mhurhangee/ep-ind-claims huggingface dataset:
A paint formulation comprising an acid-modified polyolefin and a tackifier, and satisfying the following (a) and (b): (a) the acid-modified polyolefin has crystallinity; and (b) the tackifier has a double-bond equivalent of 40 or more, as defined by the formula: double-bond equivalent = weight average molecular weight/number of double bonds in a molecule, or contains no double bond, wherein the acid-modified polyolefin is a grafted product of at least one of polyethylene, polypropylene, and a propylene- α -olefin copolymer with at least one of α,β-unsaturated carboxylic acid and acid anhydride thereof, wherein the tackifier is an amorphous oligomer having a weight average molecular weight of 100 or more and 2000 or less, and is a thermoplastic resin that is liquid or solid at room temperature, and wherein the tackifier is contained in an amount of 60 to 400 parts by mass per 100 parts by mass of the acid-modified polyolefin. (a) the acid-modified polyolefin has crystallinity; and (b) the tackifier has a double-bond equivalent of 40 or more, as defined by the formula: double-bond equivalent = weight average molecular weight/number of double bonds in a molecule, or contains no double bond, wherein the acid-modified polyolefin is a grafted product of at least one of polyethylene, polypropylene, and a propylene- α -olefin copolymer with at least one of α,β-unsaturated carboxylic acid and acid anhydride thereof, wherein the tackifier is an amorphous oligomer having a weight average molecular weight of 100 or more and 2000 or less, and is a thermoplastic resin that is liquid or solid at room temperature, and wherein the tackifier is contained in an amount of 60 to 400 parts by mass per 100 parts by mass of the acid-modified polyolefin.
A communications method for a mobile management entity, MME, comprising: acquiring (101, 601), by the MME, information of a user equipment, UE, wherein the information of the UE comprises a type of the UE; determining (102, 602), by the MME according to the information of the UE, whether the UE satisfies a first preset condition, wherein the determining, by the MME according to the information of the UE, whether the UE satisfies a first preset condition comprises: determining, by the MME according to the type of the UE, whether the UE is a power-saving UE; characterized by: when the UE satisfies the first preset condition, generating (103, 603), by the MME, a first indication, wherein the first indication includes a first suggested waiting time instructing a serving gateway, SGW, to retain first data within the first suggested waiting time for the UE, and wherein the first data is downlink data of the UE; and sending (104, 604), by the MME, the first indication to the SGW. acquiring (101, 601), by the MME, information of a user equipment, UE, wherein the information of the UE comprises a type of the UE; determining (102, 602), by the MME according to the information of the UE, whether the UE satisfies a first preset condition, wherein the determining, by the MME according to the information of the UE, whether the UE satisfies a first preset condition comprises: determining, by the MME according to the type of the UE, whether the UE is a power-saving UE; characterized by: when the UE satisfies the first preset condition, generating (103, 603), by the MME, a first indication, wherein the first indication includes a first suggested waiting time instructing a serving gateway, SGW, to retain first data within the first suggested waiting time for the UE, and wherein the first data is downlink data of the UE; and sending (104, 604), by the MME, the first indication to the SGW. determining, by the MME according to the type of the UE, whether the UE is a power-saving UE; characterized by: when the UE satisfies the first preset condition, generating (103, 603), by the MME, a first indication, wherein the first indication includes a first suggested waiting time instructing a serving gateway, SGW, to retain first data within the first suggested waiting time for the UE, and wherein the first data is downlink data of the UE; and sending (104, 604), by the MME, the first indication to the SGW. when the UE satisfies the first preset condition, generating (103, 603), by the MME, a first indication, wherein the first indication includes a first suggested waiting time instructing a serving gateway, SGW, to retain first data within the first suggested waiting time for the UE, and wherein the first data is downlink data of the UE; and sending (104, 604), by the MME, the first indication to the SGW.
A method for preparing a glucan preparation, comprising the steps of: a) treating the cells of a microorganism with a protease and a mannanase; b) separating the mixture obtained from step a) into a heavy phase and a light phase; and c) drying the heavy phase obtained from step b), obtaining the glucan preparation, wherein the step c) comprises the steps of: c') treating the heavy phase obtained from step b) with an alkali and an acid sequentially, and separating it into a heavy phase and a light phase; and c") drying the heavy phase obtained from c'), obtaining the glucan preparation. a) treating the cells of a microorganism with a protease and a mannanase; b) separating the mixture obtained from step a) into a heavy phase and a light phase; and c) drying the heavy phase obtained from step b), obtaining the glucan preparation, c') treating the heavy phase obtained from step b) with an alkali and an acid sequentially, and separating it into a heavy phase and a light phase; and c") drying the heavy phase obtained from c'), obtaining the glucan preparation.
