mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining the leak tightness of a process air circuit of a cold air conditioning system, wherein the cold air conditioning system has a cooling turbine having a compressor and an expansion turbine that is arranged in the process air circuit , wherein a motor for operating the compressor is provided, wherein the compressor , the expansion turbine and the motor are connected via a common shaft, and wherein the cold air conditioning system is operated in open low pressure operation or in open excess pressure operation, characterized in that a calibration is carried out in which characteristics of the power consumption of the motor are determined in dependence on the speed of the compressor under different framework conditions, in particular different ambient temperatures and ambient pressures; in that the determined characteristics are stored; and in that the stored characteristics are used in a test run to determine the leak tightness of the process air circuit , with the instantaneous power consumption of the motor at a given speed of the compressor and under given framework conditions being compared with the characteristic matching the framework conditions in a test run.
A simulation system , comprising: a body ; a linear motor attached to the body , the linear motor having at least two independently controllable magnetic coils and a sliding mass having at least one magnet for magnetically interacting with at least one of the at least two magnetic coils ; a controller that controls movement of the sliding mass by controlling a current in one or more of the at least two magnetic coils such that the sliding mass produces a force on the body that simulates a haptic effect; a mechanical stop , wherein the sliding mass is driven against the mechanical stop to simulate the haptic effect, characterised in that the mechanical stop is adjustable such that the angle of impact of the sliding mass is changed such that a different simulation effect is felt by a user. a body ; a linear motor attached to the body , the linear motor having at least two independently controllable magnetic coils and a sliding mass having at least one magnet for magnetically interacting with at least one of the at least two magnetic coils ; a controller that controls movement of the sliding mass by controlling a current in one or more of the at least two magnetic coils such that the sliding mass produces a force on the body that simulates a haptic effect; a mechanical stop , wherein the sliding mass is driven against the mechanical stop to simulate the haptic effect,
Method for providing data regarding a centrifugal pump arrangement, having the following steps: - a unit of the centrifugal pump arrangement generating an optoelectronically readable code , - displaying the code on a display of the centrifugal pump arrangement, - optically capturing the displayed code using a mobile device , - wirelessly transmitting data in the code from the mobile device to a receiver . - a unit of the centrifugal pump arrangement generating an optoelectronically readable code , - displaying the code on a display of the centrifugal pump arrangement, - optically capturing the displayed code using a mobile device , - wirelessly transmitting data in the code from the mobile device to a receiver .
A method , implemented by a receiving device , the method comprising: receiving , from a proxy server , a promise frame indicating that the proxy server will deliver a packet to the receiving device from a sending device later; sending an acknowledgement of the packet to the sending device via the proxy server ; receiving the packet from the proxy server after having sent the acknowledgement of the packet to the sending device via the proxy server . receiving , from a proxy server , a promise frame indicating that the proxy server will deliver a packet to the receiving device from a sending device later; sending an acknowledgement of the packet to the sending device via the proxy server ; receiving the packet from the proxy server after having sent the acknowledgement of the packet to the sending device via the proxy server .
An apparatus comprising: a memory having a seed radiation treatment plan stored therein wherein the seed radiation treatment plan comprises a radiation treatment plan designed to administer radiation in a manner consistent with one or more currently-available radiation treatment platforms; a control circuit operably coupled to the memory and configured to: - use the seed radiation treatment plan to identify a portion of a multi-criteria optimization, MCO, based Pareto surface; and - select a sampling plan set for MCO planning by enlarging the portion of the Pareto surface region to thereby facilitate developing an optimized radiation treatment plan; and a radiation treatment platform configured to use the optimized radiation treatment plan to treat a patient. a memory having a seed radiation treatment plan stored therein wherein the seed radiation treatment plan comprises a radiation treatment plan designed to administer radiation in a manner consistent with one or more currently-available radiation treatment platforms; a control circuit operably coupled to the memory and configured to: - use the seed radiation treatment plan to identify a portion of a multi-criteria optimization, MCO, based Pareto surface; and - select a sampling plan set for MCO planning by enlarging the portion of the Pareto surface region to thereby facilitate developing an optimized radiation treatment plan; - use the seed radiation treatment plan to identify a portion of a multi-criteria optimization, MCO, based Pareto surface; and - select a sampling plan set for MCO planning by enlarging the portion of the Pareto surface region to thereby facilitate developing an optimized radiation treatment plan; and a radiation treatment platform configured to use the optimized radiation treatment plan to treat a patient.
