mhurhangee/patent-ind-claim-en huggingface dataset:
An application specific integrated circuit which, in operation, controls a process of a mobile station operable in one of a plurality of Time Division Duplex, TDD, configurations in a communication system, the process comprising: receiving a system information block, SIB, that includes a default TDD configuration defining uplink, downlink and special subframes within one or more radio frames, each radio frame including multiple subframes, receiving downlink control information and a corresponding error detection code for the downlink control information, wherein the error detection code is scrambled by an identifier associated with the mobile station, in response to successfully decoding the downlink control information with the error detection code scrambled by the identifier, determining a TDD configuration, among the plurality of TDD configurations including the default TDD configuration, based on the downlink control information, wherein the downlink control information identifies a TDD configuration among the plurality of TDD configurations, determining at least one serving cell, to which to apply the determined TDD configuration, applying the determined TDD configuration to one or more radio frames n+1 up to n+x in the at least one serving cell, wherein n corresponds to a radio frame in which the downlink control information and the error detection code are received by the mobile station, and in response to expiration of the determined TDD configuration, applying the default TDD configuration to a radio frame n+1+x, where x is a positive integer, and wherein x is 1, 2 or 4, and the x is pre-defined and is a fixed amount of time until applying the default TDD configuration. receiving a system information block, SIB, that includes a default TDD configuration defining uplink, downlink and special subframes within one or more radio frames, each radio frame including multiple subframes, receiving downlink control information and a corresponding error detection code for the downlink control information, wherein the error detection code is scrambled by an identifier associated with the mobile station, in response to successfully decoding the downlink control information with the error detection code scrambled by the identifier, determining a TDD configuration, among the plurality of TDD configurations including the default TDD configuration, based on the downlink control information, wherein the downlink control information identifies a TDD configuration among the plurality of TDD configurations, determining at least one serving cell, to which to apply the determined TDD configuration, applying the determined TDD configuration to one or more radio frames n+1 up to n+x in the at least one serving cell, wherein n corresponds to a radio frame in which the downlink control information and the error detection code are received by the mobile station, and in response to expiration of the determined TDD configuration, applying the default TDD configuration to a radio frame n+1+x, where x is a positive integer, and wherein x is 1, 2 or 4, and the x is pre-defined and is a fixed amount of time until applying the default TDD configuration.
A plug structure, comprising: - an electrical conductor ; - a pin arranged corresponding to the electrical conductor , having a conducting portion and a distal end formed on the conducting portion ; and - a conductive elastic sheet disposed between the pin and the electrical conductor , wherein the conductive elastic sheet has a lateral segment and at least one longitudinal segment extending from the lateral segment , the lateral segment having a first convex portion and a second convex portion reversed from each other, the longitudinal segment having a third convex portion ; - wherein, the lateral segment is clamped between the distal end and the electrical conductor , the first convex portion contacts the electrical conductor , the second convex portion contacts the distal end , and the third convex portion contacts the conducting portion , - wherein the first convex portion bends between the lateral segment and the longitudinal segment and forms a first opening with a first angle (θ1) towards the pin , the second convex portion bends on the lateral segment and forms a second opening with a second angle (θ2) towards the electrical conductor , and the third convex portion bends on the longitudinal segment and forms a third opening with a third angle (θ3) away from the pin , - wherein there are two longitudinal segments , such that the lateral segment is of W-shaped, and the longitudinal segment is of V-shaped. - an electrical conductor ; - a pin arranged corresponding to the electrical conductor , having a conducting portion and a distal end formed on the conducting portion ; and - a conductive elastic sheet disposed between the pin and the electrical conductor , wherein the conductive elastic sheet has a lateral segment and at least one longitudinal segment extending from the lateral segment , the lateral segment having a first convex portion and a second convex portion reversed from each other, the longitudinal segment having a third convex portion ; - wherein, the lateral segment is clamped between the distal end and the electrical conductor , the first convex portion contacts the electrical conductor , the second convex portion contacts the distal end , and the third convex portion contacts the conducting portion , - wherein the first convex portion bends between the lateral segment and the longitudinal segment and forms a first opening with a first angle (θ1) towards the pin , the second convex portion bends on the lateral segment and forms a second opening with a second angle (θ2) towards the electrical conductor , and the third convex portion bends on the longitudinal segment and forms a third opening with a third angle (θ3) away from the pin , - wherein there are two longitudinal segments , such that the lateral segment is of W-shaped, and the longitudinal segment is of V-shaped.
