mhurhangee/patent-ind-claim-en huggingface dataset:
A polymeric mesh, comprising: an absorbable polymeric fiber; and a non-absorbable synthetic polymeric fiber, wherein said absorbable polymeric fiber and said non-absorbable polymeric fiber are co-knit to form an interdependent mesh structure, wherein said absorbable fiber and non-absorbable fiber are co-knit using different knit patterns, wherein said absorbable fiber substantially degrades in vivo in a period of 1-12 weeks, characterized in that said absorbable fiber comprises a) a glycolide/1-lactide/trimethylene carbonate tripolymer or b) a homopolymer of polydioxanone, with the non-absorbable synthetic fiber being polyethylene. an absorbable polymeric fiber; and a non-absorbable synthetic polymeric fiber, wherein said absorbable polymeric fiber and said non-absorbable polymeric fiber are co-knit to form an interdependent mesh structure, wherein said absorbable fiber and non-absorbable fiber are co-knit using different knit patterns, wherein said absorbable fiber substantially degrades in vivo in a period of 1-12 weeks, characterized in that said absorbable fiber comprises a) a glycolide/1-lactide/trimethylene carbonate tripolymer or b) a homopolymer of polydioxanone, with the non-absorbable synthetic fiber being polyethylene. a) a glycolide/1-lactide/trimethylene carbonate tripolymer or b) a homopolymer of polydioxanone, with the non-absorbable synthetic fiber being polyethylene.
A transmitting apparatus for communicating with a plurality of receiving apparatuses (2-1 to 2-m) comprising: a plurality of transmission antennas (15-1 to 15-T) capable of forming a plurality of beams respectively directed to the plurality of receiving apparatuses (2-1 to 2-m); characterized by a precoder to perform precoding on signals transmitted from the transmission antennas (15-1 to 15-T) such that received power in third receiving apparatuses, which are the receiving apparatuses excluding a first receiving apparatus serving as a transmission destination of a transmission signal among the receiving apparatuses (2-1 to 2-m) and two or more second receiving apparatuses among the receiving apparatuses (2-1 to 2-m), is equal to or smaller than a threshold; wherein received power in the second receiving apparatuses is larger than the threshold. a plurality of transmission antennas (15-1 to 15-T) capable of forming a plurality of beams respectively directed to the plurality of receiving apparatuses (2-1 to 2-m); characterized by a precoder to perform precoding on signals transmitted from the transmission antennas (15-1 to 15-T) such that received power in third receiving apparatuses, which are the receiving apparatuses excluding a first receiving apparatus serving as a transmission destination of a transmission signal among the receiving apparatuses (2-1 to 2-m) and two or more second receiving apparatuses among the receiving apparatuses (2-1 to 2-m), is equal to or smaller than a threshold; wherein received power in the second receiving apparatuses is larger than the threshold.
A transportation barge for installing a structure offshore, wherein the transportation barge is provided with a hull and a loading platform which is supported in a position above the hull and on which the structure can be loaded in said transportation barge, wherein the loading platform is movable up and down, wherein said transportation barge comprises an actuator group which is configured to drive said loading platform to move up and down with respect to the hull , a pitching sensor configured to detect a pitching motion of the hull and output a pitching detection signal, and a rolling sensor configured to detect a rolling motion of the hull and output a rolling detection signal, said actuator group is configured to move down said loading platform with respect to the hull based on a first manual operation when the structure is hoisted, and the transportation barge further comprises an actuator control unit configured to automatically control said actuator group based on the pitching detection signal and/or the rolling detection signal such that the pitching motion and/or the rolling motion of said loading platform is reduced. an actuator group which is configured to drive said loading platform to move up and down with respect to the hull , a pitching sensor configured to detect a pitching motion of the hull and output a pitching detection signal, and a rolling sensor configured to detect a rolling motion of the hull and output a rolling detection signal,
A compressor (10; 110) for compressing a working fluid in a heat transfer circuit , comprising: a variable frequency drive (VFD) configured to utilize utility power (P 2 ); a motor electrically connected to the VFD, the motor configured to rotate a driveshaft and one or more gas bearings (20; 118) to support the driveshaft; characterized in that the motor is a permanent magnet motor (22; 112); a backup gas supply (60; 108) is fluidly connected to the one or more gas bearings; and a switch-mode power supply is electrically connected to the VFD, wherein during an interruption in the utility power, the switch-mode power supply is configured to utilize DC electrical power (P 7 ) generated by a back electromotive force of the permanent magnet motor to operate the backup gas supply to provide a flow (F 2 ) of compressed working fluid to the one or more gas bearings. a variable frequency drive (VFD) configured to utilize utility power (P 2 ); a motor electrically connected to the VFD, the motor configured to rotate a driveshaft and one or more gas bearings (20; 118) to support the driveshaft; characterized in that the motor is a permanent magnet motor (22; 112); a backup gas supply (60; 108) is fluidly connected to the one or more gas bearings; and a switch-mode power supply is electrically connected to the VFD, wherein during an interruption in the utility power, the switch-mode power supply is configured to utilize DC electrical power (P 7 ) generated by a back electromotive force of the permanent magnet motor to operate the backup gas supply to provide a flow (F 2 ) of compressed working fluid to the one or more gas bearings.