An artificial heart valve device, comprising a tubular stent body having an inflow end , an outflow end and hollows , a leaflet arranged in a cavity of the stent body , and fixing structures connected with the stent body and configured for fixing the leaflet on the stent body , and the leaflet comprises at least two valve lobules and a connecting portion connecting two adjacent valve lobules; wherein the fixing structures are arranged in the hollows and each fixing structure comprises a fixing rod and a main body connected with the stent body ; wherein one end of the fixing rod is connected with the main body , and the other end of the fixing rod is a free end characterized in that the main body is provided with a through hole ; at least a part of the fixing rod is located in the through hole ; wherein the free end of the fixing rod points to the outflow end of the stent body; and the connecting portion passes through the through hole and is hung on the free end to fix the leaflet on the stent body .
A computer-implemented method comprising: obtaining first biometric data, wherein the first biometric data is captured in first condition or non-first condition; determining , by a discriminative network of generative adversarial networks, whether the first biometric data is captured in the first condition or the non-first condition; in response to a determination that the first biometric data is captured in the non-first condition, inputting the first biometric data to a generative network of the generative adversarial networks to generate a second biometric data; obtaining a matching result by inputting the first biometric data in response to a determination that the first biometric data is captured in the first condition or the second biometric data to a matching network; and determining a recognition result based on the matching result, wherein the second biometric data is in the first condition, the first biometric data is electrocardiogram data, wherein the first condition is a rest or relaxed condition and the non-first condition is a motion or stress condition. obtaining first biometric data, wherein the first biometric data is captured in first condition or non-first condition; determining , by a discriminative network of generative adversarial networks, whether the first biometric data is captured in the first condition or the non-first condition; in response to a determination that the first biometric data is captured in the non-first condition, inputting the first biometric data to a generative network of the generative adversarial networks to generate a second biometric data; obtaining a matching result by inputting the first biometric data in response to a determination that the first biometric data is captured in the first condition or the second biometric data to a matching network; and determining a recognition result based on the matching result, wherein the second biometric data is in the first condition, the first biometric data is electrocardiogram data, wherein the first condition is a rest or relaxed condition and the non-first condition is a motion or stress condition.
Aqueous dispersion comprising the following components: - at least one binder in dispersion form - at least one water-soluble salt of phosphoric acid - at least one water-soluble carbohydrate which is a disaccharide - optionally at least one water-soluble ammonium salt and/or at least one amino compound, wherein the at least one binder in dispersion form comprises a stabilized dispersion containing a copolymer of vinyl acetate and a vinyl ester of a further long-chain carboxylic acid. - at least one binder in dispersion form - at least one water-soluble salt of phosphoric acid - at least one water-soluble carbohydrate which is a disaccharide - optionally at least one water-soluble ammonium salt and/or at least one amino compound, wherein the at least one binder in dispersion form comprises a stabilized dispersion containing a copolymer of vinyl acetate and a vinyl ester of a further long-chain carboxylic acid.
Fibre microelectrode comprising at least one light conducting core and a glass cladding around the at least one light conducting core , a tip via which light can be coupled into and out of the at least one light conducting core , at least one electrical conductor located inside the glass cladding , wherein the at least one electrical conductor is designed such that it can receive or transmit electrical signals via the tip , characterized in that the at least one light conducting core is surrounded by a photonic crystal , the photonic crystal being located at least in sections within the glass cladding .
Pseudo-bidirectional device (200; 300) of protection against electrostatic discharges, comprising: - first and second diodes (101-1, 101-2) respectively coupling first and second terminals (103-1, 103-2) to a same inner node of the device; and - a third diode coupling the inner node to a third terminal of application of a reference potential, characterized in that the third diode has a capacitance greater than that of the first and second diodes (101-1, 101-2), the device further comprising first and second capacitive elements (201-1, 201-2) respectively connected in parallel with the first and second diodes (101-1, 101-2). - first and second diodes (101-1, 101-2) respectively coupling first and second terminals (103-1, 103-2) to a same inner node of the device; and - a third diode coupling the inner node to a third terminal of application of a reference potential,
System comprising a first module , a second module and a third module , wherein the first module is configured to - acquire automation plant-related data, wherein the automation plant-related data comprises at least operating data, wherein the operating data is present in the form of a time series , - generate manipulation-proof usage data in the form of a series of time windows (W1, ... W37) of a predetermined length from the operating data, and - transmit the manipulation-proof usage data to the second module , wherein the second module is configured to - determine at least a part of the manipulation-proof usage data, - form a checksum from the at least one part of the manipulation-proof usage data, - transfer the checksum to at least one node of a distributed ledger network , and - store the manipulation-proof usage data in an area outside the distributed ledger network , wherein the third module participates in the distributed ledger network and is configured to - receive the manipulation-proof usage data from the area on request, and - check the correctness of the manipulation-proof usage data on the basis of the checksum. - acquire automation plant-related data, wherein the automation plant-related data comprises at least operating data, wherein the operating data is present in the form of a time series , - generate manipulation-proof usage data in the form of a series of time windows (W1, ... W37) of a predetermined length from the operating data, and - transmit the manipulation-proof usage data to the second module , wherein the second module is configured to - determine at least a part of the manipulation-proof usage data, - form a checksum from the at least one part of the manipulation-proof usage data, - transfer the checksum to at least one node of a distributed ledger network , and - store the manipulation-proof usage data in an area outside the distributed ledger network , wherein the third module participates in the distributed ledger network and is configured to - receive the manipulation-proof usage data from the area on request, and - check the correctness of the manipulation-proof usage data on the basis of the checksum.
