mhurhangee/patent-ind-claim-en huggingface dataset:
A digital certificate application method, wherein a client device integrates a secure element and is loaded with client software, the method comprising: sending, by the client device, a digital certificate application request to a server, wherein the server generates application information based on the application request and returns the application information to the client device and to a certificate authority, and wherein the application information comprises an application identifier uniquely corresponding to the application request; delivering, by the client device, the application information returned by the server to the secure element; generating, by the secure element, a pair of public and private keys based on an asymmetric algorithm; signing, by the secure element, the application identifier using the private key to obtain terminal signature data; encapsulating, by the secure element, the terminal signature data and the public key into a specified format and sending the specified format data to the client device; and sending, by the client device, the specified format data to the server, wherein the server sends the public key, the terminal signature data, login user information of the client, and certificate usage information to the certificate authority after determining, based on the public key, that the terminal signature data and the application identifier are verified, wherein the certificate authority generates a digital certificate after determining that the terminal signature data and the application identifier are verified. sending, by the client device, a digital certificate application request to a server, wherein the server generates application information based on the application request and returns the application information to the client device and to a certificate authority, and wherein the application information comprises an application identifier uniquely corresponding to the application request; delivering, by the client device, the application information returned by the server to the secure element; generating, by the secure element, a pair of public and private keys based on an asymmetric algorithm; signing, by the secure element, the application identifier using the private key to obtain terminal signature data; encapsulating, by the secure element, the terminal signature data and the public key into a specified format and sending the specified format data to the client device; and sending, by the client device, the specified format data to the server, wherein the server sends the public key, the terminal signature data, login user information of the client, and certificate usage information to the certificate authority after determining, based on the public key, that the terminal signature data and the application identifier are verified, wherein the certificate authority generates a digital certificate after determining that the terminal signature data and the application identifier are verified.
A drum type washing machine comprising: a reservoir which contains water; a rotating tub rotatably installed in the reservoir ; a driving apparatus which generates a rotational force for rotating the rotating tub ; and at least one fixing bracket for fixing the driving motor to the reservoir , wherein the driving apparatus comprises the driving motor which generates the rotational force, the driving motor comprises a case for forming an exterior thereof, the case is formed of a metal material, and the fixing bracket is formed of a resin material and fixed to the case , wherein the case comprises: a first case which supports one side of the stator and a second case which supports the other side of the stator , wherein the fixing bracket is fixed to the first case , and wherein the second case comprises a fixing portion which integrally extends from the second case and which is fixed to the reservoir . a reservoir which contains water; a rotating tub rotatably installed in the reservoir ; a driving apparatus which generates a rotational force for rotating the rotating tub ; and at least one fixing bracket for fixing the driving motor to the reservoir , wherein the driving apparatus comprises the driving motor which generates the rotational force, the driving motor comprises a case for forming an exterior thereof, the case is formed of a metal material, and the fixing bracket is formed of a resin material and fixed to the case , wherein the case comprises: a first case which supports one side of the stator and a second case which supports the other side of the stator , wherein the fixing bracket is fixed to the first case , and wherein the second case comprises a fixing portion which integrally extends from the second case and which is fixed to the reservoir . a first case which supports one side of the stator and a second case which supports the other side of the stator , wherein the fixing bracket is fixed to the first case , and wherein the second case comprises a fixing portion which integrally extends from the second case and which is fixed to the reservoir .
A method for preparing an astaxanthin-enriched feed or an astaxanthin-enriched feed component, comprising the following method steps: - Cultivation of microorganisms that produce and/or accumulate astaxanthin to provide a microorganism biomass, - feeding the microorganism biomass to insect larvae of the genus Hermetia and cultivating the insect larvae, and - processing the insect larvae into a feed or a feed component. - Cultivation of microorganisms that produce and/or accumulate astaxanthin to provide a microorganism biomass, - feeding the microorganism biomass to insect larvae of the genus Hermetia and cultivating the insect larvae, and - processing the insect larvae into a feed or a feed component.
A measuring system, for measuring properties of a device under test over the air, comprising - an antenna array , adapted to receive first measuring signals from the device under test , - a measuring device adapted to process the first measuring signals, received by the antenna array , generate second measuring signals, and transmit the second measuring signals to the device under test , using the antenna array , wherein the measuring device comprises a quiet zone generator , configured to perform a beamforming on the first measuring signals, after reception by the antenna array , wherein the quiet zone generator is further configured to perform a beamforming on the second measuring signals, before transmission by the antenna array , wherein the quiet zone generator is configured to apply the beamforming so that at least one adjustable quiet zone is achieved, and wherein the measuring device comprises a baseband unit and a radio frequency unit for each antenna of the antenna array , and wherein the measuring device is adapted to generate an interference signal based on a digital manipulation of the second measuring signals. - an antenna array , adapted to receive first measuring signals from the device under test , - a measuring device adapted to process the first measuring signals, received by the antenna array , generate second measuring signals, and transmit the second measuring signals to the device under test , using the antenna array ,
Medical kit or set for use in the treatment of a diseased hollow organ , having a cutting element , which is designed to cut into an inner wall layer of the hollow organ and/or to cut into deposits on an inner surface of the hollow organ, and an insertion catheter , which is designed for inserting the cutting element into the hollow organ , the cutting element being contained in the insertion catheter , the cutting element being in an extended state inside the insertion catheter , characterized in that the cutting element , in an insertion state, is not connected to a balloon catheter , wherein the kit or set moreover has at least one balloon catheter , wherein the balloon of the balloon catheter and the cutting element are adapted to permit insertion of the balloon into the cutting element when the cutting element is located in the inserted and an expanded state, such that, through inflation of the balloon , the cutting element cuts into the inner wall layer and/or the deposits , wherein the deposits are pressed onto or into the wall of the hollow organ .