A process for manufacturing a rotationally symmetric plastic housing for a medical device, comprising a) providing a massive cylindrical rod of a medical grade polymer; b) producing a rotationally symmetric bore along the longitudinal axis of the cylindrical rod, the bore extending from a first end of the cylindrical rod to a second, opposite end of the cylindrical rod, wherein the diameter of the bore decreases from the first end in the direction of the second end; c) introducing a mandrel having a shape matching the inner contour of the bore into the bore from the first end of the rod; d) mounting a fixation cover on the second end of the rod; e) connecting the mandrel and the fixation cover by a fastener to press the rod onto the mandrel ; f) machining the outer surface of the rod using a CNC lathe to produce a desired outer contour of the housing . a) providing a massive cylindrical rod of a medical grade polymer; b) producing a rotationally symmetric bore along the longitudinal axis of the cylindrical rod, the bore extending from a first end of the cylindrical rod to a second, opposite end of the cylindrical rod, wherein the diameter of the bore decreases from the first end in the direction of the second end; c) introducing a mandrel having a shape matching the inner contour of the bore into the bore from the first end of the rod; d) mounting a fixation cover on the second end of the rod; e) connecting the mandrel and the fixation cover by a fastener to press the rod onto the mandrel ; f) machining the outer surface of the rod using a CNC lathe to produce a desired outer contour of the housing .
An apparatus for reducing in vivo shunt capacitance while measuring an impedance of a tissue region inside a body of a patient comprising: an energy source ; a first guidewire and a second guidewire coupled to the energy source , the first and second guidewires configured to be advanced into a tissue region of a body of a patient, the first and second guidewires comprising one or more electrodes configured to be electrically coupled to the tissue region, wherein the two guidewires are steered independently to measure impedance, characterized by further comprising; an error correction electrode that is spatially separated from the first guidewire and the second guidewire and configured to be in electrical connection with the body of the patient; a measurement device coupled to the error correction electrode configured to measure the impedance of the tissue region between the one or more electrodes of the first and the second guidewires when a voltage is applied between the first and second guidewires, wherein the measurement device includes a measurement circuitry to reduce the effect of the in vivo shunt capacitance using an electrical pathway created by the error correction electrode . an energy source ; a first guidewire and a second guidewire coupled to the energy source , the first and second guidewires configured to be advanced into a tissue region of a body of a patient, the first and second guidewires comprising one or more electrodes configured to be electrically coupled to the tissue region, wherein the two guidewires are steered independently to measure impedance, characterized by further comprising; an error correction electrode that is spatially separated from the first guidewire and the second guidewire and configured to be in electrical connection with the body of the patient; a measurement device coupled to the error correction electrode configured to measure the impedance of the tissue region between the one or more electrodes of the first and the second guidewires when a voltage is applied between the first and second guidewires, wherein the measurement device includes a measurement circuitry to reduce the effect of the in vivo shunt capacitance using an electrical pathway created by the error correction electrode .
A surge suppression unit , comprising: a connection panel comprising terminals configured to connect to a first set of power cables connected to a power supply and connect to a second set of power cables connected to radios ; a tray configured to retain surge suppression devices and including in-line connectors configured to connect the surge suppression devices to the terminals responsive to the tray attaching to the connection panel ; a mounting frame configured to connect to a rack or other support structure, the mounting frame including: a back wall having an opening for receiving the connection panel ; and a floor and side walls configured to retain the tray . a connection panel comprising terminals configured to connect to a first set of power cables connected to a power supply and connect to a second set of power cables connected to radios ; a tray configured to retain surge suppression devices and including in-line connectors configured to connect the surge suppression devices to the terminals responsive to the tray attaching to the connection panel ; a mounting frame configured to connect to a rack or other support structure, the mounting frame including: a back wall having an opening for receiving the connection panel ; and a floor and side walls configured to retain the tray . a back wall having an opening for receiving the connection panel ; and a floor and side walls configured to retain the tray .
