mhurhangee/ep-ind-claims huggingface dataset:
A vacuum pump, comprising: a rotating portion and a stator portion between which an internal flow path is formed; an exhaust mechanism which sends gas from a suction port toward an outlet port through the internal flow path; and a main sensor for detecting that a deposited material has reached a prescribed thickness at a detection object position of the internal flow path, wherein the main sensor includes: at least a pair of electrodes (54, 56,154, 156) disposed in the internal flow path at an interval corresponding to one to two times an interval between the rotating portion and the stator portion at the detection object position; and a capacitance detection circuit which is connected to the pair of electrodes and which is configured to detect a capacitance between the pair of electrodes, and the capacitance detection circuit is configured to detect that a deposited material in the internal flow path has reached the prescribed thickness on the basis of a drop in an increase rate of the capacitance. a rotating portion and a stator portion between which an internal flow path is formed; an exhaust mechanism which sends gas from a suction port toward an outlet port through the internal flow path; and a main sensor for detecting that a deposited material has reached a prescribed thickness at a detection object position of the internal flow path, wherein the main sensor includes: at least a pair of electrodes (54, 56,154, 156) disposed in the internal flow path at an interval corresponding to one to two times an interval between the rotating portion and the stator portion at the detection object position; and a capacitance detection circuit which is connected to the pair of electrodes and which is configured to detect a capacitance between the pair of electrodes, and the capacitance detection circuit is configured to detect that a deposited material in the internal flow path has reached the prescribed thickness on the basis of a drop in an increase rate of the capacitance. at least a pair of electrodes (54, 56,154, 156) disposed in the internal flow path at an interval corresponding to one to two times an interval between the rotating portion and the stator portion at the detection object position; and a capacitance detection circuit which is connected to the pair of electrodes and which is configured to detect a capacitance between the pair of electrodes, and the capacitance detection circuit is configured to detect that a deposited material in the internal flow path has reached the prescribed thickness on the basis of a drop in an increase rate of the capacitance.
A medical device at least partially formed of a metal alloy, said metal alloy consisting of: rhenium; molybdenum; one or more additional metal; carbon; oxygen; and nitrogen; said one or more additional metal selected form the group consisting of titanium, yttrium, and zirconium; and optionally one or more other metal, selected from the group consisting of calcium, chromium, cobalt, copper, gold, iron, lead, magnesium, nickel, niobium, platinum, rare earth metals, silver, tantalum, tungsten, zinc; and impurities; wherein the metal alloy includes less than 5 weight percent of the one or more other metal and impurities; wherein the combined content of titanium, yttrium and zirconium is less than 5 weight percent; a content of said rhenium plus said molybdenum plus said one or more additional metal constituting at least 95 weight percent of said metal alloy, said rhenium constituting at least 40 weight percent of said metal alloy, said molybdenum constituting at least 40 weight percent of said metal alloy, said metal alloy having a nitrogen content of less than 30 ppm, said metal alloy having a carbon content of up to 200 ppm, said metal alloy having an oxygen content of up to 100 ppm, said metal alloy having a carbon to oxygen atomic ratio of at least 2:1, said metal alloy having a carbon to oxygen atomic ratio of up to 50:1. rhenium; molybdenum; one or more additional metal; carbon; oxygen; and nitrogen; said one or more additional metal selected form the group consisting of titanium, yttrium, and zirconium; and optionally one or more other metal, selected from the group consisting of calcium, chromium, cobalt, copper, gold, iron, lead, magnesium, nickel, niobium, platinum, rare earth metals, silver, tantalum, tungsten, zinc; and impurities; wherein the metal alloy includes less than 5 weight percent of the one or more other metal and impurities; wherein the combined content of titanium, yttrium and zirconium is less than 5 weight percent; a content of said rhenium plus said molybdenum plus said one or more additional metal constituting at least 95 weight percent of said metal alloy, said rhenium constituting at least 40 weight percent of said metal alloy, said molybdenum constituting at least 40 weight percent of said metal alloy, said metal alloy having a nitrogen content of less than 30 ppm, said metal alloy having a carbon content of up to 200 ppm, said metal alloy having an oxygen content of up to 100 ppm, said metal alloy having a carbon to oxygen atomic ratio of at least 2:1, said metal alloy having a carbon to oxygen atomic ratio of up to 50:1.
