mhurhangee/patent-ind-claim-en huggingface dataset:
A predictive system , comprising: a torque-limiter comprising a ball-ramp mechanism ; a sensor disposed to sense a condition of the torque-limiter , the condition comprising a distance between plates of the ball-ramp mechanism; and characterized by : a processing system coupled to the sensor and configured to process readings of the sensor, to calculate whether the condition of the torque-limiter is indicative of degradation or failure incidents based on the readings being processed and to determine whether an action should be taken based on a calculation result; wherein the processing system is configured to calculate that the condition of the torque-limiter is indicative of the degradation or failure incidents based on the condition exceeding a first threshold or reaching a second threshold, respectively. a torque-limiter comprising a ball-ramp mechanism ; a sensor disposed to sense a condition of the torque-limiter , the condition comprising a distance between plates of the ball-ramp mechanism; and characterized by : a processing system coupled to the sensor and configured to process readings of the sensor, to calculate whether the condition of the torque-limiter is indicative of degradation or failure incidents based on the readings being processed and to determine whether an action should be taken based on a calculation result; wherein the processing system is configured to calculate that the condition of the torque-limiter is indicative of the degradation or failure incidents based on the condition exceeding a first threshold or reaching a second threshold, respectively. a processing system coupled to the sensor and configured to process readings of the sensor, to calculate whether the condition of the torque-limiter is indicative of degradation or failure incidents based on the readings being processed and to determine whether an action should be taken based on a calculation result; wherein the processing system is configured to calculate that the condition of the torque-limiter is indicative of the degradation or failure incidents based on the condition exceeding a first threshold or reaching a second threshold, respectively.
Dicaffeoyl spermidine cyclized derivatives with the following structure formula, or pharmaceutically acceptable salts thereof, wherein, R 1 , R 2 , and R 3 are hydroxy, methoxy, or optionally substituted glycosyl, R 4 and R 5 are both -CH= or -CH 2 -, R 6 and R 7 are both -CH= or -CH 2 -, wherein the optionally substituted glycosyl is selected from one or more monosaccharide, disaccharide or polysaccharide formed by the following monosaccharides selected from the group consisting of: glucosyl, glucuronyl, mannosyl, galactosyl, allosyl, fructosyl, sorbosyl, furanosyl, rhamnosyl, quinovosyl, arabinosyl, lyxosyl, xylosyl, ribosyl. R 1 , R 2 , and R 3 are hydroxy, methoxy, or optionally substituted glycosyl, R 4 and R 5 are both -CH= or -CH 2 -, R 6 and R 7 are both -CH= or -CH 2 -, wherein the optionally substituted glycosyl is selected from one or more monosaccharide, disaccharide or polysaccharide formed by the following monosaccharides selected from the group consisting of: glucosyl, glucuronyl, mannosyl, galactosyl, allosyl, fructosyl, sorbosyl, furanosyl, rhamnosyl, quinovosyl, arabinosyl, lyxosyl, xylosyl, ribosyl.
Scan recommendation method, comprising the steps of: - receiving evaluation data comprising classification data (CIA, CMA), wherein the classification data (CIA, CMA) classify anomalies (MA) of image derived metrics (IM) detected in input data (ID, IM, IHRI, UII) concerning the medical condition of a patient, and wherein the image derived metrics include geometric properties of tissues and cavities, - automatic determination of a next recommended magnetic resonance protocol (NRP) to be executed in accordance with a magnetic resonance scan of the patient based on the evaluation data. - receiving evaluation data comprising classification data (CIA, CMA), wherein the classification data (CIA, CMA) classify anomalies (MA) of image derived metrics (IM) detected in input data (ID, IM, IHRI, UII) concerning the medical condition of a patient, and wherein the image derived metrics include geometric properties of tissues and cavities, - automatic determination of a next recommended magnetic resonance protocol (NRP) to be executed in accordance with a magnetic resonance scan of the patient based on the evaluation data.
