mhurhangee/patent-ind-claim-en huggingface dataset:
A card tray, comprising a card tray base , a first insulation layer disposed on the card tray base, and a second insulation layer covering the first insulation layer, wherein hardness of the first insulation layer is higher than that of the second insulation layer, characterized in that , the first insulation layer comprises a metal base layer disposed on the card tray base , an intermediate layer disposed on the metal base layer, and an insulation coating disposed on the intermediate layer, wherein the intermediate layer is a mixed layer of a metal and a chemical compound of the metal, and the insulation coating is a mixed layer of a metal, a chemical compound of the metal, and a diamond-like carbon material.
A network capability exposure method performed by an access network device, the method comprising the steps of: • obtaining (S 106) a request message from an application server, wherein the request message comprises first time information and second time information, wherein the first time information is used to set a first time duration during which a terminal device is in a first state, and the second time information is used to set a second time duration during which the terminal device is in a second state, wherein the first state is RRC connected mode, and the second state is RRC inactive mode, wherein the first time information is a maximum response time, and the second time information is a maximum delay time; • setting (S 107), based on the first time information, the first time duration to a time duration greater than or equal to the first time information, and setting (S 107), based on the second time information, the second time duration to a time duration less than or equal to the second time information. • obtaining (S 106) a request message from an application server, wherein the request message comprises first time information and second time information, wherein the first time information is used to set a first time duration during which a terminal device is in a first state, and the second time information is used to set a second time duration during which the terminal device is in a second state, wherein the first state is RRC connected mode, and the second state is RRC inactive mode, wherein the first time information is a maximum response time, and the second time information is a maximum delay time; • setting (S 107), based on the first time information, the first time duration to a time duration greater than or equal to the first time information, and setting (S 107), based on the second time information, the second time duration to a time duration less than or equal to the second time information.
An aircraft including a heating assembly, the heating assembly comprising: an internal combustion engine having a liquid coolant system distinct from any fuel and lubricating system of the engine , the liquid cooling system including cooling passages in the internal combustion engine for circulating a liquid coolant from a coolant inlet to a coolant outlet ; a heat exchanger and a coolant circulation path outside of the internal combustion engine , the coolant circulation path in fluid communication with the coolant inlet and the coolant outlet , the coolant circulation path extending through the heat exchanger and the heat exchanger configured to remove a portion of a waste heat from the liquid coolant; and a heating element in heat exchange relationship with the coolant circulation path to receive another portion of the waste heat therefrom, the heating element in heat exchange relationship with a portion of the aircraft to be heated, wherein the portion of the aircraft to be heated includes a surface susceptible to icing; characterised in that : the heating element is in heat exchange relationship with the coolant circulation path through fluid communication with the coolant circulation path such that the liquid coolant is circulated directly through a fluid passage forming the heating element , and the surface susceptible to icing is in heat exchange relationship with the fluid passage, to prevent or limit ice formation on the surface. an internal combustion engine having a liquid coolant system distinct from any fuel and lubricating system of the engine , the liquid cooling system including cooling passages in the internal combustion engine for circulating a liquid coolant from a coolant inlet to a coolant outlet ; a heat exchanger and a coolant circulation path outside of the internal combustion engine , the coolant circulation path in fluid communication with the coolant inlet and the coolant outlet , the coolant circulation path extending through the heat exchanger and the heat exchanger configured to remove a portion of a waste heat from the liquid coolant; and a heating element in heat exchange relationship with the coolant circulation path to receive another portion of the waste heat therefrom, the heating element in heat exchange relationship with a portion of the aircraft to be heated, wherein the portion of the aircraft to be heated includes a surface susceptible to icing;
A hydraulic torque converter transmission system for a dynamic compactor, comprising: an engine , a hydraulic torque converter , and a winch ; a power of the engine is transmitted to the winch by means of the hydraulic torque converter , characterized in that the hydraulic torque converter transmission system further comprises a transfer case , a gearbox , a transmission case , and a reduction gearbox , a part of the power of the engine is arranged to be transmitted to the hydraulic torque converter through the transfer case , and another part of the power of the engine is arranged to be transmitted to a hydraulic pump through the transfer case ; an output power is arranged to be transmitted to the transmission case through the gearbox , and the output power of the transmission case is arranged to be driven by the reduction gearbox to rotate the winch ; an output shaft of the engine is along an X-axis directional arrangement, a winch rotating shaft is arranged along a Y-axis direction; the engine , the transfer case , the hydraulic torque converter , the gearbox , and the transmission case are arranged on a left or right side of the winch and the reduction gearbox is arranged along the X-axis direction; an input shaft of the transmission case is arranged along the X-axis direction, and an output shaft of the transmission case is arranged along the Y-axis direction; the engine , the transfer case , the hydraulic torque converter , the gearbox , the transmission case , the reduction gearbox , and the winch are separate units.