A method of determining a condition of a process control component using signature graphs comprising: receiving a first signature graph of a process control component wherein the first signature graph is measured at a first period; displaying the first signature graph; receiving an input defining a set of boundaries, wherein the set of boundaries is displayed with the first signature graph; measuring a second signature graph at a second period different from the first period; determining whether the second signature graph is within the set of boundaries; and indicating one of a friction-torque limit exception or shaft-stem integrity compromise based on whether the signature graph exceeds one or more of the boundaries. receiving a first signature graph of a process control component wherein the first signature graph is measured at a first period; displaying the first signature graph; receiving an input defining a set of boundaries, wherein the set of boundaries is displayed with the first signature graph; measuring a second signature graph at a second period different from the first period; determining whether the second signature graph is within the set of boundaries; and indicating one of a friction-torque limit exception or shaft-stem integrity compromise based on whether the signature graph exceeds one or more of the boundaries.
A radio resource configuration method, comprising: sending, by a base station, a downlink system bandwidth of one carrier in a broadcast message, wherein the downlink system bandwidth of the one carrier is a bandwidth used for establishing a connection between a user equipment, UE, and the base station; determining, by the base station for the UE, resource configuration of the one carrier used for communication between the UE and the base station, wherein the resource configuration comprises a downlink resource allocation bandwidth, and the downlink resource allocation bandwidth is a bandwidth used to generate resource block allocation information of a physical data channel, PDSCH, when a logical channel carried by the PDSCH is a non-common logical channel, and the resource block allocation information is included in downlink control information; and sending, by the base station to the UE by using a radio resource control, RRC, reconfiguration message, the resource configuration of the one carrier; wherein a value of the downlink resource allocation bandwidth is independent from a value of the downlink system bandwidth, and when a logical channel carried by the PDSCH is a common logical channel, the bandwidth used to generate the resource block allocation information of the PDSCH is the downlink system bandwidth. sending, by a base station, a downlink system bandwidth of one carrier in a broadcast message, wherein the downlink system bandwidth of the one carrier is a bandwidth used for establishing a connection between a user equipment, UE, and the base station; determining, by the base station for the UE, resource configuration of the one carrier used for communication between the UE and the base station, wherein the resource configuration comprises a downlink resource allocation bandwidth, and the downlink resource allocation bandwidth is a bandwidth used to generate resource block allocation information of a physical data channel, PDSCH, when a logical channel carried by the PDSCH is a non-common logical channel, and the resource block allocation information is included in downlink control information; and sending, by the base station to the UE by using a radio resource control, RRC, reconfiguration message, the resource configuration of the one carrier; wherein a value of the downlink resource allocation bandwidth is independent from a value of the downlink system bandwidth, and when a logical channel carried by the PDSCH is a common logical channel, the bandwidth used to generate the resource block allocation information of the PDSCH is the downlink system bandwidth.
Process for producing hydrogenated nitrile rubbers having i) a content of phosphines, diphosphines or mixtures thereof within the range from 0 to 1.0% by weight, based on the hydrogenated nitrile rubber, ii) a content of phosphine oxides, diphosphine oxides or mixtures thereof in the range from 0.25 to 6% by weight, based on the hydrogenated nitrile rubber, and iii) a total halogen content in the range from 25 to 10 000 ppm, characterized in that hydrogenated nitrile rubber having a content of phosphines, diphosphines or mixtures thereof within a range of 0.15-5% by weight, based on the hydrogenated nitrile rubber, is reacted with at least one sulphur compound which does not have two sulphur atoms covalently bonded directly to one another i) a content of phosphines, diphosphines or mixtures thereof within the range from 0 to 1.0% by weight, based on the hydrogenated nitrile rubber, ii) a content of phosphine oxides, diphosphine oxides or mixtures thereof in the range from 0.25 to 6% by weight, based on the hydrogenated nitrile rubber, and iii) a total halogen content in the range from 25 to 10 000 ppm,
An automotive laminated glazing, comprising: a curved outer glass layer having two oppositely disposed major surfaces, a first surface and a second surface; an inner glass layer having two oppositely disposed major surfaces, a third surface and a fourth surface; wherein the inner glass layer is a chemically strengthened glass layer having no more than 1.0 mm in thickness; a low-e coating applied on the fourth surface of the inner glass layer; and at least one plastic bonding layer disposed between second and third surfaces; wherein the inner glass layer has adopted the shape of the outer glass layer when joined together. a curved outer glass layer having two oppositely disposed major surfaces, a first surface and a second surface; an inner glass layer having two oppositely disposed major surfaces, a third surface and a fourth surface; wherein the inner glass layer is a chemically strengthened glass layer having no more than 1.0 mm in thickness; a low-e coating applied on the fourth surface of the inner glass layer; and at least one plastic bonding layer disposed between second and third surfaces; wherein the inner glass layer has adopted the shape of the outer glass layer when joined together.