A method for visually representing the kinematics of a patient's joint in real-time, the method comprising: receiving characteristics of a measured movement of the joint ; computing at least one kinematic object vector using specific morphology of the joint structures and the characteristics of the measured movement of the joint ; displaying a 3D representation of the joint structures based on the specific morphology of the joint structures and on the characteristics of measured movement of the joint ; linking the at least one kinematic object vector with the joint structures ; and dynamically displaying the at least one kinematic object vector in the form of an arrow superimposed on the 3D representation of the joint structures . receiving characteristics of a measured movement of the joint ; computing at least one kinematic object vector using specific morphology of the joint structures and the characteristics of the measured movement of the joint ; displaying a 3D representation of the joint structures based on the specific morphology of the joint structures and on the characteristics of measured movement of the joint ; linking the at least one kinematic object vector with the joint structures ; and dynamically displaying the at least one kinematic object vector in the form of an arrow superimposed on the 3D representation of the joint structures .
A method for transmission of uplink control information, UCI, over a physical uplink shared channels, PUSCHs, the method comprising: determining (S410) a minimum number of physical resource blocks, PRBs, required for transmission of the UCI, based on the number of downlink component carriers, DL CCs; and scheduling (S420) at least the minimum number of PRBs for an uplink component carrier, UL CC, to transmit the UCI, wherein scheduling (S420) at least the minimum number of PRBs comprises: determining a further number of PRBs for data transmission over the UL CC; and characterized in that : if the further number of PRBs is not smaller than the minimum number of PRBs, scheduling the further number of PRBs for the UL CC; otherwise, scheduling the minimum number of PRBs for the UL CC. determining (S410) a minimum number of physical resource blocks, PRBs, required for transmission of the UCI, based on the number of downlink component carriers, DL CCs; and scheduling (S420) at least the minimum number of PRBs for an uplink component carrier, UL CC, to transmit the UCI, wherein scheduling (S420) at least the minimum number of PRBs comprises: determining a further number of PRBs for data transmission over the UL CC; and characterized in that : if the further number of PRBs is not smaller than the minimum number of PRBs, scheduling the further number of PRBs for the UL CC; otherwise, scheduling the minimum number of PRBs for the UL CC.
A method for making over-the-air measurements of an antenna system, said method comprising: defining at least one spatial sampling grid around the antenna system, said sampling grid having a distribution of sampling points that varies as a function of a geometry of the antenna system and/or a beam pattern of the antenna system, further including dividing the sampling grid into two or more sampling zones, wherein the distribution of sampling points varies in different ones of said sampling zones, measuring a received power at selected ones of said sampling points of said spatial sampling grid; and determining a total received power based on the received power measurements. defining at least one spatial sampling grid around the antenna system, said sampling grid having a distribution of sampling points that varies as a function of a geometry of the antenna system and/or a beam pattern of the antenna system, further including dividing the sampling grid into two or more sampling zones, wherein the distribution of sampling points varies in different ones of said sampling zones, measuring a received power at selected ones of said sampling points of said spatial sampling grid; and determining a total received power based on the received power measurements.
A method for isolating microRNA (miRNA), the method comprising (a) contacting a biological sample with a surface active agent and an anti-miRNA-binding protein reagent, wherein the surface active agent dissociates sample components and the anti-miRNA-binding protein reagent interacts with a miRNA-binding protein associated with miRNA to form immunoprecipitated miRNA complexes; and (b) contacting, at room temperature, the immunoprecipitated miRNA complexes with a protease to release miRNA from the immunoprecipitated miRNA complexes without purification.
