mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (200, 500, 600, 900, 1000, 1100) for a regenerative network node between a first and a second link portion (198, 199), comprising: an input configured to receive, from the first link portion, a signal impaired by the first link portion, the signal including a data packet (310, 320) with a Forward Error Correction, FEC, encoded payload portion (310-2, 320-2, 330-2) and a header portion (310-1, 320-1, 330-1); a signal regeneration unit configured to mitigate signal impairments of the first link portion to provide a regenerated FEC encoded payload portion; a processing unit configured to extract destination information given in the data packet's header portion (310-1, 320-1,330-1), if the extracted destination information indicates that the data packet's destination is the regenerative network node, forward the data packet's regenerated FEC encoded payload portion to a decoding unit of the regenerative network node, else, forward the data packet's regenerated FEC encoded payload portion to the second link portion; and a reduction unit configured to reduce a number of bits representing the data packet's regenerated FEC encoded payload portion, if the data packet's regenerated FEC encoded payload portion is forwarded to the second link portion. an input configured to receive, from the first link portion, a signal impaired by the first link portion, the signal including a data packet (310, 320) with a Forward Error Correction, FEC, encoded payload portion (310-2, 320-2, 330-2) and a header portion (310-1, 320-1, 330-1); a signal regeneration unit configured to mitigate signal impairments of the first link portion to provide a regenerated FEC encoded payload portion; a processing unit configured to extract destination information given in the data packet's header portion (310-1, 320-1,330-1), if the extracted destination information indicates that the data packet's destination is the regenerative network node, forward the data packet's regenerated FEC encoded payload portion to a decoding unit of the regenerative network node, else, forward the data packet's regenerated FEC encoded payload portion to the second link portion; and extract destination information given in the data packet's header portion (310-1, 320-1,330-1), if the extracted destination information indicates that the data packet's destination is the regenerative network node, forward the data packet's regenerated FEC encoded payload portion to a decoding unit of the regenerative network node, else, forward the data packet's regenerated FEC encoded payload portion to the second link portion; and a reduction unit configured to reduce a number of bits representing the data packet's regenerated FEC encoded payload portion, if the data packet's regenerated FEC encoded payload portion is forwarded to the second link portion.
A method for device-to-device D2D communication, comprising: determining first access information by a first terminal device, the first access information being used to access a first cell; and sending the first access information by the first terminal device to a second terminal device, wherein the first access information is used for causing the second terminal device to determine, based on the first access information as received, second access information used by the second terminal device to access a second cell, characterized in that the method further comprises: sending condition information by the first terminal device to the second terminal device, wherein the condition information is used for indicating the second terminal device to determine the second access information based on the first access information when a condition indicated by the condition information is satisfied, wherein the condition information comprises location condition information; and wherein the first access information comprises a first timing advance, TA, and the location condition information comprises a location of the first terminal device when the first terminal device receives the first TA from other devices and a use distance of the first TA. determining first access information by a first terminal device, the first access information being used to access a first cell; and sending the first access information by the first terminal device to a second terminal device, wherein the first access information is used for causing the second terminal device to determine, based on the first access information as received, second access information used by the second terminal device to access a second cell, characterized in that the method further comprises: sending condition information by the first terminal device to the second terminal device, wherein the condition information is used for indicating the second terminal device to determine the second access information based on the first access information when a condition indicated by the condition information is satisfied, wherein the condition information comprises location condition information; and wherein the first access information comprises a first timing advance, TA, and the location condition information comprises a location of the first terminal device when the first terminal device receives the first TA from other devices and a use distance of the first TA. sending condition information by the first terminal device to the second terminal device, wherein the condition information is used for indicating the second terminal device to determine the second access information based on the first access information when a condition indicated by the condition information is satisfied, wherein the condition information comprises location condition information; and wherein the first access information comprises a first timing advance, TA, and the location condition information comprises a location of the first terminal device when the first terminal device receives the first TA from other devices and a use distance of the first TA.
A microwave ablation assembly, comprising: an antenna configured to deliver microwave ablation energy to tissue; and a pair of bipolar electrodes (512a, 512b) disposed on the antenna and configured to generate a feedback signal in response to an electrical signal supplied thereto, wherein the assembly is configured to compare the feedback signal to at least one predetermined parameter to determine a depth of insertion of the antenna into tissue, the pair of bipolar electrodes (512a, 512b) comprising a first bipolar electrode circumferentially spaced from a second bipolar electrode, each of the first and second bipolar electrodes (512a, 512b) comprising a plurality of laterally spaced fingers (515a, 515b) extending at least partially between the first and second bipolar electrodes (512a, 512b) in an interlocking configuration to define a spacing between the first and second bipolar electrodes (512a, 512b). an antenna configured to deliver microwave ablation energy to tissue; and a pair of bipolar electrodes (512a, 512b) disposed on the antenna and configured to generate a feedback signal in response to an electrical signal supplied thereto, wherein the assembly is configured to compare the feedback signal to at least one predetermined parameter to determine a depth of insertion of the antenna into tissue, the pair of bipolar electrodes (512a, 512b) comprising a first bipolar electrode circumferentially spaced from a second bipolar electrode, each of the first and second bipolar electrodes (512a, 512b) comprising a plurality of laterally spaced fingers (515a, 515b) extending at least partially between the first and second bipolar electrodes (512a, 512b) in an interlocking configuration to define a spacing between the first and second bipolar electrodes (512a, 512b).
