mhurhangee/ep-ind-claims huggingface dataset:
A seal member which is formed of a metal insert and an elastic body covering the metal insert and seals a gap between a tubular member and a shaft member axially movably inserted into the tubular member, the seal member comprising: an annular fitting part which fits on an inner circumference of the tubular member; an annular dust lip which extends from the fitting part toward a side opposite from the tubular member, a diameter of an inner circumference of the dust lip gradually decreasing, with a distal end portion of the dust lip sliding on an outer circumferential surface of the shaft member; and an annular stopper part which projects from an end portion of the fitting part on a side opposite from the tubular member toward an outer circumferential side, wherein the metal insert includes a reinforcing ring, a reinforcing extension piece, and a reinforcing flange piece having a shape of an annular plate, the reinforcing ring standing along the inner circumference of the tubular member, the reinforcing extension piece extending from the reinforcing ring toward a side opposite from the tubular member and inclining such that a distal end of the reinforcing extension piece approaches the shaft member, characterised in that the reinforcing flange piece projecting from an end portion of the reinforcing ring on a side opposite from the tubular member toward an outer circumferential side, and the reinforcing ring is arranged in the fitting part, the reinforcing extension piece is arranged in the dust lip, and the reinforcing flange piece is arranged in the stopper part. an annular fitting part which fits on an inner circumference of the tubular member; an annular dust lip which extends from the fitting part toward a side opposite from the tubular member, a diameter of an inner circumference of the dust lip gradually decreasing, with a distal end portion of the dust lip sliding on an outer circumferential surface of the shaft member; and an annular stopper part which projects from an end portion of the fitting part on a side opposite from the tubular member toward an outer circumferential side, wherein the metal insert includes a reinforcing ring, a reinforcing extension piece, and a reinforcing flange piece having a shape of an annular plate, the reinforcing ring standing along the inner circumference of the tubular member, the reinforcing extension piece extending from the reinforcing ring toward a side opposite from the tubular member and inclining such that a distal end of the reinforcing extension piece approaches the shaft member, characterised in that the reinforcing flange piece projecting from an end portion of the reinforcing ring on a side opposite from the tubular member toward an outer circumferential side, and the reinforcing ring is arranged in the fitting part, the reinforcing extension piece is arranged in the dust lip, and the reinforcing flange piece is arranged in the stopper part.
A sealing boot (45, 50, 145, 150, 245, 155) for an interconnection junction, comprising: an annular cable section (46, 146) having a first diameter; an annular connector section (48, 52, 148) having a second diameter that is greater than the first diameter; and a transition section (51, 151, 154) that extends between the cable section (46, 146) and the connector section (48, 52, 148); wherein the transition section (51, 151, 154) is configured to enable the transition section (51, 151, 154) to fold upon itself to move the connector section (48, 52, 148) to a retracted position in which the connector section (48, 52, 148) is adjacent the cable section (46, 146); wherein the sealing boot (45, 50, 145, 150, 245, 155) comprises an elastomeric material; and characterised in that: the transition section (51, 151, 154) has an annular recess (151a, 154a) on an inner surface thereof. an annular cable section (46, 146) having a first diameter; an annular connector section (48, 52, 148) having a second diameter that is greater than the first diameter; and a transition section (51, 151, 154) that extends between the cable section (46, 146) and the connector section (48, 52, 148); wherein the transition section (51, 151, 154) is configured to enable the transition section (51, 151, 154) to fold upon itself to move the connector section (48, 52, 148) to a retracted position in which the connector section (48, 52, 148) is adjacent the cable section (46, 146); wherein the sealing boot (45, 50, 145, 150, 245, 155) comprises an elastomeric material; and characterised in that: the transition section (51, 151, 154) has an annular recess (151a, 154a) on an inner surface thereof.
