource elements on each of three of twelve OFDM subcarriers, two pairs of DMRS to form three DMRS sets (350, 352, 354); and mapping symbols with a first modulation for the two pairs of DMRS to three of the twelve OFDM subcarriers for transmission; characterized by adding a second modulation to a first of the three DMRS sets (350, 352, 354) and adding a third modulation to a second of the three DMRS sets (350, 352, 354) to code side information to the three DMRS sets (350, 352, 354) to support channel estimation for an interfering user equipment and for an interfered user equipment. preparing a sub-frame comprising two slots and configuring a physical resource block (140, 330) for each slot, wherein each physical resource block (140, 330) comprises twelve OFDM subcarriers transmitting for a duration of 7 OFDM symbols per slot; allocating, in resource elements on each of three of twelve OFDM subcarriers, two pairs of DMRS to form three DMRS sets (350, 352, 354); and mapping symbols with a first modulation for the two pairs of DMRS to three of the twelve OFDM subcarriers for transmission; characterized by adding a second modulation to a first of the three DMRS sets (350, 352, 354) and adding a third modulation to a second of the three DMRS sets (350, 352, 354) to code side information to the three DMRS sets (350, 352, 354) to support channel estimation for an interfering user equipment and for an interfered user equipment.
A method of constructing a solar cell panel, the method comprising: providing a solar cell having a front side and a back side, the front side of the solar cell facing the sun during normal operation; heating a thermoplastic polyimide to at least its reflow temperature; flowing the thermoplastic polyimide onto the back side of the solar cell while heated to at least its reflow temperature; cooling the thermoplastic polyimide to a temperature below its reflow temperature to bond the thermoplastic polyimide directly, without an adhesive, to the solar cell bonding, without an adhesive, a substrate to the thermoplastic polyimide opposite the back side of the solar cell, the substrate comprising graphite, aramid-based material, carbon fibers, metal or metal alloys, and/or combinations thereof; wherein the thermoplastic polyimide comprises: at least one diamine monomer and at least two dianhydride monomers, at least two diamine monomers and at least one dianhydride monomer, or at least two diamine monomers and two dianhydride monomers, wherein the diamine monomers are selected from the group consisting of 2,2-bis[4-(4aminophenoxy)phenyl]-hexafluoropropane and 4,4'-diaminobenzanilide, and combinations thereof, and wherein the dianhydride monomers are selected from the group consisting of 4,4'-(hexafluoroisopropylidene)di-phthalicanhydride and 3,3',4,4'-biphenyltetracarboxylic acid dianhydride, and combinations thereof, wherein the thermoplastic polyimide has a coefficient of thermal expansion of ± 1%-5% of a coefficient of thermal expansion of the solar cell. providing a solar cell having a front side and a back side, the front side of the solar cell facing the sun during normal operation; heating a thermoplastic polyimide to at least its reflow temperature; flowing the thermoplastic polyimide onto the back side of the solar cell while heated to at least its reflow temperature; cooling the thermoplastic polyimide to a temperature below its reflow temperature to bond the thermoplastic polyimide directly, without an adhesive, to the solar cell bonding, without an adhesive, a substrate to the thermoplastic polyimide opposite the back side of the solar cell, the substrate comprising graphite, aramid-based material, carbon fibers, metal or metal alloys, and/or combinations thereof; wherein the thermoplastic polyimide comprises: at least one diamine monomer and at least two dianhydride monomers, at least two diamine monomers and at least one dianhydride monomer, or at least two diamine monomers and two dianhydride monomers, wherein the diamine monomers are selected from the group consisting of 2,2-bis[4-(4aminophenoxy)phenyl]-hexafluoropropane and 4,4'-diaminobenzanilide, and combinations thereof, and wherein the dianhydride monomers are selected from the group consisting of 4,4'-(hexafluoroisopropylidene)di-phthalicanhydride and 3,3',4,4'-biphenyltetracarboxylic acid dianhydride, and combinations thereof, wherein the thermoplastic polyimide has a coefficient of thermal expansion of ± 1%-5% of a coefficient of thermal expansion of the solar cell.