A bearing system (A) comprising: a bearing configured to be mounted to a shaft ; and a bearing housing configured to interface the bearing to a structure , characterised by further comprising: an annular gap being defined between an outer annular surface of the bearing housing and the structure and configured to receive oil therein, at least one outlet defined in an outer section surface of the bearing housing and oriented toward a component axially spaced from the bearing , and at least one fluid passageway between the at least one outlet and the annular gap for fluid communication therebetween; whereby in use the at least one fluid passageway directs pressurized oil from the annular gap to the at least one outlet to reach the adjacent component. a bearing configured to be mounted to a shaft ; and a bearing housing configured to interface the bearing to a structure , characterised by further comprising: an annular gap being defined between an outer annular surface of the bearing housing and the structure and configured to receive oil therein, at least one outlet defined in an outer section surface of the bearing housing and oriented toward a component axially spaced from the bearing , and at least one fluid passageway between the at least one outlet and the annular gap for fluid communication therebetween; whereby in use the at least one fluid passageway directs pressurized oil from the annular gap to the at least one outlet to reach the adjacent component. an annular gap being defined between an outer annular surface of the bearing housing and the structure and configured to receive oil therein, at least one outlet defined in an outer section surface of the bearing housing and oriented toward a component axially spaced from the bearing , and at least one fluid passageway between the at least one outlet and the annular gap for fluid communication therebetween; whereby in use the at least one fluid passageway directs pressurized oil from the annular gap to the at least one outlet to reach the adjacent component.
A method for speech recognition, in which at least one basic symbol is assigned to speech data, the method comprising the steps of: (a) receiving (S10) the speech data representing a spoken utterance to be recognized; (b) comparing (S20) the received speech data with a plurality of reference data sets and determining at least one hypothesis representing one of the reference data sets; (c) determining (S30) a first grammar score associated with the hypothesis based on a context-free grammar, for each of the determined hypotheses; (d) determining (S40) a second grammar score associated with the hypothesis based on a stochastic grammar, for each of the determined hypotheses; (e) combining (S50) the first grammar score with the second grammar score to determine a total score of the respective hypothesis; (f) determining (S60) the hypothesis having the maximum total score among the determined hypotheses; and (g) outputting (S70) the determined hypothesis with maximum total score as basic symbol, characterised in that the first grammar score takes on a predetermined first value, if the hypothesis based on the context-free grammar is detected as ungrammatical, and the first grammar score takes on a predetermined second value, if the hypothesis based on the context-free grammar is detected as being grammatical. (a) receiving (S10) the speech data representing a spoken utterance to be recognized; (b) comparing (S20) the received speech data with a plurality of reference data sets and determining at least one hypothesis representing one of the reference data sets; (c) determining (S30) a first grammar score associated with the hypothesis based on a context-free grammar, for each of the determined hypotheses; (d) determining (S40) a second grammar score associated with the hypothesis based on a stochastic grammar, for each of the determined hypotheses; (e) combining (S50) the first grammar score with the second grammar score to determine a total score of the respective hypothesis; (f) determining (S60) the hypothesis having the maximum total score among the determined hypotheses; and (g) outputting (S70) the determined hypothesis with maximum total score as basic symbol,
Solid cosmetic formulation, comprising: - a basic formulation comprising at least one syndet; - at least two different prebiotics; - at least two different postbiotics including lactic acid and arginine; characterised in that its manufacture does not include any moulding step. - a basic formulation comprising at least one syndet; - at least two different prebiotics; - at least two different postbiotics including lactic acid and arginine;
Sprayable external thermal insulation system for buildings comprising the following materials expressed in weight percentage as in Table 1 below: Table 1 MATERIAL WEIGHT % Cork 27-33% Natural hydraulic lime 30-35% Expanded amorphous silica 12-16% Perlite 8-12% Pumice 10-14% Natural fibers 1-2% Additives 0,5-1%
Ulipristal, or any active metabolite thereof, for use in the treatment of pain associated with adenomyosis or endometriosis, wherein said ulipristal, or said active metabolite thereof, is administered at a daily dosage at a therapeutically effective amount of 5 to 12 mg, and wherein said ulipristal active metabolite is selected from the group consisting of monodemethylated ulipristal (CDB-3877), didemethylated ulipristal (CDB-3963), 17 alpha-hydroxy ulipristal (CDB-3236), and aromatic A-ring derivative of ulipristal (CDB-4183).