A method comprising contacting a sample being tested for the presence of one or more targets with one or more target-specific binding partners, wherein each of the target-specific binding partner is linked to a docking nucleic acid, and wherein target-specific binding partners of different specificity are linked to different docking nucleic acids, optionally removing unbound target-specific binding partners, contacting the sample with labeled imager nucleic acids comprising a nucleotide sequence that is complementary to the docking nucleic acid linked via a chemically or photochemically cleavable linker to a signal-emitting moiety, optionally removing unbound labeled imager nucleic acids, imaging the sample to detect bound labeled imager nucleic acids, inactivating the bound labeled imager nucleic acids, by removing or modifying their signal-emitting moieties without removing the bound imager nucleic acids in their entireties, by chemically or photochemically cleaving the linker, and repeating steps -, each time with a labeled imager nucleic acid having a unique nucleotide sequence relative to all other labeled imager nucleic acids. contacting a sample being tested for the presence of one or more targets with one or more target-specific binding partners, wherein each of the target-specific binding partner is linked to a docking nucleic acid, and wherein target-specific binding partners of different specificity are linked to different docking nucleic acids, optionally removing unbound target-specific binding partners, contacting the sample with labeled imager nucleic acids comprising a nucleotide sequence that is complementary to the docking nucleic acid linked via a chemically or photochemically cleavable linker to a signal-emitting moiety, optionally removing unbound labeled imager nucleic acids, imaging the sample to detect bound labeled imager nucleic acids, inactivating the bound labeled imager nucleic acids, by removing or modifying their signal-emitting moieties without removing the bound imager nucleic acids in their entireties, by chemically or photochemically cleaving the linker, and repeating steps -, each time with a labeled imager nucleic acid having a unique nucleotide sequence relative to all other labeled imager nucleic acids.
An adapter for interconnecting a surgical end effector to a surgical device, the adapter including: a drive shaft; and a load sensing device disposed about the drive shaft, the load sensing device configured to measure strain imparted on the drive shaft, the load sensing device including a housing, characterized in that the housing comprises: a tubular portion having a first end and a second end and defining a cavity therebetween; a first end cap disposed at the first end, the first end cap having a frustoconical wall extending from a base to a tip portion thereof, a first opening being defined through the said tip portion; and a second end cap disposed at the second end, the second end cap having a frustoconical wall extending from a base to a tip portion thereof, a second opening being defined through the said tip portion, wherein: the drive shaft passes through the first and second openings (508d, 510d) and the cavity; the load sensing device is secured to the drive shaft such that a strain imparted on the drive shaft is imparted on the load sensing device; and the load sensing device further comprises a conductive element wrapped at least partially about the tubular portion. a drive shaft; and a load sensing device disposed about the drive shaft, the load sensing device configured to measure strain imparted on the drive shaft, the load sensing device including a housing, a tubular portion having a first end and a second end and defining a cavity therebetween; a first end cap disposed at the first end, the first end cap having a frustoconical wall extending from a base to a tip portion thereof, a first opening being defined through the said tip portion; and a second end cap disposed at the second end, the second end cap having a frustoconical wall extending from a base to a tip portion thereof, a second opening being defined through the said tip portion, the drive shaft passes through the first and second openings (508d, 510d) and the cavity; the load sensing device is secured to the drive shaft such that a strain imparted on the drive shaft is imparted on the load sensing device; and the load sensing device further comprises a conductive element wrapped at least partially about the tubular portion.
A method of an electronic device (101;201;301;410), the method comprising: applying, by a processor (120;210), a current to a first coil among a plurality of coils of the electronic device; measuring, by the processor, a first current of a second coil among the plurality of coils while applying the current to the first coil, wherein the first current is induced by a magnetic flux which is generated by the first coil, the second coil adjacent to the first coil; measuring, by the processor, a second current of the second coil among the plurality of coils while the magnetic flux is not generated any more by the first coil, wherein the second current is induced by a magnetic flux which is formed in an object (1000;1100;1203;1502) based on the current applied to the first coil and then discharged from the object, the object being located outside the electronic device; and characterized by identifying, by the processor, a type of the object by receiving a first or second frequency of the induced current from the object; and performing, by the processor, at least one designated function associated with the type of the object, by detecting the object at a specific location according to a degree of change caused by degradation of a magnetic shielding layer of the electronic device. applying, by a processor (120;210), a current to a first coil among a plurality of coils of the electronic device; measuring, by the processor, a first current of a second coil among the plurality of coils while applying the current to the first coil, wherein the first current is induced by a magnetic flux which is generated by the first coil, the second coil adjacent to the first coil; measuring, by the processor, a second current of the second coil among the plurality of coils while the magnetic flux is not generated any more by the first coil, wherein the second current is induced by a magnetic flux which is formed in an object (1000;1100;1203;1502) based on the current applied to the first coil and then discharged from the object, the object being located outside the electronic device; and characterized by identifying, by the processor, a type of the object by receiving a first or second frequency of the induced current from the object; and performing, by the processor, at least one designated function associated with the type of the object, by detecting the object at a specific location according to a degree of change caused by degradation of a magnetic shielding layer of the electronic device.
