mhurhangee/patent-ind-claim-en huggingface dataset:
Device for moving one or more front flaps of a fairing of a coupling of a track-guided vehicle, in particular of a rail vehicle from a closed state into an open state and vice versa, wherein the device comprises the following: at least one support frame , which is connected or connectable to the vehicle underframe and an actuating device which is assigned to an individual front flap and is connected, on the one side, to the at least one support frame , and on the other side, to the front flap to be pivoted, for moving said front flap relative to the support frame from the closed state into the open state and vice versa; wherein the actuating device of at least one of the front flaps includes a coupling mechanism with at least one drive and one output, the front flap is coupled with the coupling mechanism between the drive and the output and the coupling mechanism is arranged and realized in such a manner so as to describe a movement curve of the front flap connected thereto when moving between the closed state and open state and vice versa, with a development which deviates from a circle segment path as a result of at least partial overlapping of a pivoting and shifting movement; characterized in that the actuating device of at least one of the front flaps includes two sliding guide devices which comprise sliding guides mounted on the support frame , wherein the front flap is mounted directly or via at least one coupling member in a pivotable manner on the guide elements which are guidable in the sliding guides of the sliding guide devices , wherein the sliding guides are realized as linear guides and are arranged extending at an angle to one another. at least one support frame , which is connected or connectable to the vehicle underframe and an actuating device which is assigned to an individual front flap and is connected, on the one side, to the at least one support frame , and on the other side, to the front flap to be pivoted, for moving said front flap relative to the support frame from the closed state into the open state and vice versa; wherein the actuating device of at least one of the front flaps includes a coupling mechanism with at least one drive and one output, the front flap is coupled with the coupling mechanism between the drive and the output and the coupling mechanism is arranged and realized in such a manner so as to describe a movement curve of the front flap connected thereto when moving between the closed state and open state and vice versa, with a development which deviates from a circle segment path as a result of at least partial overlapping of a pivoting and shifting movement; characterized in that the actuating device of at least one of the front flaps includes two sliding guide devices which comprise sliding guides mounted on the support frame , wherein the front flap is mounted directly or via at least one coupling member in a pivotable manner on the guide elements which are guidable in the sliding guides of the sliding guide devices , wherein the sliding guides are realized as linear guides and are arranged extending at an angle to one another.
A radio-frequency, RF, camera system comprising: a sensor assembly comprising sensors supported at respective sensor locations and defining an alterable field of view for the sensor assembly , each sensor configured to tilt, rotate, or move in one or more directions at the respective sensor location, each sensor comprising a microprocessor , a digital signal processor , a radio and an antenna that are configured to allow each sensor to: detect RF signals from the alterable field of view , and process the RF signals detected by the sensor to identify parameters of the RF signals; and a data processing system configured to: receive the parameters identified by the sensors; and generate a graphical representation of the alterable field of view based on the parameters. a sensor assembly comprising sensors supported at respective sensor locations and defining an alterable field of view for the sensor assembly , each sensor configured to tilt, rotate, or move in one or more directions at the respective sensor location, each sensor comprising a microprocessor , a digital signal processor , a radio and an antenna that are configured to allow each sensor to: detect RF signals from the alterable field of view , and process the RF signals detected by the sensor to identify parameters of the RF signals; and detect RF signals from the alterable field of view , and process the RF signals detected by the sensor to identify parameters of the RF signals; and a data processing system configured to: receive the parameters identified by the sensors; and generate a graphical representation of the alterable field of view based on the parameters. receive the parameters identified by the sensors; and generate a graphical representation of the alterable field of view based on the parameters.
A wireless communications device having a housing and a screen with a portrait mode and a landscape mode with a restrictive data entry capability coupled to a wireless communications device motion sensor, characterized by a portrait mode disablement device coupled to the wireless communications device motion sensor to operate with an on board Micro-Electro-Mechanical (MEM) system to immediately disable the portrait mode keypad or input device of the wireless communications device upon detection of vibration or motion of the wireless communications device above a predetermined rate and mandate use of the landscape mode of the wireless communications device and a two handed operation with a continuous grasp and retention by at least one finger or hand portion of each hand on predetermined contact areas along a back portion of the housing to enter data on the screen , and wherein the portrait mode disablement device is configured to communicate with the on board Micro-Electro-Mechanical (MEM) system to block a driver from use of the wireless communications device in a vehicle in motion by the mandated use of the landscape mode of the wireless communications device, the mandated two handed operation and a required body damped operation of the wireless communication device, which is based on monitoring of vehicle and/or highway induced vibrations which are not damped by the body of the driver, and to allow passengers the use of the wireless communications device in the vehicle in motion by the mandated use of the landscape mode of the wireless communications device, the mandated two handed operation and a required body damped operation of the wireless communication device, which is based on monitoring of vehicle and/or highway induced vibrations damped by the body of passenger.