Method for controlling a wave energy converter system which converts the energy of the waves into electrical or hydraulic energy, said wave energy converter system comprising at least one movable means linked with an energy conversion machine, and said movable means performing an oscillatory movement with respect to said conversion machine, characterized in that the following steps are performed: a) the position and/or the velocity and/or the acceleration of said movable means is/are measured; b) the force exerted by the waves on said movable means is estimated by means of said measurement of said position and/or of said velocity of said movable means; c) at least one dominant frequency of the force exerted by said waves on said movable means is determined by means of an unscented Kalman filter; d) a control value of said force exerted by said conversion machine on said movable means is determined to maximize the power generated by said conversion machine, by means of a proportional-integral PI control law with variable gains, whose coefficients are determined by means of said dominant frequency of said force exerted by said waves on said movable means; and e) said conversion machine is controlled by means of said control value. a) the position and/or the velocity and/or the acceleration of said movable means is/are measured; b) the force exerted by the waves on said movable means is estimated by means of said measurement of said position and/or of said velocity of said movable means; c) at least one dominant frequency of the force exerted by said waves on said movable means is determined by means of an unscented Kalman filter; d) a control value of said force exerted by said conversion machine on said movable means is determined to maximize the power generated by said conversion machine, by means of a proportional-integral PI control law with variable gains, whose coefficients are determined by means of said dominant frequency of said force exerted by said waves on said movable means; and e) said conversion machine is controlled by means of said control value.
Method performed in a user equipment, UE, operating in a wireless communication network, of performing power scaling on uplink transmissions to a receiving radio access node, RAN, on a multi-radio access bearer, multi-RAB, wherein a Dedicated Physical Data Channel, DPDCH, and an enhanced Dedicated Physical Data Channel, E-DPDCH are configured for uplink transmissions from the UE to the receiving RAN, the method comprising the steps of: - determining that a total UE transmit power exceeds a predetermined maximum power limit value; - reducing the total UE transmit power to the predetermined maximum power limit value, by reducing one or more E-DPDCH gain factors, β ed,k, by a scaling factor to one or more reduced power scaling values β ed,k,reduced; and - applying DTX on enhanced Dedicated Physical Control Channel, E-DPCCH, characterized in that the step of applying DTX on E-DPCCH is applied only when data is transmitted on the DPDCH and a predetermined minimum E-DPDCH gain factor, 'smallest quantised β ed,k value', is reached for all E-DPDCH gain factors β ed,k, and DTX is applied for all E-DPDCHs. - determining that a total UE transmit power exceeds a predetermined maximum power limit value; - reducing the total UE transmit power to the predetermined maximum power limit value, by reducing one or more E-DPDCH gain factors, β ed,k, by a scaling factor to one or more reduced power scaling values β ed,k,reduced; and - applying DTX on enhanced Dedicated Physical Control Channel, E-DPCCH,
A videoconferencing configuration method, comprising: receiving far-end configuration information from a far-end videoconferencing system at a near-end videoconferencing system, the far-end configuration information being indicative of video handling with respect to capturing and displaying videos at the far-end videoconferencing system, the far-end configuration information being further indicative of a far-end number of video displays and cameras useable at the far-end videoconferencing system; configuring, at the near-end videoconferencing system, one or more near-end video cameras based on the far-end configuration information to capture near-end video for sending to the far-end videoconferencing system; and configuring, at the near-end videoconferencing system, one or more near-end video displays based on the far-end configuration information to display far-end video received from the far-end videoconferencing system, wherein the video handling with respect to capturing and displaying videos by the near-end videoconferencing system is different than the far-end videoconferencing system. receiving far-end configuration information from a far-end videoconferencing system at a near-end videoconferencing system, the far-end configuration information being indicative of video handling with respect to capturing and displaying videos at the far-end videoconferencing system, the far-end configuration information being further indicative of a far-end number of video displays and cameras useable at the far-end videoconferencing system; configuring, at the near-end videoconferencing system, one or more near-end video cameras based on the far-end configuration information to capture near-end video for sending to the far-end videoconferencing system; and configuring, at the near-end videoconferencing system, one or more near-end video displays based on the far-end configuration information to display far-end video received from the far-end videoconferencing system, wherein the video handling with respect to capturing and displaying videos by the near-end videoconferencing system is different than the far-end videoconferencing system.