A polar encoding method, comprising: Obtaining locations of information bits and frozen bits based on a reliability order of polar channels, wherein reliability of a polar channel corresponding to the information bits is higher than reliability of a polar channel corresponding to the frozen bits; dividing information bits to be encoded j into a plurality of segments, and performing cyclic redundancy check encoding on each segment, and mapping all segments of encoded bits obtained after the CRC encoding to the locations of the information bits; determining at least one bit of the frozen bits as a check bit, wherein a value of the check bit is determined based on values of P information bits that are in information bits prior to the check bit in an encoding order and that meet a preset condition, and wherein P is an integer greater than or equal to 1; and performing polar encoding in the encoding order on the information bits, the check bit, and the frozen bits other than the check bit. Obtaining locations of information bits and frozen bits based on a reliability order of polar channels, wherein reliability of a polar channel corresponding to the information bits is higher than reliability of a polar channel corresponding to the frozen bits; dividing information bits to be encoded j into a plurality of segments, and performing cyclic redundancy check encoding on each segment, and mapping all segments of encoded bits obtained after the CRC encoding to the locations of the information bits; determining at least one bit of the frozen bits as a check bit, wherein a value of the check bit is determined based on values of P information bits that are in information bits prior to the check bit in an encoding order and that meet a preset condition, and wherein P is an integer greater than or equal to 1; and performing polar encoding in the encoding order on the information bits, the check bit, and the frozen bits other than the check bit.
Heating device comprising a combustion chamber and a heating gas flue formed to guide hot waste gas generated in the combustion chamber, wherein said heating gas flue has an inlet region (2.1) and an outlet region (2.2) and is configured to be connected to the combustion chamber via the inlet region (2.1), and wherein heat transfer fins which are spaced apart from one another and have a wall thickness, are arranged in the heating gas flue for heat transfer from the hot waste gas to the heating gas flue, wherein the heating gas flue on the one hand has waste gas flowing through it and on the other hand is configured to be surrounded by water, characterized in that on the side of the inlet region (2.1) the wall thickness of the heat transfer fins is greater or the heat transfer fins are configured to be thicker-walled than on the side of the outlet region (2.2) and that a wall of the heating gas flue arranged between the waste gas and the water has a wall thickness which is configured to be smaller than the smallest wall thickness of the heat transfer fin.
Compression unit for supplying high and low pressure services to a plant comprising a single driver associated with two driver shaft-ends (3, 4) projecting apart from said driver, a first driver shaft end and a second driver shaft end, a first unit being directly operatively connected to the first driver shaft-end and a second unit being operatively connected to the second driver shaft-end, wherein said second unit is an integrally geared-compressor arrangement comprising a bull gear and a plurality of pinions engaged with the bull gear, wherein the diameter of the bull gear is larger than the diameter of the pinions; characterized in that the first unit is directly connected to the first driver shaft-end by a flexible coupling and the bull gear is connected to the second driver shaft-end by a flexible coupling; and in that said first unit is an overhung impeller and the inlet of said first unit is fluidly connected to the outlet of said second unit thus forming a first multi stage compression unit.
A radar device which detects a target by using a radio wave, comprising: a receiving array antenna where a plurality of receiving antenna elements (17-1 to 17-8) each having a predetermined length in a first direction are disposed in a second direction almost orthogonal to the first direction; a dispersion part (31 - 34) which is disposed in the second direction and in the vicinity of the receiving array antenna, and dispersion properties of the radio wave change with respect to the first direction; and a detection part which detects a position of the target in the first direction based on the radio wave reflected by the dispersion part (31 - 34). a receiving array antenna where a plurality of receiving antenna elements (17-1 to 17-8) each having a predetermined length in a first direction are disposed in a second direction almost orthogonal to the first direction; a dispersion part (31 - 34) which is disposed in the second direction and in the vicinity of the receiving array antenna, and dispersion properties of the radio wave change with respect to the first direction; and a detection part which detects a position of the target in the first direction based on the radio wave reflected by the dispersion part (31 - 34).