System having a portable operating module and a household appliance , which operating module is designed for wireless communication with the household appliance , wherein a range of functions of the operating module for operating the household appliance is dependent on the position of the operating module in respect of the household appliance , and at least one predetermined detection signal is stored in the operating module for determining the position and can be transmitted to the household appliance , wherein a range of functions of the operating module is activated when the operating module is within close range of the household appliance , characterised in that the detection of the operating module within close range is dependent on a time period between sending a request signal and receiving the detection signal .
A method of forming a silicon carbide semiconductor device, comprising: forming a silicon carbide epitaxial layer on a surface of a silicon carbide substrate , the epitaxial layer having a thickness greater than 3 μm; forming a semiconductor device at a first surface of the epitaxial layer opposite the silicon carbide, SiC, substrate ; mounting a carrier substrate to the first surface of the epitaxial layer ; removing the silicon carbide substrate to expose a second surface of the epitaxial layer opposite the first surface while the carrier substrate is providing mechanical support to the epitaxial layer ; forming a metal layer on the second surface of the epitaxial layer ; locally annealing the metal layer to form an ohmic contact on the second surface of the epitaxial layer ; and separating the epitaxial layer from the carrier substrate ; and wherein locally annealing the metal layer comprises locally heating the deposited metal layer to a temperature that is sufficient to cause the metal layer to form an ohmic contact to the surface of the epitaxial layer opposite the first surface but that is lower than a temperature at which the carrier substrate will detach from the epitaxial layer . forming a silicon carbide epitaxial layer on a surface of a silicon carbide substrate , the epitaxial layer having a thickness greater than 3 μm; forming a semiconductor device at a first surface of the epitaxial layer opposite the silicon carbide, SiC, substrate ; mounting a carrier substrate to the first surface of the epitaxial layer ; removing the silicon carbide substrate to expose a second surface of the epitaxial layer opposite the first surface while the carrier substrate is providing mechanical support to the epitaxial layer ; forming a metal layer on the second surface of the epitaxial layer ; locally annealing the metal layer to form an ohmic contact on the second surface of the epitaxial layer ; and separating the epitaxial layer from the carrier substrate ; and wherein locally annealing the metal layer comprises locally heating the deposited metal layer to a temperature that is sufficient to cause the metal layer to form an ohmic contact to the surface of the epitaxial layer opposite the first surface but that is lower than a temperature at which the carrier substrate will detach from the epitaxial layer .
Method for forming a guide structure in an elevator shaft , wherein the guide structure is configured to guide an elevator car during vertical travel in the elevator shaft , wherein the method comprises: moving a tool vertically along the elevator shaft , wherein the tool is precisely positioned with respect to its horizontal position within the elevator shaft , and forming the guide structure by removing material from a shaft wall of the elevator shaft by means of the tool during said vertical movement of the tool along the elevator shaft . wherein the guide structure is configured to guide an elevator car during vertical travel in the elevator shaft , wherein the method comprises: moving a tool vertically along the elevator shaft , wherein the tool is precisely positioned with respect to its horizontal position within the elevator shaft , and forming the guide structure by removing material from a shaft wall of the elevator shaft by means of the tool during said vertical movement of the tool along the elevator shaft . moving a tool vertically along the elevator shaft , wherein the tool is precisely positioned with respect to its horizontal position within the elevator shaft , and forming the guide structure by removing material from a shaft wall of the elevator shaft by means of the tool during said vertical movement of the tool along the elevator shaft .