A binder composition for a non-aqueous secondary battery electrode comprising: a particulate polymer formed by a polymer that includes a block region composed of an aromatic vinyl monomer unit and has a tetrahydrofuran-insoluble content of not less than 5 mass% and not more than 40 mass% when measured as described in the description, wherein the polymer further includes a coupling moiety and is obtained through cross-linking of a block polymer including an aliphatic conjugated diene monomer unit and a block region composed of an aromatic vinyl monomer unit, and a water-soluble polymer that includes a hydrophilic group and has a weight-average molecular weight of not less than 15,000 and not more than 500,000 when measured as described in the description, wherein "water-soluble" means that when 0.5 g of the polymer is dissolved in 100 g of water at a temperature of 25°C, insoluble content is less than 1.0 mass%. a particulate polymer formed by a polymer that includes a block region composed of an aromatic vinyl monomer unit and has a tetrahydrofuran-insoluble content of not less than 5 mass% and not more than 40 mass% when measured as described in the description, wherein the polymer further includes a coupling moiety and is obtained through cross-linking of a block polymer including an aliphatic conjugated diene monomer unit and a block region composed of an aromatic vinyl monomer unit, and a water-soluble polymer that includes a hydrophilic group and has a weight-average molecular weight of not less than 15,000 and not more than 500,000 when measured as described in the description, wherein "water-soluble" means that when 0.5 g of the polymer is dissolved in 100 g of water at a temperature of 25°C, insoluble content is less than 1.0 mass%.
An orthopaedic implant , comprising: an implant body having a first surface , a second surface opposite said first surface , and a cavity formed therein that extends through said first surface and said second surface , said implant body being substantially non-porous, said implant body further including a third surface with at least one first opening formed therethrough to said cavity , said at least one first opening comprising an outer portion having an outer diameter (d o ) and an inner portion having an inner diameter (d i ), said outer diameter (d o ) greater than said inner diameter (d i ); and a load bearing member comprising a substantially porous material held within said cavity , said substantially porous material configured to receive, via said at least one first opening , a material agent , said load bearing member having a first contact surface extending out of said cavity past said first surface , wherein said outer portion of said at least one first opening is configured to couple to a tool for receiving, from the tool , said material agent , and wherein said inner portion of said at least one first opening is configured to couple to a plug for preventing said material agent , once received by said substantially porous material via said at least one first opening from said tool , from exiting said substantially porous material via said at least one first opening . an implant body having a first surface , a second surface opposite said first surface , and a cavity formed therein that extends through said first surface and said second surface , said implant body being substantially non-porous, said implant body further including a third surface with at least one first opening formed therethrough to said cavity , said at least one first opening comprising an outer portion having an outer diameter (d o ) and an inner portion having an inner diameter (d i ), said outer diameter (d o ) greater than said inner diameter (d i ); and a load bearing member comprising a substantially porous material held within said cavity , said substantially porous material configured to receive, via said at least one first opening , a material agent , said load bearing member having a first contact surface extending out of said cavity past said first surface , wherein said outer portion of said at least one first opening is configured to couple to a tool for receiving, from the tool , said material agent , and wherein said inner portion of said at least one first opening is configured to couple to a plug for preventing said material agent , once received by said substantially porous material via said at least one first opening from said tool , from exiting said substantially porous material via said at least one first opening .
Plug part for detachably connecting a pipe bend of a gas-cooled welding torch to a socket part arranged on a hose package , if need be with intermediate arrangement of a torch housing , comprising a cylindrical pipe element having a flange and an axially extending channel for a welding wire and a protective gas , and a coupling nut which is rotatably arranged on the pipe element and has an internal thread for connection to a corresponding external thread on the socket part , characterised in that at least one sealing ring is arranged on the pipe element , a bevel is further arranged on the flange of the pipe element , and in that at least one receiving opening , formed by a bore, for receiving a resiliently mounted pin-like element of the socket part that has a substantially hemispherical end , is arranged on the flange of the pipe element in order to fix at least one angular position of the pipe bend , such that, when the coupling nut is released, the pipe bend of the welding torch can preferably be rotated by 360°, in that the pin-like element can be deflected out of the receiving opening and rotated into the desired position.
A residual value calculation system configured to accurately calculate a remaining life of an air conditioner including an indoor unit and an outdoor unit , the residual value calculation system comprising: a management device that manages the air conditioner , wherein the management device includes: an obtaining unit that obtains first environment information related to an installation environment of the indoor unit and second environment information related to an installation environment of the outdoor unit ; and a calculating unit that calculates a residual value of the air conditioner after use over a set period based on the first environment information and the second environment information, the residual value including an initial estimation residual value that is estimated before the air conditioner is used and an actual estimation residual value that is based on actual use. an obtaining unit that obtains first environment information related to an installation environment of the indoor unit and second environment information related to an installation environment of the outdoor unit ; and a calculating unit that calculates a residual value of the air conditioner after use over a set period based on the first environment information and the second environment information, the residual value including an initial estimation residual value that is estimated before the air conditioner is used and an actual estimation residual value that is based on actual use.