Heating device provided with an enclosure which delimits a cavity, said device comprising a door or a wall incorporating multiple glazing comprising two, three or four substrates, said glazing comprising at least one transparent substrate coated, on each face, with a stack of thin layers, including: - on a first face, facing said cavity, a first stack which reflects the heat substantially owing to one or more functional layers based on a mixed indium tin oxide, - on the other face, facing the outside of the device, a second stack which reflects the heat substantially owing to one or more functional layers based on a metal selected from gold or silver, preferably silver, said glazing comprising at least one additional heat-reflecting coating which is deposited on at least one other substrate constituting the glazing and on the third face and/or on the fifth face of the glazing when viewed from the inside to the outside of said heating device, said first stack comprising, as the functional layer, a layer of indium tin oxide which comprises a proportion by weight from 85 to 95% indium oxide and from 15 to 5% tin oxide or of which the atomic percentage of Sn in the oxide is in a range extending from 5 to 70%. - on a first face, facing said cavity, a first stack which reflects the heat substantially owing to one or more functional layers based on a mixed indium tin oxide, - on the other face, facing the outside of the device, a second stack which reflects the heat substantially owing to one or more functional layers based on a metal selected from gold or silver, preferably silver, said glazing comprising at least one additional heat-reflecting coating which is deposited on at least one other substrate constituting the glazing and on the third face and/or on the fifth face of the glazing when viewed from the inside to the outside of said heating device, said first stack comprising, as the functional layer, a layer of indium tin oxide which comprises a proportion by weight from 85 to 95% indium oxide and from 15 to 5% tin oxide or of which the atomic percentage of Sn in the oxide is in a range extending from 5 to 70%.
A charge pump for a Radio Frequency Identification, RFID, tag, comprising: an antenna port with two terminals to receive an input AC signal (L A , L B ); an input port to receive an input signal (V IN ); a main transistor (MN1) having a gate, a source and a drain; characterized in that the charge pump further comprises a threshold voltage cancellation circuit coupled between one terminal of the antenna port and the input port, wherein an output of the threshold voltage cancellation circuit is configured to drive the gate of the main transistor (MN1), wherein the threshold voltage cancellation circuit is configured to reduce an effective threshold voltage (V TH ) of the main transistor (MN1) when a voltage of the input signal (V IN ) is below a predefined voltage of the input signal (V IN ) and to deactivate a threshold voltage cancellation of the main transistor (MN1) when the voltage of the input signal (V IN ) is above the predefined voltage of the input signal (V IN ). an antenna port with two terminals to receive an input AC signal (L A , L B ); an input port to receive an input signal (V IN ); a main transistor (MN1) having a gate, a source and a drain; characterized in that the charge pump further comprises a threshold voltage cancellation circuit coupled between one terminal of the antenna port and the input port, wherein an output of the threshold voltage cancellation circuit is configured to drive the gate of the main transistor (MN1), wherein the threshold voltage cancellation circuit is configured to reduce an effective threshold voltage (V TH ) of the main transistor (MN1) when a voltage of the input signal (V IN ) is below a predefined voltage of the input signal (V IN ) and to deactivate a threshold voltage cancellation of the main transistor (MN1) when the voltage of the input signal (V IN ) is above the predefined voltage of the input signal (V IN ).