A method for automatically discovering a gas station point of interest (POI), comprising: collecting (S110) information uploaded by an on-board diagnostic (OBD) device, and determining gasoline quantity surge points based on the information; clustering (S120) the gasoline quantity surge points based on location information by using a clustering algorithm, wherein the information uploaded by the OBD device comprises longitude and latitude information; wherein the clustering algorithm is a geo HASH algorithm and wherein the location information is the longitude and latitude information; and determining (S130) a location region having the gas station POI based on a result of clustering, comprising determining a region defined by a longitude and a latitude represented by the geo HASH grid as the location region having the gas station POI if the gas station POI exists in the geo HASH grid; and determining that the gas station POI exists in a geo HASH grid if a number of points inside the geo HASH grid reaches a third set threshold, otherwise, determining that the gas station POI does not exist in the geo HASH grid. collecting (S110) information uploaded by an on-board diagnostic (OBD) device, and determining gasoline quantity surge points based on the information; clustering (S120) the gasoline quantity surge points based on location information by using a clustering algorithm, wherein the information uploaded by the OBD device comprises longitude and latitude information; wherein the clustering algorithm is a geo HASH algorithm and wherein the location information is the longitude and latitude information; and determining (S130) a location region having the gas station POI based on a result of clustering, comprising determining a region defined by a longitude and a latitude represented by the geo HASH grid as the location region having the gas station POI if the gas station POI exists in the geo HASH grid; and determining that the gas station POI exists in a geo HASH grid if a number of points inside the geo HASH grid reaches a third set threshold, otherwise, determining that the gas station POI does not exist in the geo HASH grid.
A method for deep-frying food the cell membrane of which has been permeabilized, wherein the temperature of a deep-frying medium surrounding the food is controlled to be lowered from an initial temperature at the start of deep-frying to a final temperature in accordance with a predetermined temperature profile , wherein the food is continuously deep-fried while being moved along a direction of movement through zones (I to IV) with different temperatures of the deep-frying medium , and wherein the deep-frying medium discharged from one zone (I to III) is introduced into another zone (II to IV) downstream in the direction of movement .
A fluid supply pipe comprising an internal structure and a pipe body configured to house the internal structure, the pipe body having an inlet and an outlet, wherein the internal structure comprises: a first internal structure ; and a second internal structure , and that the first internal structure comprises: a head portion comprising a plurality of spiral vanes; and a body portion positioned downstream from the head portion and comprising a plurality of protrusions on its outer circumferential surface, characterised in that the second internal structure is formed in a hollow shaft shape comprising: a head portion comprising a plurality of spiral vanes; and a body portion positioned downstream from the head portion and comprising a plurality of protrusions on its outer circumferential surface, and that at least a part of the first internal structure is housed in the hollow of the second internal structure. a first internal structure ; and a second internal structure , and that the first internal structure comprises: a head portion comprising a plurality of spiral vanes; and a body portion positioned downstream from the head portion and comprising a plurality of protrusions on its outer circumferential surface, characterised in that the second internal structure is formed in a hollow shaft shape comprising: a head portion comprising a plurality of spiral vanes; and a body portion positioned downstream from the head portion and comprising a plurality of protrusions on its outer circumferential surface, a head portion comprising a plurality of spiral vanes; and a body portion positioned downstream from the head portion and comprising a plurality of protrusions on its outer circumferential surface, characterised in that the second internal structure is formed in a hollow shaft shape comprising: a head portion comprising a plurality of spiral vanes; and a body portion positioned downstream from the head portion and comprising a plurality of protrusions on its outer circumferential surface, a head portion comprising a plurality of spiral vanes; and a body portion positioned downstream from the head portion and comprising a plurality of protrusions on its outer circumferential surface, and that at least a part of the first internal structure is housed in the hollow of the second internal structure.
A biological authentication method executed by a processor included in a biological authentication device, the biological authentication method comprising: calculating (S504) a first similarity between a first feature amount of first biological information acquired from a first person among multiple persons to be subjected to authentication and a second feature amount of second biological information acquired from a second person among the multiple persons to be subjected to authentication; calculating multiple second similarities between the first feature amount and multiple registered feature amounts of biological information acquired from multiple registered persons; executing authentication on the first person, based on the multiple second similarities; when the authentication of the first person is successful, selecting first registered feature amounts to be subjected to similarity calculation from among the multiple registered feature amounts, based on the first similarity and the multiple second similarities; calculating third similarities between the second feature amount and the first registered feature amounts; and executing, based on the third similarities, authentication on the second person to be subjected to authentication. calculating (S504) a first similarity between a first feature amount of first biological information acquired from a first person among multiple persons to be subjected to authentication and a second feature amount of second biological information acquired from a second person among the multiple persons to be subjected to authentication; calculating multiple second similarities between the first feature amount and multiple registered feature amounts of biological information acquired from multiple registered persons; executing authentication on the first person, based on the multiple second similarities; when the authentication of the first person is successful, selecting first registered feature amounts to be subjected to similarity calculation from among the multiple registered feature amounts, based on the first similarity and the multiple second similarities; calculating third similarities between the second feature amount and the first registered feature amounts; and executing, based on the third similarities, authentication on the second person to be subjected to authentication.