A consumption meter (10, 30) for measuring a quantity value corresponding to a consumed quantity, the consumption meter comprising: - a flow passage to allow a medium to flow through the flow passage, - a measuring means for measuring the quantity value corresponding to a consumed quantity of the medium flowing through the flow passage, including two ultrasonic transducers (1, 2) for generating and detecting ultrasonic signals; - an integrated electronic circuit implemented on a PCB, the integrated circuit being configured for determining the difference in arrival time of the ultrasonic signals and for converting and outputting measured quantities to the quantity value, and wherein the electronic circuit comprises components for operating the consumption meter; - an antenna for transmitting the quantity value; - a power supply for powering the consumption meter; and - a casing; characterized in that an embedding material encapsulates the measuring means, the electronic circuit, the antenna and the power supply to form one embedded unit inside the casing. - a flow passage to allow a medium to flow through the flow passage, - a measuring means for measuring the quantity value corresponding to a consumed quantity of the medium flowing through the flow passage, including two ultrasonic transducers (1, 2) for generating and detecting ultrasonic signals; - an integrated electronic circuit implemented on a PCB, the integrated circuit being configured for determining the difference in arrival time of the ultrasonic signals and for converting and outputting measured quantities to the quantity value, and wherein the electronic circuit comprises components for operating the consumption meter; - an antenna for transmitting the quantity value; - a power supply for powering the consumption meter; and - a casing;
A process for producing a membrane for separating methane, which comprises the following steps: (a) preparing a metal alkoxide solution by (i) mixing an acid catalyst, water and an organic solvent, (ii) adding thereto tetraalkoxysilane and mixing at a temperature of 15 to 40 °C for 0.5 to 24 hours, and (iii) then adding thereto a hydrocarbon group-containing trialkoxysilane, of which a hydrocarbon group is selected from the group consisting of an alkyl group having 2 to 6 carbon atoms and a phenyl group, and mixing at a temperature of 15 to 40 °C for 0.5 to 24 hours, (b) applying the metal alkoxide solution on an inorganic porous support, and then (c) calcining the inorganic porous support having metal alkoxide solution layer at a temperature of 50 to 200 °C (a) preparing a metal alkoxide solution by (i) mixing an acid catalyst, water and an organic solvent, (ii) adding thereto tetraalkoxysilane and mixing at a temperature of 15 to 40 °C for 0.5 to 24 hours, and (iii) then adding thereto a hydrocarbon group-containing trialkoxysilane, of which a hydrocarbon group is selected from the group consisting of an alkyl group having 2 to 6 carbon atoms and a phenyl group, and mixing at a temperature of 15 to 40 °C for 0.5 to 24 hours, (b) applying the metal alkoxide solution on an inorganic porous support, and then (c) calcining the inorganic porous support having metal alkoxide solution layer at a temperature of 50 to 200 °C
A towing system for vessels, comprising: - At least one unmanned tugboat, wherein each unmanned tugboat, that is at least one, comprises at least one attachment member and at least one radio navigation beacon provided on each said unmanned tugboat, - at least one radio navigation beacon provided on a towed vessel, - and plurality of radio navigation beacons provided in determinate locations of the port, wherein the plurality of radio navigation beacons are interconnected with the radio navigation beacon of each unmanned tugboat and with the radio navigation beacon of the towed vessel. - a control unit provided in the port for controlling the unmanned tugboats and the towed vessel during towing operation, such that at least one unmanned tugboat is detachably attached to a hull of the towed vessel by means of said attachment member, wherein the radio navigation beacons (4, 104, 204) provided in the unmanned tugboat, in the towed vessel and in the port are all of them integrated in an electronic navigation infrastructure controlled by the control unit, in order to assist the unmanned tugboat in its manoeuvres outside the port and inside the port, with and without the towed vessel duly attached. - At least one unmanned tugboat, wherein each unmanned tugboat, that is at least one, comprises at least one attachment member and at least one radio navigation beacon provided on each said unmanned tugboat, - at least one radio navigation beacon provided on a towed vessel, - and plurality of radio navigation beacons provided in determinate locations of the port, wherein the plurality of radio navigation beacons are interconnected with the radio navigation beacon of each unmanned tugboat and with the radio navigation beacon of the towed vessel. - a control unit provided in the port for controlling the unmanned tugboats and the towed vessel during towing operation,
A system for injection moulding of polymer parts, the system comprising: a polymer melting stage operable to melt polymer input thereto; a nozzle arranged to receive melted polymer from the polymer melting stage, the nozzle having a body defining a mixing chamber, an injector arranged to inject a liquid foaming agent into the mixing chamber and a heating element actuatable to apply heat to the mixing chamber to maintain polymer therein at a temperature within the polymer's operating temperature range; a mould arranged to receive foamed polymer from the nozzle; characterized in that the system further comprises a controller configured to control the cyclical operation of the system to mould polymer parts such that in each moulding cycle, the controller is operable to cause injection of a dose of foaming agent and a dose of polymer into the mixing chamber and to cause actuation of the heating element to supply an additional amount of heat to compensate for heat loss resulting from mixing of the foaming agent with the polymer, wherein the controller is configured such that the additional amount of heat is applied at least in part before the start of mixing in anticipation of the heat loss, wherein the controller is configured such that, after the first cycle, the controller sets the additional amount of heat adaptively with reference to a measurement of mixing-induced heat loss during the previous cycle. a polymer melting stage operable to melt polymer input thereto; a nozzle arranged to receive melted polymer from the polymer melting stage, the nozzle having a body defining a mixing chamber, an injector arranged to inject a liquid foaming agent into the mixing chamber and a heating element actuatable to apply heat to the mixing chamber to maintain polymer therein at a temperature within the polymer's operating temperature range; a mould arranged to receive foamed polymer from the nozzle; characterized in that the system further comprises a controller configured to control the cyclical operation of the system to mould polymer parts such that in each moulding cycle, the controller is operable to cause injection of a dose of foaming agent and a dose of polymer into the mixing chamber and to cause actuation of the heating element to supply an additional amount of heat to compensate for heat loss resulting from mixing of the foaming agent with the polymer, wherein the controller is configured such that the additional amount of heat is applied at least in part before the start of mixing in anticipation of the heat loss, wherein the controller is configured such that, after the first cycle, the controller sets the additional amount of heat adaptively with reference to a measurement of mixing-induced heat loss during the previous cycle.