A cardan shaft for transmitting engine rotational motion and power in motor vehicles, said cardan shaft comprising: a yoke shaft a tube sleeve and a protective cover ; said yoke shaft consisting of: a yoke part , a shaft part and a neck section ; said neck section corresponding to the part where the yoke part and the shaft part meet; wherein said neck section consists of: a protective cover insertion diameter (4.1) on which the protective cover is mounted, said protective cover insertion diameter (4.1) being parallel to the yoke shaft axis; a solid cone (4.8), a turning point (4.6) and a neck (4.7) having a diameter smaller than the diameter of the shaft part ; wherein said solid cone (4.8) narrows with a certain inclination inwardly from said protective cover insertion diameter (4.1) and joins said neck (4.7) at said turning point (4.6); said tube sleeve having at one end a tube face (6.1) and a tube inner chamfer (6.2); wherein, only said tube inner chamfer (6.2) contacts said neck section , defining a mating surface (4.9) thereon; said mating surface (4.9) being exclusively on said solid cone (4.8). said yoke shaft consisting of: a yoke part , a shaft part and a neck section ; said neck section corresponding to the part where the yoke part and the shaft part meet; wherein said neck section consists of: a protective cover insertion diameter (4.1) on which the protective cover is mounted, said protective cover insertion diameter (4.1) being parallel to the yoke shaft axis; a solid cone (4.8), a turning point (4.6) and a neck (4.7) having a diameter smaller than the diameter of the shaft part ; wherein said solid cone (4.8) narrows with a certain inclination inwardly from said protective cover insertion diameter (4.1) and joins said neck (4.7) at said turning point (4.6); wherein said neck section consists of: a protective cover insertion diameter (4.1) on which the protective cover is mounted, said protective cover insertion diameter (4.1) being parallel to the yoke shaft axis; a solid cone (4.8), a turning point (4.6) and a neck (4.7) having a diameter smaller than the diameter of the shaft part ; a protective cover insertion diameter (4.1) on which the protective cover is mounted, said protective cover insertion diameter (4.1) being parallel to the yoke shaft axis; a solid cone (4.8), a turning point (4.6) and a neck (4.7) having a diameter smaller than the diameter of the shaft part ; wherein said solid cone (4.8) narrows with a certain inclination inwardly from said protective cover insertion diameter (4.1) and joins said neck (4.7) at said turning point (4.6); said tube sleeve having at one end a tube face (6.1) and a tube inner chamfer (6.2); wherein, only said tube inner chamfer (6.2) contacts said neck section , defining a mating surface (4.9) thereon; said mating surface (4.9) being exclusively on said solid cone (4.8).
Method for preparing solid microcapsules comprising the steps of: a) the addition, with stirring, of a composition C1, comprising at least one active ingredient, in a photocrosslinkable polymer composition C2, the compositions C1 and C2 not being miscible with each other, wherein an emulsion (E1) comprising drops of composition C1 dispersed in composition C2, is obtained; b) the addition, with stirring, of the emulsion (E1) in a composition C3, the compositions C2 and C3 not being miscible with each other, the viscosity of the composition C3 being greater than the viscosity of the emulsion (E1), and being greater than 2,000 mPa.s at 25°C, wherein a double emulsion (E2) comprising drops dispersed in the composition C3, is obtained; c) applying shear to the emulsion (E2), the applied shear rate being less than 1000 s -1 , wherein a double emulsion (E3) is obtained comprising controlled-size drops dispersed in the composition C3; and d) the photopolymerization of the composition C2, wherein solid microcapsules dispersed in the composition C3 are obtained. a) the addition, with stirring, of a composition C1, comprising at least one active ingredient, in a photocrosslinkable polymer composition C2, the compositions C1 and C2 not being miscible with each other, wherein an emulsion (E1) comprising drops of composition C1 dispersed in composition C2, is obtained; b) the addition, with stirring, of the emulsion (E1) in a composition C3, the compositions C2 and C3 not being miscible with each other, the viscosity of the composition C3 being greater than the viscosity of the emulsion (E1), and being greater than 2,000 mPa.s at 25°C, wherein a double emulsion (E2) comprising drops dispersed in the composition C3, is obtained; c) applying shear to the emulsion (E2), the applied shear rate being less than 1000 s -1 , wherein a double emulsion (E3) is obtained comprising controlled-size drops dispersed in the composition C3; and d) the photopolymerization of the composition C2, wherein solid microcapsules dispersed in the composition C3 are obtained.