A buckle for a helmet, comprising: a band unit provided with a first toothed portion including one or more teeth and recesses; a base unit for guiding sliding of the band unit when the band unit is introduced or retracted; a locking unit pivotally rotatably fastened to one side of the base unit , the locking unit being provided on one surface thereof, which faces the band unit , with a second toothed portion including one or more teeth and recesses so as to correspond to the first toothed portion , the second toothed portion being pushed toward the band unit ; and an operating unit fastened to an opposite side of the base unit so characterized in that the operating unit is linearly movable toward the locking unit , the operating unit serving to pivotally rotate the locking unit so that the second toothed portion is moved away from the band unit when it is moved toward the locking unit so as to apply a pressure to the locking unit , wherein the locking unit is provided on one end thereof, which faces the operating unit , with a first slope , wherein the operating unit is provided on one end thereof, which faces the locking unit , with a second slope , and wherein, when a user pushes the operating unit as to linearly move toward the locking unit , the second slope slides on the first slope to thereby push one surface of the locking unit , causing the locking unit to be pivotally rotated. a band unit provided with a first toothed portion including one or more teeth and recesses; a base unit for guiding sliding of the band unit when the band unit is introduced or retracted; a locking unit pivotally rotatably fastened to one side of the base unit , the locking unit being provided on one surface thereof, which faces the band unit , with a second toothed portion including one or more teeth and recesses so as to correspond to the first toothed portion , the second toothed portion being pushed toward the band unit ; and an operating unit fastened to an opposite side of the base unit so characterized in that the operating unit is linearly movable toward the locking unit , the operating unit serving to pivotally rotate the locking unit so that the second toothed portion is moved away from the band unit when it is moved toward the locking unit so as to apply a pressure to the locking unit , wherein the locking unit is provided on one end thereof, which faces the operating unit , with a first slope , wherein the operating unit is provided on one end thereof, which faces the locking unit , with a second slope , and wherein, when a user pushes the operating unit as to linearly move toward the locking unit , the second slope slides on the first slope to thereby push one surface of the locking unit , causing the locking unit to be pivotally rotated.
A method to recover an ethylene stream from a feed stream , comprising the following steps: - treating a feed stream to obtain a treated gas stream (60; 70); - at least partly cooling and condensing the treated gas stream (60 ; 70) in at least one heat exchanger (34, 42; 34, 142, 146, 42) to form at least one column feed fraction; - feeding the or each column feed fraction into a distillation column to recover an ethylene stream at the foot of the distillation column and, at the head, a head stream (98; 104) depleted of ethylene; - heating at least one downstream flow derived from the head stream in the heat exchanger (34, 42; 34, 142, 146, 42); characterized in that the treatment step comprises the forming of an intermediate stream containing at least 20 mole % ethylene and at least 20 mole % carbon monoxide, the method comprising a step to remove the carbon monoxide contained in the intermediate stream , and in that the ethylene stream contains more than 99 weight % of the ethylene contained in the feed stream , the ethylene stream being obtained at the foot of the distillation column without passing through another distillation column. - treating a feed stream to obtain a treated gas stream (60; 70); - at least partly cooling and condensing the treated gas stream (60 ; 70) in at least one heat exchanger (34, 42; 34, 142, 146, 42) to form at least one column feed fraction; - feeding the or each column feed fraction into a distillation column to recover an ethylene stream at the foot of the distillation column and, at the head, a head stream (98; 104) depleted of ethylene; - heating at least one downstream flow derived from the head stream in the heat exchanger (34, 42; 34, 142, 146, 42);
Method for operating a rotational speed sensor, in particular of a motor vehicle, including a signal generator ring which has multiple magnetic elements which are equally distributed over its circumference having an alternating magnetic orientation, and including a signal receiver which has at least two sensor elements (S L , S M , S R ) for detecting the magnetic fields of the magnets, wherein the sensor elements (S L , S M , S R ) are spaced at an equal distance from one another, and wherein information bits are generated as a function of the magnetic field strengths detected by the sensor elements (S L , S M , S R ) and are provided as a rotational speed information signal, wherein at least one additional rotational speed information signal is generated as a function of an ascertained rotational speed of the signal generator ring and is added to the rotational speed information signal in order to increase the signal resolution, characterized in that an AK protocol with a low, medium and high current strength is used for generating the rotational speed information signal, in that the additional rotational speed information signal is assigned to a signal generator ring angle of the signal generator ring and is added to the rotational speed information signal as an information bit at a corresponding position in the AK protocol, wherein the additional rotational speed information signal has a current strength which differs from the low, medium and high current strength of the rotational speed information signal, and in that the additional rotational speed information signal is generated only until the ascertained rotational speed exceeds a predefinable limit rotational speed.