A toner comprising toner particles having toner base particles each containing at least a binder resin and a colorant, wherein: when viscosities of the toner particles measured at 100°C and 110°C by a flow tester heat-up method are represented by η 100 (Pa·s) and η 110 (Pa·s), respectively, a variation in average viscosity A ηT represented by the following equation satisfies a relationship of 0 ≥ A ηT ≥ - 0.064: A ηT = log η 110 − log η 100 / 110 − 100 and η 100 is 15,000 to 40,000 Pa·s, wherein the toner base particles comprise particles produced by granulating a monomer composition containing a polymerizable monomer, a colorant and an addition reactive resin having a double bond in an aqueous medium and polymerizing the monomer composition, and wherein a weight average molecular weight (Mw) of a THF soluble matter of the addition reactive resin determined by GPC is 2,000 to 6,000. when viscosities of the toner particles measured at 100°C and 110°C by a flow tester heat-up method are represented by η 100 (Pa·s) and η 110 (Pa·s), respectively, a variation in average viscosity A ηT represented by the following equation satisfies a relationship of 0 ≥ A ηT ≥ - 0.064: A ηT = log η 110 − log η 100 / 110 − 100 and η 100 is 15,000 to 40,000 Pa·s, wherein the toner base particles comprise particles produced by granulating a monomer composition containing a polymerizable monomer, a colorant and an addition reactive resin having a double bond in an aqueous medium and polymerizing the monomer composition, and
An apparatus of a User Equipment, the apparatus comprising: memory; and processing circuitry, configured to: encode, for a sidelink transmission to another UE in frequency resources allocated for sidelink operation, a physical sidelink control channel (PSCCH) or a physical sidelink shared channel (PSSCH); generate demodulation reference signals (DM-RSs) for the PSCCH or PSSCH, wherein the processing circuitry is configured to: generate an initialization value based on one or more parameters, wherein at least one of the parameters depends on location information of the UE; generate a pseudo-random sequence based on a pseudo-random sequence generator that uses the initialization value; generate a DM-RS sequence based on the pseudo-random sequence; and map at least a portion of the DM-RS sequence to a plurality of resource elements (REs) of the frequency resources allocated for sidelink operation, wherein the memory is configured to store at least a portion of the pseudo-random sequence. encode, for a sidelink transmission to another UE in frequency resources allocated for sidelink operation, a physical sidelink control channel (PSCCH) or a physical sidelink shared channel (PSSCH); generate demodulation reference signals (DM-RSs) for the PSCCH or PSSCH, wherein the processing circuitry is configured to: generate an initialization value based on one or more parameters, wherein at least one of the parameters depends on location information of the UE; generate a pseudo-random sequence based on a pseudo-random sequence generator that uses the initialization value; generate a DM-RS sequence based on the pseudo-random sequence; and map at least a portion of the DM-RS sequence to a plurality of resource elements (REs) of the frequency resources allocated for sidelink operation, generate an initialization value based on one or more parameters, wherein at least one of the parameters depends on location information of the UE; generate a pseudo-random sequence based on a pseudo-random sequence generator that uses the initialization value; generate a DM-RS sequence based on the pseudo-random sequence; and map at least a portion of the DM-RS sequence to a plurality of resource elements (REs) of the frequency resources allocated for sidelink operation, wherein the memory is configured to store at least a portion of the pseudo-random sequence.