Atomizer unit of a minimal-quantity lubrication system for cooling and/or lubricating a subtractive machining process between a tool and a workpiece at a machining location, wherein the atomizer unit has a chamber arrangement having a chamber arrangement interior , at least one first supply duct for supplying a first compressed-air stream into and through the chamber arrangement interior to a continuation duct , and an injection valve for injecting a coolant and/or lubricant into an injection region into the first compressed-air stream in the chamber arrangement interior , characterized in that the atomizer unit has at least one second supply duct for supplying a second compressed-air stream into and through the chamber arrangement interior to the continuation duct , wherein the atomizer unit is designed in such a manner that, downstream of the injection region , the second compressed-air stream combines with the first compressed-air stream and with the coolant and/or lubricant possibly injected into the first compressed-air stream , to form a transport stream for transporting the injected coolant and/or lubricant , and wherein the transport stream is routed through the continuation duct to the machining location . wherein the atomizer unit has a chamber arrangement having a chamber arrangement interior , at least one first supply duct for supplying a first compressed-air stream into and through the chamber arrangement interior to a continuation duct , and an injection valve for injecting a coolant and/or lubricant into an injection region into the first compressed-air stream in the chamber arrangement interior , characterized in that the atomizer unit has at least one second supply duct for supplying a second compressed-air stream into and through the chamber arrangement interior to the continuation duct , wherein the atomizer unit is designed in such a manner that, downstream of the injection region , the second compressed-air stream combines with the first compressed-air stream and with the coolant and/or lubricant possibly injected into the first compressed-air stream , to form a transport stream for transporting the injected coolant and/or lubricant , and wherein the transport stream is routed through the continuation duct to the machining location .
A direction-finding antenna , comprising: a first set of radiating elements (102A-D) configured to radiate at a first wavelength, λ 1 , wherein the first set of radiating elements defines a first circle having a first radius with a first phase center distance between about 0.15λ 1 and 0.20λ 1 ; a second set of radiating elements (104A-D) configured to radiate at a second wavelength, λ 2 , that is shorter than the first wavelength, λ 1 , wherein the second set of radiating elements defines a second circle having a second radius with a second phase center distance between about 0.15λ 2 and 0.20λ 2 , the second radius of the second circle is smaller than the first radius of the first circle, and the second set of radiating elements includes smaller radiating elements than the first set of radiating elements, wherein the first circle and the second circle are concentric; a transmission line-based multiplexer coupled to the first set of radiating elements and the second set of radiating elements, the transmission line-based multiplexer configured to selectively couple the first set of radiating elements or the second set of radiating elements to a radio frequency, RF, feed line , wherein the transmission line-based multiplexer is configured to sample all the radiating elements in a selected set simultaneously or at least partially in parallel. a first set of radiating elements (102A-D) configured to radiate at a first wavelength, λ 1 , wherein the first set of radiating elements defines a first circle having a first radius with a first phase center distance between about 0.15λ 1 and 0.20λ 1 ; a second set of radiating elements (104A-D) configured to radiate at a second wavelength, λ 2 , that is shorter than the first wavelength, λ 1 , wherein the second set of radiating elements defines a second circle having a second radius with a second phase center distance between about 0.15λ 2 and 0.20λ 2 , the second radius of the second circle is smaller than the first radius of the first circle, and the second set of radiating elements includes smaller radiating elements than the first set of radiating elements, wherein the first circle and the second circle are concentric; a transmission line-based multiplexer coupled to the first set of radiating elements and the second set of radiating elements, the transmission line-based multiplexer configured to selectively couple the first set of radiating elements or the second set of radiating elements to a radio frequency, RF, feed line , wherein the transmission line-based multiplexer is configured to sample all the radiating elements in a selected set simultaneously or at least partially in parallel.