A device for the treatment of the human or animal body, comprising - an applicator (2, 5, 5', 5") to be applied externally onto the body, - a housing (9, 11, 12) in which the applicator (2, 5, 5', 5") is held, and - a mechanism for generating impacts of the applicator (2, 5, 5', 5") relative to the housing (9, 11, 12) in a direction of impact so that the impacts can be coupled into the body when the applicator is applied onto the body, wherein the applicator (2, 5, 5', 5") has a pivot bearing which rotatably holds a rotatable applicator part (15, 16, 17) of the applicator (2, 5, 5', 5") which is designed to be applied onto the body to be treated, and rotation of the rotatable applicator part (15, 16, 17) around an axis of rotation angled in relation to the direction of impact is possible, characterised in that the mechanism for generating the impacts comprises a projectile and an pneumatic device for accelerating the projectile such that the projectile hits the applicator (2, 5, 5', 5"), thereby generating the impact, and wherein the applicator (2, 5, 5', 5") is held in the device by means of a positive locking arrangement such that it is locked against rotation, namely in respect of rotations around an axis parallel to the direction of impact. - an applicator (2, 5, 5', 5") to be applied externally onto the body, - a housing (9, 11, 12) in which the applicator (2, 5, 5', 5") is held, and - a mechanism for generating impacts of the applicator (2, 5, 5', 5") relative to the housing (9, 11, 12) in a direction of impact so that the impacts can be coupled into the body when the applicator is applied onto the body,
An undulated hollow fiber membrane for extracorporeal blood treatment, comprising at least a first hydrophobic polymer selected from the group of polyaryl ethers (polysulfones, polyaryl ketones, polyether ketones), polyamides, polyesters, polycarbonates, polyacrylates and -methacrylates, polymethacrylimides, polyvinylidene fluorides, polyimides or polyacrylonitriles or copolymers comprising corresponding monomer units of said polymers or mixtures of said polymers, and at least one second hydrophilic polymer selected from the group of polyvinylpyrrolidones or polyethylene glycols or mixtures thereof, having a wall thickness (w) of 20 μm or more and 30 μm or less, an amplitude (a) of the waveform in the range from 0.005 to 0.15 mm, in particular from 0.01 to 0.12 mm, and a luminal diameter of 160 to 230 μm, characterized in that that the waveform of the hollow fiber membrane has a wavelength (λ) in the range from more than 1 mm to 4 mm or from more than 1 mm and less than 4 mm, and characterized in that the porosity of the hollow fiber membrane is greater than 65% and less than 78%, wherein the porosity is determined as defined in the description. a first hydrophobic polymer selected from the group of polyaryl ethers (polysulfones, polyaryl ketones, polyether ketones), polyamides, polyesters, polycarbonates, polyacrylates and -methacrylates, polymethacrylimides, polyvinylidene fluorides, polyimides or polyacrylonitriles or copolymers comprising corresponding monomer units of said polymers or mixtures of said polymers, and at least one second hydrophilic polymer selected from the group of polyvinylpyrrolidones or polyethylene glycols or mixtures thereof, having a wall thickness (w) of 20 μm or more and 30 μm or less, an amplitude (a) of the waveform in the range from 0.005 to 0.15 mm, in particular from 0.01 to 0.12 mm, and a luminal diameter of 160 to 230 μm, characterized in that that the waveform of the hollow fiber membrane has a wavelength (λ) in the range from more than 1 mm to 4 mm or from more than 1 mm and less than 4 mm, and characterized in that the porosity of the hollow fiber membrane is greater than 65% and less than 78%, wherein the porosity is determined as defined in the description.
Sensor system for detecting the wear of brake pads and of the brake disc of a disc brake, in particular for a motor vehicle, comprising a sensor device and a transmission unit, wherein the sensor device comprises at least one transducer and a sensor gearset coupled with the at least one transducer, having at least one gearset input, wherein the transmission unit is coupled with the gearset input and is designed to transmit a rotation movement, associated with the wear to be detected, for a clutch with a threaded spindle of the disc brake to be associated therewith, characterised in that the transmission unit comprises a drive input sleeve (17, 170) for rotationally fixed coupling to the threaded spindle, a drive output sleeve (18, 180) coupled to the drive input sleeve (17, 170), at least one spring element (19; 190) and a carrier (20, 200) coupled in a rotationally fixed manner to the drive output sleeve (18, 180) for rotationally fixed coupling to the gearset input.