A stop for stopping a trolley on a rail, the trolley comprising a set of wheels, including a first wheel, the rail providing a running surface, including a first portion and a second portion thereof, for the first wheel, the stop comprising: an actuator providing a third portion of the running surface between the first portion and the second portion; and an arm, coupled to the actuator; wherein the stop is arrangeable in: a first configuration, wherein the arm is arranged to block the trolley therepast; and a second configuration, wherein the arm is arranged to allow the trolley therepast; wherein the stop is arranged to move from the first configuration to the second configuration by actuation of the actuator; characterised by: the stop comprises a latch, wherein the arm is coupled to the actuator via the latch, wherein: in the first configuration, the latch is arranged to retain the arm; and in the second configuration, the latch is arranged to release the arm. an actuator providing a third portion of the running surface between the first portion and the second portion; and an arm, coupled to the actuator; wherein the stop is arrangeable in: a first configuration, wherein the arm is arranged to block the trolley therepast; and a second configuration, wherein the arm is arranged to allow the trolley therepast; wherein the stop is arranged to move from the first configuration to the second configuration by actuation of the actuator; characterised by: the stop comprises a latch, wherein the arm is coupled to the actuator via the latch, wherein: in the first configuration, the latch is arranged to retain the arm; and in the second configuration, the latch is arranged to release the arm. a first configuration, wherein the arm is arranged to block the trolley therepast; and a second configuration, wherein the arm is arranged to allow the trolley therepast; wherein the stop is arranged to move from the first configuration to the second configuration by actuation of the actuator; characterised by: the stop comprises a latch, wherein the arm is coupled to the actuator via the latch, wherein: in the first configuration, the latch is arranged to retain the arm; and in the second configuration, the latch is arranged to release the arm. in the first configuration, the latch is arranged to retain the arm; and in the second configuration, the latch is arranged to release the arm.
Device for heating of a molding face, particularly of large dimension, comprising: a. a metal sheet (110, 700, 900) including a ferromagnetic layer (110, 710, 910) and including a portion formed according to a shape defining said molding face and a forming plan; b. a base and supporting means of the aforesaid metal sheet (110, 700, 900) on the aforementioned base; c. means (210, 410, 415, 760) for the induction heating of the metal sheet (110, 700, 900); characterized in that the metal sheet (700, 900) comprises a conduit (751, 752, 951, 952) adapted to receive an electric heating means or to duct the circulation of a coolant. a. a metal sheet (110, 700, 900) including a ferromagnetic layer (110, 710, 910) and including a portion formed according to a shape defining said molding face and a forming plan; b. a base and supporting means of the aforesaid metal sheet (110, 700, 900) on the aforementioned base; c. means (210, 410, 415, 760) for the induction heating of the metal sheet (110, 700, 900);
A method comprising: receiving, by a secure rendering engine that is verifiably local to an enclave region of memory in an enclave-capable computing device or enclave server, a payload comprising untrusted content; classifying the payload as a candidate for potentially-unwanted content; applying, by the secure rendering engine, conversion rules to convert the content to an enclave secured format, thereby forming trusted content, sanitizing, by the secure rendering engine, the trusted content according to the conversion rules and optionally according to user input previously received, signing, by the secure rendering engine, the trusted content with a digital signature that is unique to the enclave and unique to the hardware of the enclave-capable computing device or enclave server; and exporting, by the secure rendering engine, the trusted content from the enclave region. receiving, by a secure rendering engine that is verifiably local to an enclave region of memory in an enclave-capable computing device or enclave server, a payload comprising untrusted content; classifying the payload as a candidate for potentially-unwanted content; applying, by the secure rendering engine, conversion rules to convert the content to an enclave secured format, thereby forming trusted content, sanitizing, by the secure rendering engine, the trusted content according to the conversion rules and optionally according to user input previously received, signing, by the secure rendering engine, the trusted content with a digital signature that is unique to the enclave and unique to the hardware of the enclave-capable computing device or enclave server; and exporting, by the secure rendering engine, the trusted content from the enclave region.
Reader, adapted to wirelessly exchanging information with a wireless apparatus, comprising generating means configured to generate a modulation signal, an emitter/receptor stage configured to be driven by said modulation signal, and a switched-mode power supply configured to power said emitter/receptor stage, said switched-mode power supply comprising a power switch (16, 32) controlled in function of said modulation signal. generating means configured to generate a modulation signal, an emitter/receptor stage configured to be driven by said modulation signal, and a switched-mode power supply configured to power said emitter/receptor stage, said switched-mode power supply comprising a power switch (16, 32) controlled in function of said modulation signal.