An electrical connector including a main housing extending between a front and a rear and having a front charging port open towards the front and a rear chamber; a power terminal having a front contact pin arranged in the front charging port and a rear cable connector; a thermal sensor; a seal, electrically insulative and thermally conductive, holding the power terminal received in a terminal opening of the seal, the seal being thermally coupled to the power terminal and to the thermal sensor; characterized in that the seal has a rear face provided with a rear pocket forming a container filled with a thermal material, thermally conductive, that is either a paste or a foam, in a viscous liquid form or solidified, and has taken the shape of the container, and in which the thermal sensor is immersed, and the thermal sensor is configured to monitor the temperature of the power terminal via a thermal path including the seal and the thermal material. a main housing extending between a front and a rear and having a front charging port open towards the front and a rear chamber; a power terminal having a front contact pin arranged in the front charging port and a rear cable connector; a thermal sensor; a seal, electrically insulative and thermally conductive, holding the power terminal received in a terminal opening of the seal, the seal being thermally coupled to the power terminal and to the thermal sensor; characterized in that the seal has a rear face provided with a rear pocket forming a container filled with a thermal material, thermally conductive, that is either a paste or a foam, in a viscous liquid form or solidified, and has taken the shape of the container, and in which the thermal sensor is immersed, and the thermal sensor is configured to monitor the temperature of the power terminal via a thermal path including the seal and the thermal material.
Assembly (A, B, C) comprising at least two cooking vessels (1, 101, 201, 301) each comprising a handle (3, 103, 203, 303) equipped with an opening (6, 106, 206, 306) and at least one packaging device (20, 120, 220) arranged between the two cooking vessels (1, 101, 201, 301) to form the assembly (A, B, C) supporting the distribution in the commercial network, said packaging device (20, 120, 220) comprising an extended body (21, 121, 221) arranged between the handles (3, 103, 203, 303), characterised in that the extended body (21, 121, 221) comprises at least one non-circular positioning platform (22, 23, 122, 222, 223) extending along a direction Δ perpendicular to said extended body (21, 121, 221) and cooperating with an opening (6, 106, 206, 306) of one of the handles (3, 103, 203, 303) to make it possible to align the extended body (21, 121, 221) with respect to the handle (3, 103, 203, 303) and in that the packaging device (20, 120, 220) comprises a bearing part (31, 131, 231) arranged at a first end of the extended body (21, 121, 221), the bearing part (31, 131, 231) being arranged between a cap (2, 102, 202, 302) of one of the cooking vessels (1, 101, 201, 301) and the other cooking vessel (1, 101, 201, 301).
A method of enciphering data, in the form of bit streams, exchanged between a coder and a decoder in a video system, said system respecting a video compression standard, characterized in that it comprises at least the following steps: 1) determining, during the coding step, a set of code words, for which, from each code word a sub word is extracted, such that the substitution of a sub word by another sub word will impair only the visual quality of the video data and does not generate any desynchronization and does not lead to a bit stream that is incompatible with said standard, 2) enciphering the code words selected in the preceding step by substituting a sub-code word by another sub code word, so as to generate a single enciphered stream and to transmit this single enciphered stream to the decoding step. 1) determining, during the coding step, a set of code words, for which, from each code word a sub word is extracted, such that the substitution of a sub word by another sub word will impair only the visual quality of the video data and does not generate any desynchronization and does not lead to a bit stream that is incompatible with said standard, 2) enciphering the code words selected in the preceding step by substituting a sub-code word by another sub code word, so as to generate a single enciphered stream and to transmit this single enciphered stream to the decoding step.
An enveloping body for at least partially enveloping a limb, having an enclosed volume (21, 22) and a connector for supplying and removing fluid to the volume (21, 22) and from the volume (21, 22), the enveloping body forming an inner circumference and an outer circumference, characterized in that, on the enveloping body, stiffening elements (12, 13) are arranged which are designed to be brought into contact as a result of removal of fluid from the volume (21, 22) or to strengthen their contact with one another as a result of removal of fluid.