A polypropylene composition comprising (A) a propylene-based polymer, (B) talc and (C) a functionalized polypropylene grafted with an acid or acid anhydride functional group, wherein components (A) and (C) are different, wherein the amount of the talc in the composition is 0.025-4 wt% of the total composition and the amount of the functionalized polypropylene is 0.005-0.75 wt% of the total composition.
Flame-retardant polyester compositions comprising - 25% to 95% by weight of thermoplastic polyester as component A, - 1% to 45% by weight of fillers and/or reinforcers as component B, - 1% to 35% by weight of phosphinic salt of the formula (I) as component C in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = (4 - m) / 2 -0.01 to 3% by weight of compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component D - 0.001% to 1% by weight of phosphonic salt of the formula II as component E in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = (4 - n) / 2, - 0.005% to 6% by weight of inorganic phosphonate as component F, and - 0.05% to 5% by weight of wax selected from the group consisting of the polyolefin waxes, amide waxes, natural waxes, long-chain aliphatic carboxylic acids having a chain length of C 14 to C 40 and/or esters or salts thereof as component G, where the percentages are based on the total amount of the polyester composition. - 25% to 95% by weight of thermoplastic polyester as component A, - 1% to 45% by weight of fillers and/or reinforcers as component B, - 1% to 35% by weight of phosphinic salt of the formula (I) as component C in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = (4 - m) / 2 -0.01 to 3% by weight of compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component D in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = (4 - m) / 2 -0.01 to 3% by weight of compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component D - 0.001% to 1% by weight of phosphonic salt of the formula II as component E in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = (4 - n) / 2, - 0.005% to 6% by weight of inorganic phosphonate as component F, and - 0.05% to 5% by weight of wax selected from the group consisting of the polyolefin waxes, amide waxes, natural waxes, long-chain aliphatic carboxylic acids having a chain length of C 14 to C 40 and/or esters or salts thereof as component G, where the percentages are based on the total amount of the polyester composition. in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = (4 - n) / 2, - 0.005% to 6% by weight of inorganic phosphonate as component F, and - 0.05% to 5% by weight of wax selected from the group consisting of the polyolefin waxes, amide waxes, natural waxes, long-chain aliphatic carboxylic acids having a chain length of C 14 to C 40 and/or esters or salts thereof as component G, where the percentages are based on the total amount of the polyester composition.
A prosthetic heart valve, comprising: an annular frame comprising an inflow end and an outflow end and being radially compressible and expandable between a radially compressed configuration and a radially expanded configuration; a valvular structure positioned within the frame and secured thereto; and an outer sealing member mounted outside of the frame and adapted to seal against surrounding tissue when the prosthetic heart valve is implanted within a native heart valve annulus of a patient, wherein when the prosthetic valve is in its radially expanded state, the outer sealing member fits in a tight-fitting manner against the outer surface of the frame ; wherein the outer sealing member is configured to stretch axially when the frame is radially compressed to the radially compressed state; wherein the outer sealing member comprises a woven or knitted fabric, wherein the fabric is resiliently stretchable between a first, relaxed configuration, and a second, axially tensioned configuration, wherein the relaxed configuration corresponds to the radially expanded configuration of the prosthetic valve , and the axially tensioned configuration corresponds to the radially collapsed delivery configuration of the prosthetic valve . an annular frame comprising an inflow end and an outflow end and being radially compressible and expandable between a radially compressed configuration and a radially expanded configuration; a valvular structure positioned within the frame and secured thereto; and an outer sealing member mounted outside of the frame and adapted to seal against surrounding tissue when the prosthetic heart valve is implanted within a native heart valve annulus of a patient, wherein when the prosthetic valve is in its radially expanded state, the outer sealing member fits in a tight-fitting manner against the outer surface of the frame ; wherein the outer sealing member is configured to stretch axially when the frame is radially compressed to the radially compressed state; wherein the outer sealing member comprises a woven or knitted fabric, wherein the fabric is resiliently stretchable between a first, relaxed configuration, and a second, axially tensioned configuration, wherein the relaxed configuration corresponds to the radially expanded configuration of the prosthetic valve , and the axially tensioned configuration corresponds to the radially collapsed delivery configuration of the prosthetic valve .