A process unit for hazardous material, the process unit comprising: - at least one proximal inner flange, at least one distal inner flange, and an inner wall extending between the at least one proximal inner flange and the at least one distal inner flange and defining an inner passage for transport of the hazardous material, - a process control structure configured for interaction with the hazardous material in the inner passage, and - at least one proximal outer flange, at least one distal outer flange, and an outer wall extending about the inner wall between the at least one proximal outer flange and the at least one distal outer flange and defining, between the inner wall and the outer wall, an outer passage extending along a centre axis between a proximal outer opening and a distal outer opening, the proximal outer opening being within the proximal outer flange, the distal inner opening being within the distal outer flange, wherein the inner wall forms an inner opening through the inner wall and the outer wall forms an outer opening through the outer wall, wherein at least one of the inner opening and outer opening is arranged in sealing engagement with the process control structure, and wherein the outer passage forms a single unified space about the inner passage. - at least one proximal inner flange, at least one distal inner flange, and an inner wall extending between the at least one proximal inner flange and the at least one distal inner flange and defining an inner passage for transport of the hazardous material, - a process control structure configured for interaction with the hazardous material in the inner passage, and - at least one proximal outer flange, at least one distal outer flange, and an outer wall extending about the inner wall between the at least one proximal outer flange and the at least one distal outer flange and defining, between the inner wall and the outer wall, an outer passage extending along a centre axis between a proximal outer opening and a distal outer opening, the proximal outer opening being within the proximal outer flange, the distal inner opening being within the distal outer flange,
Method for automated configuration of a communications network comprising multiple virtual local area networks, in which - for each virtual local area network, VLAN, starting from communication terminals (111-112, 121-122, 131-132) on ports of switches (2-3, 110, 120, 130) and/or routers (1, 4) along paths (201-203, 301-306, 401-406, 501-504) assigned to the respective VLAN, a VLAN port operating mode is respectively defined depending on the usage of the respective port by the respective VLAN, - using first VLAN port configuration tags, VLAN segment boundaries are defined, wherein inbound and outbound frames on the respective port are assigned to the same VLAN, - using second VLAN port configuration tags, limits are set for tracing the paths assigned to the respective VLAN to define the VLAN port operating modes, - using third VLAN port configuration tags (VCEO), limits for tracing the paths assigned to the respective VLAN are set only in respect of outbound frames to define the VLAN port operating modes, - the tracing of the paths assigned to the respective VLAN, and a configuration of the ports included in these paths, which is based on the definition of the VLAN port operating modes, are controlled using the VLAN port configuration tags. - for each virtual local area network, VLAN, starting from communication terminals (111-112, 121-122, 131-132) on ports of switches (2-3, 110, 120, 130) and/or routers (1, 4) along paths (201-203, 301-306, 401-406, 501-504) assigned to the respective VLAN, a VLAN port operating mode is respectively defined depending on the usage of the respective port by the respective VLAN, - using first VLAN port configuration tags, VLAN segment boundaries are defined, wherein inbound and outbound frames on the respective port are assigned to the same VLAN, - using second VLAN port configuration tags, limits are set for tracing the paths assigned to the respective VLAN to define the VLAN port operating modes, - using third VLAN port configuration tags (VCEO), limits for tracing the paths assigned to the respective VLAN are set only in respect of outbound frames to define the VLAN port operating modes, - the tracing of the paths assigned to the respective VLAN, and a configuration of the ports included in these paths, which is based on the definition of the VLAN port operating modes, are controlled using the VLAN port configuration tags.
A wing structure for a supersonic aircraft comprising: two laterally extending wings, a pair of supersonic wave-tripping channels (230,240) formed on each of the two laterally extending wings of the supersonic aircraft, wherein each of the pair of supersonic wave-tripping channels extend in a span-wise direction of the wings respectively, wherein an upper supersonic wave-tripping channel of the pair of supersonic wave-tripping channels is disposed on an upper surface of each of the wings and a lower supersonic wave-tripping channel of the pair of supersonic wave-tripping channels is disposed on a lower surface of each of the wings, wherein the upper supersonic wave-tripping channel and the lower supersonic wave-tripping channel are set back from a leading edge of the wings respectively. two laterally extending wings, a pair of supersonic wave-tripping channels (230,240) formed on each of the two laterally extending wings of the supersonic aircraft, wherein each of the pair of supersonic wave-tripping channels extend in a span-wise direction of the wings respectively, wherein an upper supersonic wave-tripping channel of the pair of supersonic wave-tripping channels is disposed on an upper surface of each of the wings and a lower supersonic wave-tripping channel of the pair of supersonic wave-tripping channels is disposed on a lower surface of each of the wings, wherein the upper supersonic wave-tripping channel and the lower supersonic wave-tripping channel are set back from a leading edge of the wings respectively.