A cleaning device comprising: a holder section that holds an imaging device; a light-transmissive member disposed in a visual field of the imaging device; a vibrator section that vibrates the light-transmissive member; and a discharge section that discharge a cleaning liquid so as to cause the cleaning liquid to reach a surface of side of the light-transmissive member that is opposite to a side thereof near the imaging device, wherein the vibrator section vibrates the light-transmissive member so as to generate an amount of displacement at a center portion of the surface of the light-transmissive member which becomes larger than an amount of displacement of said surface on a side of the light-transmissive member, wherein the discharge section includes at least one cavity (10a, 31) for discharging the cleaning liquid at a position out of the visual field, and wherein the light-transmissive member includes a guide portion for guiding the discharged cleaning liquid provided around the periphery thereof, and the at least one cavity is formed in the guide portion, characterized in that wherein the discharge section can move the at least one cavity around the visual field of the light-transmissive member. a holder section that holds an imaging device; a light-transmissive member disposed in a visual field of the imaging device; a vibrator section that vibrates the light-transmissive member; and a discharge section that discharge a cleaning liquid so as to cause the cleaning liquid to reach a surface of side of the light-transmissive member that is opposite to a side thereof near the imaging device, wherein the vibrator section vibrates the light-transmissive member so as to generate an amount of displacement at a center portion of the surface of the light-transmissive member which becomes larger than an amount of displacement of said surface on a side of the light-transmissive member, wherein the discharge section includes at least one cavity (10a, 31) for discharging the cleaning liquid at a position out of the visual field, and wherein the light-transmissive member includes a guide portion for guiding the discharged cleaning liquid provided around the periphery thereof, and the at least one cavity is formed in the guide portion, characterized in that wherein the discharge section can move the at least one cavity around the visual field of the light-transmissive member.
A distributed electric propulsion fixed-wing aircraft comprising a plurality of electric propulsive units (EM1-EM6; EM1-EM4; EM1-EM11) and a longitudinal plane, wherein the electric propulsive units (EM1-EM6; EM1-EM4; EM1-EM11) are arranged symmetrically with respect to the longitudinal plane, wherein the electric propulsive units (EM1-EM6; EM1-EM4) comprise first propulsive units at a first side of the longitudinal plane and second propulsive units at a second side of the longitudinal plane, wherein the distributed propulsion aircraft further comprises a control unit (EPMS) configured to provide a yawing moment so that a sideslip angle, β, is generated, so that the distributed electric propulsion aircraft flies as a fixed-wing aircraft equipped with a single propeller, wherein the control unit (EPMS) is configured to simulate the operating mode of a traditional thermal engine or a turbofan or turboprop engine by introducing a delay and/or an irregularity in the delivery of power and/or by decreasing power with the increase in altitude. wherein the electric propulsive units (EM1-EM6; EM1-EM4; EM1-EM11) are arranged symmetrically with respect to the longitudinal plane, wherein the electric propulsive units (EM1-EM6; EM1-EM4) comprise first propulsive units at a first side of the longitudinal plane and second propulsive units at a second side of the longitudinal plane, wherein the distributed propulsion aircraft further comprises a control unit (EPMS) configured to provide a yawing moment so that a sideslip angle, β, is generated, so that the distributed electric propulsion aircraft flies as a fixed-wing aircraft equipped with a single propeller, wherein the control unit (EPMS) is configured to simulate the operating mode of a traditional thermal engine or a turbofan or turboprop engine by introducing a delay and/or an irregularity in the delivery of power and/or by decreasing power with the increase in altitude.
An isolated and purified monoclonal or polyclonal antibody capable of binding to a CPSI protein encoded by a nucleic acid molecule that results in a asparagine at amino acid 1405 of the CPSI protein, wherein said antibody does not bind a CPSI protein encoded by a nucleic acid molecule that results in threonine at amino acid 1405 of the CPSI protein.
A process for producing a layer on a substrate body or a body built up of layers, where a coating material which is formed by particles and is composed of Mo, W, an Mo-based alloy, a W-based alloy or an Mo-W alloy and also a process gas which has a pressure of > 10 bar are provided, the process gas is accelerated in a convergent-divergent nozzle and the coating material is injected into the process gas before, in or after the convergent-divergent nozzle, the particles are at least partly present as aggregates and/or agglomerates, characterized in that the aggregates and/or agglomerates at least partly have an average porosity determined by means of quantitative image analysis of > 10% by volume and in that the aggregates and/or agglomerates have an average surface area measured by means of BET of > 0.05 m 2 /g..
A microbicidal filter for air treatment comprising, in an allocated direction of flow of an airstream liable to pass through the filter, a first filtration layer, a HEPA filter, a second filtration layer, wherein the first filtration layer contains a bactericidal and/or fungicidal agent and the HEPA filter is pleated while being applied against the second filtration layer, said second filtration layer being also pleated and placed downstream, characterized in that the first filtration layer and the second filtration layer consist of a filter element woven in three dimensions, made of polypropylene fibers.