A resonant sensor comprising: a substrate; a proof mass suspended from the substrate to allow for relative movement between the proof mass and the substrate along at least one sensitive axis; at least one resonant element coupled to the proof mass; an electrode assembly adjacent to the at least one resonant element; drive and sense circuitry connected to the electrode assembly configured to drive the electrode assembly to cause the at least one resonant element to resonate, wherein a measure of acceleration of the proof mass can be determined from changes in the resonant behaviour of the at least one resonant element; a substrate electrode (16, 17, 18, 19) on the substrate, adjacent to the proof mass; and electric circuitry connected to the substrate electrode (16, 17, 18, 19) configured to apply a voltage to the substrate electrode (16, 17, 18, 19) providing an electrostatic force on the proof mass. a substrate; a proof mass suspended from the substrate to allow for relative movement between the proof mass and the substrate along at least one sensitive axis; at least one resonant element coupled to the proof mass; an electrode assembly adjacent to the at least one resonant element; drive and sense circuitry connected to the electrode assembly configured to drive the electrode assembly to cause the at least one resonant element to resonate, wherein a measure of acceleration of the proof mass can be determined from changes in the resonant behaviour of the at least one resonant element; a substrate electrode (16, 17, 18, 19) on the substrate, adjacent to the proof mass; and electric circuitry connected to the substrate electrode (16, 17, 18, 19) configured to apply a voltage to the substrate electrode (16, 17, 18, 19) providing an electrostatic force on the proof mass.
An air-conditioning apparatus (100, 101) having an outdoor unit and a plurality of indoor units (2A, 2B, 2C) connected to the outdoor unit via a refrigerant pipe, the air-conditioning apparatus (100, 101) comprising: a compressor; a temperature detection unit installed in each of the indoor units (2A, 2B, 2C) and configured to detect a blow-out temperature or a suction temperature of the indoor unit (2A, 2B, 2C); and a controller configured to control operations of the outdoor unit and the indoor units (2A, 2B, 2C), wherein the controller is configured to acquire a required capacity by comparing a detected value detected by the temperature detection unit of each of the indoor units (2A, 2B, 2C) with a set temperature of the indoor unit, and determining that the indoor unit has a required capacity of "capacity UP" when a difference acquired by subtracting the set temperature from the detected value is higher than a first target value that is a positive value, that the indoor unit has a required capacity of "capacity DOWN" when the difference is less than a second target value that is a negative value, and that the indoor unit has a required capacity of "NO-SIGNAL" when the difference is within a range between the first and second target values, inclusive, and calculate a sum capacity of all of the indoor units (2A, 2B, 2C) with the "capacity UP" as a positive sign, the "capacity DOWN" as a negative sign, and the "NO-SIGNAL" as zero, determine that the capacity is insufficient when the sum capacity has a positive value, and control the capacity of the compressor at a frequency such that the insufficiency is compensated. a compressor; a temperature detection unit installed in each of the indoor units (2A, 2B, 2C) and configured to detect a blow-out temperature or a suction temperature of the indoor unit (2A, 2B, 2C); and a controller configured to control operations of the outdoor unit and the indoor units (2A, 2B, 2C), wherein the controller is configured to acquire a required capacity by comparing a detected value detected by the temperature detection unit of each of the indoor units (2A, 2B, 2C) with a set temperature of the indoor unit, and determining that the indoor unit has a required capacity of "capacity UP" when a difference acquired by subtracting the set temperature from the detected value is higher than a first target value that is a positive value, that the indoor unit has a required capacity of "capacity DOWN" when the difference is less than a second target value that is a negative value, and that the indoor unit has a required capacity of "NO-SIGNAL" when the difference is within a range between the first and second target values, inclusive, and calculate a sum capacity of all of the indoor units (2A, 2B, 2C) with the "capacity UP" as a positive sign, the "capacity DOWN" as a negative sign, and the "NO-SIGNAL" as zero, determine that the capacity is insufficient when the sum capacity has a positive value, and control the capacity of the compressor at a frequency such that the insufficiency is compensated.
A pneumatic tire comprising a pair of bead cores and a carcass formed of a ply, the ply consisting of a carcass body section extending toroidally between the pair of bead cores and a carcass folded section extending from the carcass body section and folded around the bead cores, wherein the carcass comprises a first portion in which a distance between ply cords of the carcass body section and the carcass folded section gradually decreases from a position of the bead core toward outside in a radial direction of the tire, a second portion in which the distance between the ply cords gradually increases from the first portion toward outside in the radial direction of the tire, and a third portion in which the distance between the ply cords gradually decreases from the second portion toward outside in the radial direction of the tire, characterised in that a notched portion is provided on a widthwise outer skin rubber of the carcass folded section of the second portion by notching the widthwise outer skin rubber inwardly in the width direction of the tire.
A catalyst-coated ion-conducting membrane for electrochemical devices, which comprises a membrane having front and reverse sides, at least one catalyst layer and a sealing material, wherein the sealing material is applied in the edge region of the ion-conducting membrane and contacts the ion-conducting membrane circumferentially in an edge region of at least 1 mm on one side.