An implant screw for an implant, particularly for a dental implant (100, 100', 200, 300), with a ceramic head part (228, 328) and with a non-ceramic base thread (111, 111', 111", 211, 311) that can be screwed into a base body (130, 230, 330) of a dental implant (100, 100', 200, 300), wherein the head part (228, 328) is provided with a recess (1101, 2101, 3101) in which at least in sections a connector (1, 1', 1", 2, 3) is received, on which the base thread (111, 111', 111", 211, 311) is formed, wherein a front side (240, 340), connected to the head part (228, 328), points in the direction of the base thread (111, 111', 111", 211, 311), characterized by, at least one tooth, formed on the front side (240, 340), on which a tooth tip, pointing away from the front side, is formed. with a ceramic head part (228, 328) and with a non-ceramic base thread (111, 111', 111", 211, 311) that can be screwed into a base body (130, 230, 330) of a dental implant (100, 100', 200, 300), wherein the head part (228, 328) is provided with a recess (1101, 2101, 3101) in which at least in sections a connector (1, 1', 1", 2, 3) is received, on which the base thread (111, 111', 111", 211, 311) is formed, wherein a front side (240, 340), connected to the head part (228, 328), points in the direction of the base thread (111, 111', 111", 211, 311), characterized by, at least one tooth, formed on the front side (240, 340), on which a tooth tip, pointing away from the front side, is formed.
A device for generating an inhalable aerosol comprising: a. a body; b. an aerosol generator in the body comprising a vaporization chamber, wherein the aerosol generator is configured to generate an inhalable aerosol from a vaporisable material in the vaporisation chamber wherein such inhalable aerosol is deliverable to a user; and c. a lid removably coupled to the body of the device, wherein the lid is configured to cover the vaporisation chamber; characterised in that the device further comprises a magnetic hinge about which a first side of the lid can swivel away from the body of the device into an open position when a force is exerted on a second side of the lid in an opposite direction toward the body of the device, and the lid can be removed entirely by overcoming the magnetic force of the hinge. a. a body; b. an aerosol generator in the body comprising a vaporization chamber, wherein the aerosol generator is configured to generate an inhalable aerosol from a vaporisable material in the vaporisation chamber wherein such inhalable aerosol is deliverable to a user; and c. a lid removably coupled to the body of the device, wherein the lid is configured to cover the vaporisation chamber; characterised in that the device further comprises a magnetic hinge about which a first side of the lid can swivel away from the body of the device into an open position when a force is exerted on a second side of the lid in an opposite direction toward the body of the device, and the lid can be removed entirely by overcoming the magnetic force of the hinge.
A method for processing user generated content, UGC, the method comprising: sending, by a client, a request for obtaining UGC information to an information server of a network device for storing UGC information; receiving, by the client, UGC information returned by the information server of the network device in response to the request for obtaining UGC information; obtaining, by the client, UGC information from a local cache; determining, by the client, whether the received UGC information is the same as the UGC information from the local cache; determining, by the client, that UGC in the local cache is the latest UGC if the received UGC information is the same as the UGC information from the local cache; downloading, by the client, UGC from a storage server of the network device if UGC in the local cache is not the latest UGC, and obtaining UGC from the local cache if UGC in the local cache is the latest UGC; sending, by the client, a request for updating UGC to the storage server of the network device; receiving, by the client, a response from the storage server of the network device in response to the request for updating UGC; uploading, by the client, a new UGC to the storage server of the network device, notifying, by the storage server of the network device, the information server of the network device to update UGC information. sending, by a client, a request for obtaining UGC information to an information server of a network device for storing UGC information; receiving, by the client, UGC information returned by the information server of the network device in response to the request for obtaining UGC information; obtaining, by the client, UGC information from a local cache; determining, by the client, whether the received UGC information is the same as the UGC information from the local cache; determining, by the client, that UGC in the local cache is the latest UGC if the received UGC information is the same as the UGC information from the local cache; downloading, by the client, UGC from a storage server of the network device if UGC in the local cache is not the latest UGC, and obtaining UGC from the local cache if UGC in the local cache is the latest UGC; sending, by the client, a request for updating UGC to the storage server of the network device; receiving, by the client, a response from the storage server of the network device in response to the request for updating UGC; uploading, by the client, a new UGC to the storage server of the network device, notifying, by the storage server of the network device, the information server of the network device to update UGC information.