Radiofrequency transponder intended to be integrated in a mass of elastomer mixture, comprising: - an electronic chip , - a radiating antenna communicating with a radiofrequency reader, being disconnected to any printed circuit characterized in that said radiofrequency transponder further a primary antenna connected electrically to the electronic chip which is a coil having at least one turn, in that the primary antenna is inductively coupled to the radiating antenna , and in that the radiating antenna is a dipole antenna formed by a single-strand helical spring and in that the primary antenna , having an axis of symmetry , is circumscribed in a cylinder whose axis of revolution is parallel to the axis of symmetry of the primary antenna , and whose diameter is greater than or equal to a third of the inside diameter of the helical spring of the radiating antenna . - an electronic chip , - a radiating antenna communicating with a radiofrequency reader, being disconnected to any printed circuit
A method of fabricating a reduced graphene oxide film, comprising: (a) suspending graphene oxide in a first solvent to form a graphene oxide suspension; (b) dispersing the graphene oxide suspension in a second solvent to form a graphene oxide dispersion; (c) reducing the graphene oxide dispersion to form a reduced graphene oxide dispersion; (d) filtering the reduced graphene oxide dispersion through a membrane to form the reduced graphene oxide film on the membrane; and (e) freeze-casting the reduced graphene oxide film on the membrane, the freeze-casting comprising: (i) freezing the reduced graphene oxide film on the membrane; (ii) thawing the reduced graphene oxide film on the membrane; (iii) heating the reduced graphene oxide film on the membrane; and (iv) immersing the reduced graphene oxide film on the membrane in a third solvent. (a) suspending graphene oxide in a first solvent to form a graphene oxide suspension; (b) dispersing the graphene oxide suspension in a second solvent to form a graphene oxide dispersion; (c) reducing the graphene oxide dispersion to form a reduced graphene oxide dispersion; (d) filtering the reduced graphene oxide dispersion through a membrane to form the reduced graphene oxide film on the membrane; and (e) freeze-casting the reduced graphene oxide film on the membrane, the freeze-casting comprising: (i) freezing the reduced graphene oxide film on the membrane; (ii) thawing the reduced graphene oxide film on the membrane; (iii) heating the reduced graphene oxide film on the membrane; and (iv) immersing the reduced graphene oxide film on the membrane in a third solvent. (i) freezing the reduced graphene oxide film on the membrane; (ii) thawing the reduced graphene oxide film on the membrane; (iii) heating the reduced graphene oxide film on the membrane; and (iv) immersing the reduced graphene oxide film on the membrane in a third solvent.
A device for measuring a received radiation dose comprising a cable (CBL, CBL 1 , CBL 2 , CBL 3 ) made up of at least one material sensitive to a received radiation dose in at least one predetermined value range and measuring equipment (GEN, INJ, MES) connected to the cable and configured to take a measurement, by reflectometry or transferometry, of a characteristic physical quantity of the cable, a database (BDM) having a set of pairs of values associating a value of the physical quantity with a received radiation dose value, and a processing unit (UT) configured to determine a measurement of the radiation dose received by the cable based on the measurement of the physical quantity and by polling the database (BDM).
A heater , comprising: a ceramic body having a pillar or cylindrical shape; a heat generating resistor disposed in an interior of the ceramic body ; a metallic layer which is disposed on an outer peripheral surface of the ceramic body and extends along a circumferential direction thereof; and a flange bonded to the metallic layer via a bonding material , the bonding material including a meniscus part extending from the metallic layer to the flange ; characterized in that the heater further comprises a metallic wire which is disposed in an interior of the meniscus part on the outer peripheral surface of the ceramic body and extends along the circumferential direction. a ceramic body having a pillar or cylindrical shape; a heat generating resistor disposed in an interior of the ceramic body ; a metallic layer which is disposed on an outer peripheral surface of the ceramic body and extends along a circumferential direction thereof; and a flange bonded to the metallic layer via a bonding material , the bonding material including a meniscus part extending from the metallic layer to the flange ; characterized in that the heater further comprises a metallic wire which is disposed in an interior of the meniscus part on the outer peripheral surface of the ceramic body and extends along the circumferential direction.