Method for monitoring an antifuse discharge device of a battery , the antifuse discharge device being electrically connected to battery terminals and being adapted to be activated to shortcut the battery terminals , wherein a parameter corresponding to probability of failure of said activating due to aging of the antifuse discharge device is determined based on the trend of temperature of the antifuse discharge device ; wherein the temperature of the antifuse discharge device is measured via a temperature sensor and the measured temperature is integrated over time as the parameter corresponding to probability of failure.
Thrust chain consisting of brackets and chain links , wherein the brackets are U-shaped, whereby legs are formed, which are connected to one another by a base , and which legs form side edges at their ends facing away from the base and the brackets have bearing surfaces on their end faces, which are in contact with the bearing surfaces of the adjacent bracket in the stretched position of the chain, and at the transition from the end faces to the side edges roundings are formed, wherein the brackets and the chain links are movably connected to one another by bolts , characterised in that the roundings have a curved course, which deviates from a part-circular course, wherein the radius decreases from the horizontal in the direction of the vertical.
An information sending method, comprising: determining (S41), by a network device , a physical downlink control channel, wherein the physical downlink control channel comprises at least one first control channel element, CCE, wherein the at least one first CCE is mapped to a resource element group, REG, bundle set in a plurality of REG bundle sets included in a control resource set, the REG bundle set comprising N REG clusters that are discrete in frequency domain, each REG cluster comprising a plurality of consecutive physical resource blocks in frequency domain, N being less than M, M being a quantity of REG clusters comprised in the control resource set, and both N and M are positive integers and the at least one first CCE occupying only REGs in the assigned REG bundle set; and sending (S42), by the network device , downlink control information by using the physical downlink control channel, wherein the determining (S41), by the network device , the physical downlink control channel comprises: determining the at least one first CCE comprised in the physical downlink control channel; and mapping the at least one first CCE to each of the N REG clusters in the assigned REG bundle set in an interleaved manner, wherein quantities of REGs of the control resource set that are used to map the at least one first CCE and that are in at least two of the N REG clusters are different. determining (S41), by a network device , a physical downlink control channel, wherein the physical downlink control channel comprises at least one first control channel element, CCE, wherein the at least one first CCE is mapped to a resource element group, REG, bundle set in a plurality of REG bundle sets included in a control resource set, the REG bundle set comprising N REG clusters that are discrete in frequency domain, each REG cluster comprising a plurality of consecutive physical resource blocks in frequency domain, N being less than M, M being a quantity of REG clusters comprised in the control resource set, and both N and M are positive integers and the at least one first CCE occupying only REGs in the assigned REG bundle set; and sending (S42), by the network device , downlink control information by using the physical downlink control channel, wherein the determining (S41), by the network device , the physical downlink control channel comprises: determining the at least one first CCE comprised in the physical downlink control channel; and mapping the at least one first CCE to each of the N REG clusters in the assigned REG bundle set in an interleaved manner, wherein quantities of REGs of the control resource set that are used to map the at least one first CCE and that are in at least two of the N REG clusters are different. determining the at least one first CCE comprised in the physical downlink control channel; and mapping the at least one first CCE to each of the N REG clusters in the assigned REG bundle set in an interleaved manner, wherein quantities of REGs of the control resource set that are used to map the at least one first CCE and that are in at least two of the N REG clusters are different.
Suspension assembly for a forecarriage or a rear axle having at least two wheels of a tilting vehicle , comprising: - a body associated to the chassis of the tilting vehicle ; - two junction devices opposite with respect to said body , each of said junction devices being associated to a wheel of the tilting vehicle ; said junction devices being joined to said body by means of connecting elements ; wherein each junction device comprises at least a first structural joint portion rotationally coupled in a first coupling site to at least a first connecting element of said connecting elements, and at least a second structural joint portion rotationally coupled in a second coupling site to at least a second connecting element of said connecting elements; and wherein said suspension assembly further comprises elasto-damper elements associated with said junction devices and suitable to damp the stresses transmitted by said wheels ; and wherein each junction device comprises at least one dynamic joint portion , rotationally coupled to at least one elasto-damper element in a dynamic joint coupling site ; and wherein said junction device rigidly determines the relative positioning and the spatial orientation of said first structural joint portion , said second structural joint portion and said dynamic joint portion ; the suspension assembly further comprising a rocker arm associated in a tilting manner to said body and to said elasto-damper elements . - a body associated to the chassis of the tilting vehicle ; - two junction devices opposite with respect to said body , each of said junction devices being associated to a wheel of the tilting vehicle ;