Process for the production of foamed mouldings, comprising the following steps: A) provision of a mould and B) introduction of a foam-forming reaction mixture into the mould, where in step B) a chronologically changing quantity of the foam-forming reaction mixture is introduced under constant injection pressure into the mould, where the foam-forming reaction mixture is obtained from the reaction of a first and a second reaction component, and the first and second reaction component are respectively introduced by means of constant-pressure nozzles into a comparatively small mixing chamber situated in the mixing head, and where the chronological change of the input quantity of the foam-forming reaction mixture is achieved via change of the performance of a pump motor acting on the reaction mixture, and where the foam-forming reaction mixture from the mixing of the first and the second reaction component is obtained in the mixing chamber situated in the mixing head, and the mixing chamber situated in the mixing head comprises one or more constant-pressure nozzles , and where the constant pressure maintained in the process is the pressure applied at the constant-pressure nozzles . A) provision of a mould and B) introduction of a foam-forming reaction mixture into the mould, where in step B) a chronologically changing quantity of the foam-forming reaction mixture is introduced under constant injection pressure into the mould, where the foam-forming reaction mixture is obtained from the reaction of a first and a second reaction component, and the first and second reaction component are respectively introduced by means of constant-pressure nozzles into a comparatively small mixing chamber situated in the mixing head, and where the chronological change of the input quantity of the foam-forming reaction mixture is achieved via change of the performance of a pump motor acting on the reaction mixture, and where the foam-forming reaction mixture from the mixing of the first and the second reaction component is obtained in the mixing chamber situated in the mixing head, and the mixing chamber situated in the mixing head comprises one or more constant-pressure nozzles , and where the constant pressure maintained in the process is the pressure applied at the constant-pressure nozzles .
A curing device for components coated with a curable paint , comprising at least one radiation source , at least one reflector member surrounding the radiation source, at least two divided dichroic mirror members opposite to the radiation source, which largely transmit the VIS & IR content of the radiation source and keep it away from a processing zone and at the same time reflect the UV content of the radiation source in the direction of a processing zone, at least one optical disk member that separates the cooling gas flow in the exposure device from the processing zone, characterized in that the at least two dichroic mirror members are arranged in such a manner: - that they are separate from one another and offset from one another in the direction of the main beam - and are displaced parallel to the main beam and thus opaque to the main beam, - so that cooling gas can flow out through the openings created, but intensity loss of the UV radiation does not occur. - that they are separate from one another and offset from one another in the direction of the main beam - and are displaced parallel to the main beam and thus opaque to the main beam, - so that cooling gas can flow out through the openings created, but intensity loss of the UV radiation does not occur.
A method of forwarding a received message in a mesh network , said mesh network comprising a plurality of communicatively interconnected mesh nodes arranged for transmitting messages in accordance with a message transmission protocol in a randomized transmission mode having a random time delay between subsequent transmissions, said method comprising the step of: - receiving , by a mesh node of said plurality of interconnected mesh nodes, a message to be forwarded in said mesh network ; characterised in that said mesh node is arranged for transmitting messages in a compact transmission mode in accordance with said message transmission protocol, wherein messages are unicasted a plurality of times having a predetermined time delay between subsequent unicast transmissions, said method further comprising the steps of: - determining , by said mesh node, that said received message to be forwarded is to be unicasted to a particular neighbour mesh node of said mesh node, said particular neighbour mesh node being one hop away from said mesh node; - selecting , by said mesh node, said compact transmission mode for transmitting said message to be forwarded to said particular neighbour mesh node, and - unicasting , by said mesh node, said message to be forwarded to said particular neighbour mesh node in accordance with said compact transmission mode. - receiving , by a mesh node of said plurality of interconnected mesh nodes, a message to be forwarded in said mesh network ; - determining , by said mesh node, that said received message to be forwarded is to be unicasted to a particular neighbour mesh node of said mesh node, said particular neighbour mesh node being one hop away from said mesh node; - selecting , by said mesh node, said compact transmission mode for transmitting said message to be forwarded to said particular neighbour mesh node, and - unicasting , by said mesh node, said message to be forwarded to said particular neighbour mesh node in accordance with said compact transmission mode.