A non-therapeutic application of ruthenium-nucleic acid complexes, wherein the ruthenium complex has one of the following general formula: or wherein: L is an auxiliary ligand having a structural formula of: R 1 is independently selected from H, hydroxyl, trimethylsilyl, C 1 -C 6 alkyl or substituted C 1 -C 6 alkyl, phenyl or substituted phenyl, pyridyl or substituted pyridyl, furyl or substituted furyl, pyrryl or substituted pyrryl, thiazolyl or substituted thiazolyl; wherein the position of R 1 substituted ethynyl may be ortho-position, meta-position or para-position on the benzene ring; the number of substituted ethynyl is 1, 2 or more; R 2 is independently selected from H, methyl, methoxyl, nitro and halogen; Y is an ion or acidic radical ion which makes the whole ruthenium(II) complex be electrically neutral, n is the number of ions or acidic radical ions which makes the whole ruthenium(II) complex be electrically neutral; and the length of the nucleic acid sequence is at least 4 bp, and wherein the nucleic acid is selected from c-myc promoter region DNA, C-kit promoter region DNA, bcl-2 promoter region DNA, miR-21, DNA of AS1411, siRNA, microRNA, aptamer and mRNA; wherein the nucleic acid is a fluorophore-labeled nucleic acid; wherein the ruthenium complexes are employed as nucleic acid vectors, and wherein nucleic acid sequences are delivered into cells for fluorescent tracking. L is an auxiliary ligand having a structural formula of: R 1 is independently selected from H, hydroxyl, trimethylsilyl, C 1 -C 6 alkyl or substituted C 1 -C 6 alkyl, phenyl or substituted phenyl, pyridyl or substituted pyridyl, furyl or substituted furyl, pyrryl or substituted pyrryl, thiazolyl or substituted thiazolyl; wherein the position of R 1 substituted ethynyl may be ortho-position, meta-position or para-position on the benzene ring; the number of substituted ethynyl is 1, 2 or more; R 2 is independently selected from H, methyl, methoxyl, nitro and halogen; Y is an ion or acidic radical ion which makes the whole ruthenium(II) complex be electrically neutral, n is the number of ions or acidic radical ions which makes the whole ruthenium(II) complex be electrically neutral; and the length of the nucleic acid sequence is at least 4 bp, and wherein the nucleic acid is selected from c-myc promoter region DNA, C-kit promoter region DNA, bcl-2 promoter region DNA, miR-21, DNA of AS1411, siRNA, microRNA, aptamer and mRNA; wherein the nucleic acid is a fluorophore-labeled nucleic acid; wherein the ruthenium complexes are employed as nucleic acid vectors, and wherein nucleic acid sequences are delivered into cells for fluorescent tracking.
A process for preparing a TPU alloy material through in-situ compatibilization, comprising the following steps: 1) premixing 100 parts by weight of TPU raw material, and then adding to a feeding port of a twin-screw extruder; injecting 5 to 95 parts by weight of an alloy component and 0.1 to 10 parts by weight of a dual-active substance into the twin-screw extruder through lateral feeding without a particular order for either of them; adding 0.1 to 5 parts by weight of auxiliaries to the TPU raw material or the mixture of the alloy component and the dual-active substance, wherein the alloy component is one of a polyolefin material and a thermoplastic polymer material having reactivity, the dual-active substance is a substance containing both a group reactive with the TPU raw material and a group reactive with the alloy component, and the auxiliaries comprise an initiator; 2) controlling a temperature of a reaction zone of the twin-screw extruder to be 50 °C to 250 °C, and granulating the extruded material by underwater cutting; and 3) drying the granulated product obtained in step 2) to obtain the TPU alloy material. 1) premixing 100 parts by weight of TPU raw material, and then adding to a feeding port of a twin-screw extruder; injecting 5 to 95 parts by weight of an alloy component and 0.1 to 10 parts by weight of a dual-active substance into the twin-screw extruder through lateral feeding without a particular order for either of them; adding 0.1 to 5 parts by weight of auxiliaries to the TPU raw material or the mixture of the alloy component and the dual-active substance, wherein the alloy component is one of a polyolefin material and a thermoplastic polymer material having reactivity, the dual-active substance is a substance containing both a group reactive with the TPU raw material and a group reactive with the alloy component, and the auxiliaries comprise an initiator; 2) controlling a temperature of a reaction zone of the twin-screw extruder to be 50 °C to 250 °C, and granulating the extruded material by underwater cutting; and 3) drying the granulated product obtained in step 2) to obtain the TPU alloy material.