A lens driving apparatus comprising: a zoom lens which is configured for being driven in an optical axis direction; a first correction lens capable of being driven in the optical axis direction; a second correction lens capable of being driven in the optical axis direction; storage means configured for storing, for each predetermined focal length, positional relationships between the zoom lens, and the first correction lens and the second correction lens which are required to correct a shift of an image plane upon driving of the zoom lens; and control means configured for calculating driving amounts of the first correction lens and the second correction lens, and configured for controlling driving of the first correction lens and the second correction lens, characterized in that said lens driving apparatus further comprises a position detection means ( 120a, 120b) configured for detecting a position of the second correction lens, wherein the control means is configured to correct an image plane position difference caused by a difference between a position of the second correction lens which corresponds to a position of the zoom lens and is stored in the storage means, and a position of the second correction lens detected by the position detection means, by moving the first correction lens. a zoom lens which is configured for being driven in an optical axis direction; a first correction lens capable of being driven in the optical axis direction; a second correction lens capable of being driven in the optical axis direction; storage means configured for storing, for each predetermined focal length, positional relationships between the zoom lens, and the first correction lens and the second correction lens which are required to correct a shift of an image plane upon driving of the zoom lens; and control means configured for calculating driving amounts of the first correction lens and the second correction lens, and configured for controlling driving of the first correction lens and the second correction lens, characterized in that said lens driving apparatus further comprises a position detection means ( 120a, 120b) configured for detecting a position of the second correction lens, wherein the control means is configured to correct an image plane position difference caused by a difference between a position of the second correction lens which corresponds to a position of the zoom lens and is stored in the storage means, and a position of the second correction lens detected by the position detection means, by moving the first correction lens.
A robotic surgery system apparatus comprising: a mounting base; an orienting platform; a plurality of set-up arms (38, 40, 42, 44), each set-up arm (38, 40, 42, 44) including a proximal end, a distal end, and links coupled by a releasably fixable joint, each arm (38, 40, 42, 44) being rotationally coupled at its proximal end to the orienting platform; and a robotic manipulator coupled to the distal end of each set-up arm (38, 40, 42, 44); characterized in further comprising: a platform linkage mounted to the mounting base; wherein the orienting platform is rotationally coupled to and movably supported by the platform linkage. a mounting base; an orienting platform; a plurality of set-up arms (38, 40, 42, 44), each set-up arm (38, 40, 42, 44) including a proximal end, a distal end, and links coupled by a releasably fixable joint, each arm (38, 40, 42, 44) being rotationally coupled at its proximal end to the orienting platform; and a robotic manipulator coupled to the distal end of each set-up arm (38, 40, 42, 44); characterized in further comprising: a platform linkage mounted to the mounting base; wherein the orienting platform is rotationally coupled to and movably supported by the platform linkage. a platform linkage mounted to the mounting base; wherein the orienting platform is rotationally coupled to and movably supported by the platform linkage.
Overflow device which is to be arranged in a sanitary installation of a transport vehicle between a first tank and a second tank, comprising a main enclosure extending in a vertical direction between an upper water inlet nozzle, which is to be connected to the first tank, and a first lower water outlet nozzle, which is to be connected to the second tank, characterised in that: - the overflow device comprises a secondary enclosure comprising a second lower water outlet nozzle, the secondary enclosure being adjacent to the main enclosure, and the main enclosure comprising a first lateral overflow opening which opens into the secondary enclosure, the first lateral opening being arranged between the upper water inlet nozzle and the lower water outlet nozzle in the vertical direction, and - the main enclosure comprises at least one protection member (70, 72, 74) extending transversely in the main enclosure and covering more than 70% of the surface of a cross-section of the main enclosure. - the overflow device comprises a secondary enclosure comprising a second lower water outlet nozzle, the secondary enclosure being adjacent to the main enclosure, and the main enclosure comprising a first lateral overflow opening which opens into the secondary enclosure, the first lateral opening being arranged between the upper water inlet nozzle and the lower water outlet nozzle in the vertical direction, and - the main enclosure comprises at least one protection member (70, 72, 74) extending transversely in the main enclosure and covering more than 70% of the surface of a cross-section of the main enclosure.