Lifting apparatus for a lifting crane , adapted to carry an elongated component, especially a rotor blade of a wind turbine , comprising a frame with at least two support arms for carrying the component, characterized in that at least one flap-like interaction means for interacting with blowing wind is provided at the frame or a support arm , which flap-like interaction means is movable from a non-working position in a working position, in which it is set against the wind, wherein the flap-like interaction means is linearly movable, or in a combined linear and curved movement; and the at least one or each flap-like interaction means is shiftable along the frame or the support arm to change its frame or arm position. wherein the flap-like interaction means is linearly movable, or in a combined linear and curved movement; and the at least one or each flap-like interaction means is shiftable along the frame or the support arm to change its frame or arm position.
Method for automatic positioning of a medical robot for carrying out a medical intervention on a patient , said medical robot having a motorized mobile base enabling movement of the medical robot , and a control unit storing an intervention plan comprising at least one action to be performed on an anatomy of interest of said patient , said positioning method comprising the following steps, executed autonomously by the medical robot : - detection of the position of the anatomy of interest of the patient relative to a position of the medical robot , - identification , on the basis of the position of the anatomy of interest of the patient and of the intervention plan, of at least two different favourable positions of the mobile base of the medical robot at which the medical robot is capable of performing said at least one action from the intervention plan, - movement of the mobile base of the medical robot to an optimum position selected from the identified favourable positions, - verification of a stability criterion of the mobile base of the medical robot at the selected optimum position, - if said verification is positive, immobilization of the mobile base of the medical robot at said optimum position, - if said verification is negative, movement of the mobile base of the medical robot to another position selected from the favourable positions, characterized in that the medical robot has retractable feet intended to be lowered in order to immobilize the mobile base of the medical robot , each foot having a sensor making it possible to measure a weight supported by said foot, and the verification of a stability criterion comprises, for each foot, comparing the measurement of the weight supported by said foot against a predetermined threshold. - detection of the position of the anatomy of interest of the patient relative to a position of the medical robot , - identification , on the basis of the position of the anatomy of interest of the patient and of the intervention plan, of at least two different favourable positions of the mobile base of the medical robot at which the medical robot is capable of performing said at least one action from the intervention plan, - movement of the mobile base of the medical robot to an optimum position selected from the identified favourable positions, - verification of a stability criterion of the mobile base of the medical robot at the selected optimum position, - if said verification is positive, immobilization of the mobile base of the medical robot at said optimum position, - if said verification is negative, movement of the mobile base of the medical robot to another position selected from the favourable positions,
A method of producing an ideal whey protein concentrate comprising the steps of: - providing an ideal whey protein solution containing whey proteins 70-90% and caseins 10-30% of the total protein; - adjusting the pH of the solution to pH 6.8-7.5; - heat-treating the solution at a temperature of 88-95°C for 1-10 minutes to provide an ideal whey protein concentrate; - optionally cooling the concentrate; - optionally storing the concentrate at a temperature of 4-8°C, wherein the ideal whey protein solution is an ultrafiltration retentate of the microfiltration permeate of skim milk. - providing an ideal whey protein solution containing whey proteins 70-90% and caseins 10-30% of the total protein; - adjusting the pH of the solution to pH 6.8-7.5; - heat-treating the solution at a temperature of 88-95°C for 1-10 minutes to provide an ideal whey protein concentrate; - optionally cooling the concentrate; - optionally storing the concentrate at a temperature of 4-8°C,
Set (s) of two or more dongles (a,b,c) for providing a digital signature (S i ), wherein each dongle (a,b,c) holds a secret key (K i ), wherein each dongle (a,b,c) is configured to receive a message (M), to compute a digital signature (S i ) of the received message (M) using the secret key (K i ), and to transmit the computed digital signature (Si), characterised in that at least one of the dongles (a) is configured to, before computing the digital signature (S a ), verify the presence of at least one other dongle (b,c) belonging to the set (s), and to compute the digital signature (S a ) only within a limited timeframe from a successful verification of the presence of one or more other dongles (b,c).