Electrical link designed to link a DC high-voltage power source to a user apparatus , the electrical link comprising an electrical conductor surrounded by an insulating cover , the electrical link comprising an electrical protection device comprising: - a conductive sleeve arranged around the insulating cover , - a circuit breaker arranged on the electrical conductor and configured to cut off a current transiting through said conductor, characterized in that the protection device furthermore comprises: - a biasing module, situated on the side of the electric power source , configured to voltage-bias the conductive sleeve with a DC voltage (V_test_PSS), termed test voltage; - a device for limiting the bias voltage of the conductive sleeve, arranged in the user apparatus, having a limit voltage (Vlim) lower than the test voltage (V_test_PSS); - a detection module connected to the conductive sleeve and configured to detect a limiting, or lack thereof, of the bias voltage of the conductive sleeve by the limiting device , and to command the circuit breaker on the basis of the detection. - a conductive sleeve arranged around the insulating cover , - a circuit breaker arranged on the electrical conductor and configured to cut off a current transiting through said conductor, - a biasing module, situated on the side of the electric power source , configured to voltage-bias the conductive sleeve with a DC voltage (V_test_PSS), termed test voltage; - a device for limiting the bias voltage of the conductive sleeve, arranged in the user apparatus, having a limit voltage (Vlim) lower than the test voltage (V_test_PSS); - a detection module connected to the conductive sleeve and configured to detect a limiting, or lack thereof, of the bias voltage of the conductive sleeve by the limiting device , and to command the circuit breaker on the basis of the detection.
A travel control device operable to control travel of a vehicle based on a roll resistance coefficient (RRC) and an air resistance coefficient (ARC), the travel control device comprising: a coasting estimation section operable to estimate, based on the roll resistance coefficient (RRC) and the air resistance coefficient (ARC), an estimated vehicle speed variation ( Δ Vc) in a case where the vehicle performs coasting; a vehicle information acquiring section operable to acquire an actual vehicle speed variation (ΔVa) detected in the case where the vehicle performs coasting; and a travel resistance updating section operable to calculate a first ratio (RRa/RR) of an actual travel resistance (RRa) to a travel resistance (RR) based on a second ratio (ΔVc/ΔVa) of the estimated vehicle speed variation (ΔVc) to the actual vehicle speed variation (ΔVa) and a third ratio (θ/RR) of a grade (θ) of a road ahead of the vehicle to a travel resistance (RR) calculated based on the roll resistance coefficient and the air resistance coefficient, update the value of the roll resistance coefficient (RRC) by multiplying the value of the roll resistance coefficient (RRC) and the first ratio (RRa/RR), and update the value of the air resistance coefficient (ARC) by multiplying the value of the air resistance coefficient (ARC) and the first ratio (RRa/RR), using the following equation: RRa RR = θ RR ⋅ 1 − Δ Va Δ Vc + Δ Va Δ Vc a coasting estimation section operable to estimate, based on the roll resistance coefficient (RRC) and the air resistance coefficient (ARC), an estimated vehicle speed variation ( Δ Vc) in a case where the vehicle performs coasting; a vehicle information acquiring section operable to acquire an actual vehicle speed variation (ΔVa) detected in the case where the vehicle performs coasting; and a travel resistance updating section operable to calculate a first ratio (RRa/RR) of an actual travel resistance (RRa) to a travel resistance (RR) based on a second ratio (ΔVc/ΔVa) of the estimated vehicle speed variation (ΔVc) to the actual vehicle speed variation (ΔVa) and a third ratio (θ/RR) of a grade (θ) of a road ahead of the vehicle to a travel resistance (RR) calculated based on the roll resistance coefficient and the air resistance coefficient, update the value of the roll resistance coefficient (RRC) by multiplying the value of the roll resistance coefficient (RRC) and the first ratio (RRa/RR), and update the value of the air resistance coefficient (ARC) by multiplying the value of the air resistance coefficient (ARC) and the first ratio (RRa/RR), using the following equation: RRa RR = θ RR ⋅ 1 − Δ Va Δ Vc + Δ Va Δ Vc
Handheld machine tool device having at least one transmission unit which comprises at least one angular transmission and at least one countershaft and/or front-mounted transmission , wherein the angular transmission has at least one angular transmission input shaft which comprises an axis of rotation , an angular transmission output shaft which comprises an axis of rotation , and an angular transmission housing which supports the angular transmission input shaft and the angular transmission output shaft , and wherein the countershaft and/or front-mounted transmission has at least one driven shaft which comprises an axis of rotation , wherein the driven shaft , as viewed along a direction which is directed away from the angular transmission housing and runs at least substantially parallel to the axis of rotation of the angular transmission input shaft , is arranged downstream of the angular transmission output shaft , characterized in that the countershaft and/or front-mounted transmission has a housing , which is rotatably supported on the angular transmission housing , for supporting the driven shaft .