A system for controlling an unmanned aerial vehicle within a flight operating space, the system comprising: an unmanned aerial vehicle having a tether connector ; a plurality of sensors coupled to the unmanned aerial vehicle and positioned to provide a field of view in at least three directions, the three directions being separated by at least 90 degrees, the plurality of sensors positioned to detect at least one object located in the flight operating space; and one or more processors , onboard the unmanned aerial vehicle, configured to: receive, from the plurality of sensors, sensor data identifying a location of the unmanned aerial vehicle; receive, from the plurality of sensors, sensor data identifying the at least one object in the flight operating space of the unmanned aerial vehicle; monitor a location of a detachable tether with respect to the unmanned aerial vehicle; determine a spatial relationship between the location of the unmanned aerial vehicle and the at least one object in the flight operating space; and generate, based on the sensor data and the location of the tether, a first signal to cause the unmanned aerial vehicle to navigate around the at least one object within the flight operating space. an unmanned aerial vehicle having a tether connector ; a plurality of sensors coupled to the unmanned aerial vehicle and positioned to provide a field of view in at least three directions, the three directions being separated by at least 90 degrees, the plurality of sensors positioned to detect at least one object located in the flight operating space; and one or more processors , onboard the unmanned aerial vehicle, configured to: receive, from the plurality of sensors, sensor data identifying a location of the unmanned aerial vehicle; receive, from the plurality of sensors, sensor data identifying the at least one object in the flight operating space of the unmanned aerial vehicle; monitor a location of a detachable tether with respect to the unmanned aerial vehicle; determine a spatial relationship between the location of the unmanned aerial vehicle and the at least one object in the flight operating space; and generate, based on the sensor data and the location of the tether, a first signal to cause the unmanned aerial vehicle to navigate around the at least one object within the flight operating space. receive, from the plurality of sensors, sensor data identifying a location of the unmanned aerial vehicle; receive, from the plurality of sensors, sensor data identifying the at least one object in the flight operating space of the unmanned aerial vehicle; monitor a location of a detachable tether with respect to the unmanned aerial vehicle; determine a spatial relationship between the location of the unmanned aerial vehicle and the at least one object in the flight operating space; and generate, based on the sensor data and the location of the tether, a first signal to cause the unmanned aerial vehicle to navigate around the at least one object within the flight operating space.
A diaphragm vacuum pump with a pump chamber , a vacuum diaphragm for generating an underpressure in the pump chamber , an electric motor with a motor shaft , a gear (6, 7. 8) and a connecting element , wherein the gear converts a rotational movement of the motor shaft into a cyclical, approximately linear forward and rearward movement of the connecting element , as a result of which the connecting element effects a cyclical movement of the vacuum diaphragm , wherein a second rotation angle of the motor shaft effects the forward movement of the connecting element per cycle, characterized in that the rearward movement of the connecting element per cycle is effected by a first rotation angle of the motor shaft which, on account of the gear , is not of the same magnitude as a second rotation angle of the motor shaft , and that the rearward movement of the connecting element defines a pump stroke of the cycle that generates the underpressure in the pump chamber , and wherein the first rotation angle is greater than the second rotation angle. wherein the gear converts a rotational movement of the motor shaft into a cyclical, approximately linear forward and rearward movement of the connecting element , as a result of which the connecting element effects a cyclical movement of the vacuum diaphragm , wherein a second rotation angle of the motor shaft effects the forward movement of the connecting element per cycle, characterized in that the rearward movement of the connecting element per cycle is effected by a first rotation angle of the motor shaft which, on account of the gear , is not of the same magnitude as a second rotation angle of the motor shaft , and that the rearward movement of the connecting element defines a pump stroke of the cycle that generates the underpressure in the pump chamber , and wherein the first rotation angle is greater than the second rotation angle.
A device for dimensioning the soft tissues of the face in relation to the oral device and teeth, comprising the following parts: a face support , a bipupillary alignment rule , lateral alignment rules , a parallelizer of the occlusal plane , a ruler for reference of the Wilson curve , an inclination guide of the midline or an electronic device which registers the inclination angle of said midline and shows it on a screen or has an interface for unloading the data to a computer, and an articulator support .
Clutch actuator comprising: - a casing , - an electric motor fixed to the casing, comprising a rotary output shaft , - a movement-conversion device of rotary-linear type , comprising an input member driven in rotation by the shaft of the electric motor , and an output member driving the translational movement of a pushing member able to displace a fluid of a pressure chamber , the pushing member being able to move between a deployed position and a retracted position, characterized in that the pushing member comprises a coupling part coupled to and immobilized in terms of rotation with respect to the output member and the casing , the coupling part being capable of translational movement with the output member , the pushing member further comprising a piston axially secured to the coupling part , said piston being able to displace the fluid contained in the pressure chamber , the coupling part being formed by a component distinct from the piston . - a casing , - an electric motor fixed to the casing, comprising a rotary output shaft , - a movement-conversion device of rotary-linear type , comprising an input member driven in rotation by the shaft of the electric motor , and an output member driving the translational movement of a pushing member able to displace a fluid of a pressure chamber , the pushing member being able to move between a deployed position and a retracted position,