A polynucleotide primer comprising at least one modified pyrimidine nucleobase no more than 4 nucleotides from the 3' terminus of the primer, wherein the modified pyrimidine nucleobase comprises the structure wherein R is selected from -H, -F, -Cl, C 1 -C 6 alkyl, C 1 -C 6 substituted alkyl, C 3 -C 10 aryl, C 3 -C 10 substituted aryl, C 3 -C 10 aryl ether, C 3 -C 10 substituted aryl ether, -CF 3, -NR 1 R 1, C 3 -C 6 cyclic alkyl, C 3 -C 6 substituted cyclic alkyl, phenyl, substituted phenyl and C 5 -C 10 heteroaryl, wherein R 1 is selected from -H, -F, -Cl, C 1 -C 6 alkyl, C 1 -C 6 substituted alkyl, C 3 -C 10 aryl, C 3 -C 10 substituted aryl; and wherein at least one modified nucleotide is the 3' terminal nucleotide of the polynucleotide.
A flexible retroreflective article comprising: a polymeric light transmissive body layer having an elastic modulus of less than 7 x 10 8 pascals; a plurality of cube-corner elements projecting from a major surface of the body layer; and a single layered or a multilayered seal film adhered to at least portions of the body layer, such that the seal film maintains an air interface with the cube-comer elements; wherein the multilayered seal film has a seal film layer disposed between the cube-comer elements and a second film layer, the seal film layer being in contact with at least the body layer or cube-corner elements; and the single layered seal film or the seal film layer of the multilayered seal film is a thermoplastic polymeric material comprising a copolymer, the copolymer comprising reaction products of alkylene and reaction products of at least one non-acidic polar monomer, the reaction products of alkylene being present in an amount of at least 50% and the reaction products of at least one non-acidic polar monomer being present in a total amount of up to 25 wt-%, wherein the at least one non-acidic monomer comprises vinyl acetate and optionally comprises at least one alkyl (meth)acrylate monomer; wherein the thermoplastic polymeric material comprises acid modification, anhydride modification, carbon monoxide modification, or combinations thereof. a polymeric light transmissive body layer having an elastic modulus of less than 7 x 10 8 pascals; a plurality of cube-corner elements projecting from a major surface of the body layer; and a single layered or a multilayered seal film adhered to at least portions of the body layer, such that the seal film maintains an air interface with the cube-comer elements; wherein the multilayered seal film has a seal film layer disposed between the cube-comer elements and a second film layer, the seal film layer being in contact with at least the body layer or cube-corner elements; and the single layered seal film or the seal film layer of the multilayered seal film is a thermoplastic polymeric material comprising a copolymer, the copolymer comprising reaction products of alkylene and reaction products of at least one non-acidic polar monomer, the reaction products of alkylene being present in an amount of at least 50% and the reaction products of at least one non-acidic polar monomer being present in a total amount of up to 25 wt-%, wherein the at least one non-acidic monomer comprises vinyl acetate and optionally comprises at least one alkyl (meth)acrylate monomer; wherein the thermoplastic polymeric material comprises acid modification, anhydride modification, carbon monoxide modification, or combinations thereof.
A slide-type extractor for the extraction and the transfer of granular mineral materials at high temperature contained in a first enclosure including: - a fixed upper part and a mobile lower part delimiting a duct, this duct being provided with an inlet mouth suitable for being connected to the first enclosure and with an outlet mouth, the inlet and outlet mouths being horizontally and vertically offset; the mobile lower part being movable in a determined direction reciprocally between a advanced position and a retracted position to allow the flow of the granular mineral materials in the duct; and - means (78, 80) for moving and guiding the mobile part relative to the fixed part; characterized in that the fixed part and the mobile part each comprise a metal outer shell (38, 58), and an inner shell (40; 60) made by stacking at least: - a first coating (42; 62) of thermally insulating material mounted on the metal outer shell (38; 58); and - a second coating (44; 64) of refractory material mounted on the first coating (42, 62). - a fixed upper part and a mobile lower part delimiting a duct, this duct being provided with an inlet mouth suitable for being connected to the first enclosure and with an outlet mouth, the inlet and outlet mouths being horizontally and vertically offset; the mobile lower part being movable in a determined direction reciprocally between a advanced position and a retracted position to allow the flow of the granular mineral materials in the duct; and - means (78, 80) for moving and guiding the mobile part relative to the fixed part; - a first coating (42; 62) of thermally insulating material mounted on the metal outer shell (38; 58); and - a second coating (44; 64) of refractory material mounted on the first coating (42, 62).
A power adapter, applied to a portable electronic device, comprising a casing having! two head surfaces and a ring surface, a cable management structure disposed on the head surface of the casing, wherein the cable management structure is a plate-shaped structure and the periphery of the cable management structure has at least a recessed edge, and a power cable, one end of the power cable is connected to the casing and the other end of the power cable has a plug, the power adapter characterized by: the plug is capable of being held by the recessed edge and has a groove for fastening with the recessed edge. the plug is capable of being held by the recessed edge and has a groove for fastening with the recessed edge.