A biaxially oriented polypropylene film, wherein a relationship between a loop stiffness stress (S) in mN in the longitudinal direction, measured as defined in the description, and a thickness (t) in μm satisfies the following formula, S ≥ 0.00020 × t 3 , a relationship between a loop stiffness stress (S) in mN in the width direction, measured as defined in the description, and the thickness (t) in μm satisfies the following formula, S ≥ 0.0010 × t 3 , a heat shrinkage rate of the biaxially oriented polypropylene film at 150°C, measured according to JIS Z 1712, is not higher than 10% in the longitudinal direction and not higher than 30% in the width direction, and characterized in that a heat shrinkage rate of the biaxially oriented polypropylene film at 120°C, measured according to JIS Z 1712, is not higher than 2.0% in the longitudinal direction and not higher than 5.0% in the width direction, and the heat shrinkage rate at 120°C in the longitudinal direction is lower than the heat shrinkage rate at 120°C in the width direction. a relationship between a loop stiffness stress (S) in mN in the longitudinal direction, measured as defined in the description, and a thickness (t) in μm satisfies the following formula, S ≥ 0.00020 × t 3 , a relationship between a loop stiffness stress (S) in mN in the width direction, measured as defined in the description, and the thickness (t) in μm satisfies the following formula, S ≥ 0.0010 × t 3 , a heat shrinkage rate of the biaxially oriented polypropylene film at 150°C, measured according to JIS Z 1712, is not higher than 10% in the longitudinal direction and not higher than 30% in the width direction, and characterized in that a heat shrinkage rate of the biaxially oriented polypropylene film at 120°C, measured according to JIS Z 1712, is not higher than 2.0% in the longitudinal direction and not higher than 5.0% in the width direction, and the heat shrinkage rate at 120°C in the longitudinal direction is lower than the heat shrinkage rate at 120°C in the width direction.
An airbag system for repositioning a seat occupant in a moving vehicle during a potentially injurious event, the airbag system comprising: a multi-chamber inflatable airbag in a normally deflated state disposed along a seat pan, the multi-chamber inflatable airbag comprising a plurality of chambers having at least a first inner partition defining a first chamber and a second chamber of the multi-chamber inflatable airbag ; and an inflation control device controlling deployment of the multi-chamber inflatable airbag to achieve a desired lift subject to monument constraints, the inflation control device operatively communicative with the multi-chamber inflatable airbag and comprising: an inflation device in fluid communication with at least the first chamber, the inflation device performing: receiving a signal from a sensor device indicating detection of the potentially injurious event comprising an acceleration/deceleration above a pre-defined magnitude of force; and responsive to receiving the signal, deploying the multi-chamber inflatable airbag to an inflated state by inflating the first and second chambers in sequence, thereby repositioning the seat occupant by upwardly raising the seat pan, charactarized in that the first chamber of the multi-chamber inflatable airbag is positioned proximate to a rear portion of the seat pan such that repositioning the seat occupant comprises lifting the seat occupant's torso before lifting the seat occupant's knees. receiving a signal from a sensor device indicating detection of the potentially injurious event comprising an acceleration/deceleration above a pre-defined magnitude of force; and responsive to receiving the signal, deploying the multi-chamber inflatable airbag to an inflated state by inflating the first and second chambers in sequence, thereby repositioning the seat occupant by upwardly raising the seat pan, charactarized in that the first chamber of the multi-chamber inflatable airbag is positioned proximate to a rear portion of the seat pan such that repositioning the seat occupant comprises lifting the seat occupant's torso before lifting the seat occupant's knees.
Method for calibrating a weighing apparatus of a vehicle axle of a vehicle by means of a calibrating apparatus , wherein - the vehicle is arranged on the calibrating apparatus in such a way that at least one wheel of the vehicle axle is arranged on a standing element of the calibrating apparatus , - at least one tension element connected to a holding device of the calibrating apparatus is connected to the vehicle , wherein the tension element is arranged on the vehicle axle , - the standing element is raised from an initial position into a raised position relative to the holding device by means of a lifting actuator , wherein, in the raised position, a predetermined tensile force acts via the tension element on the vehicle in the direction of the standing element , - an acting axle load is detected by a force-detecting device , - a measurement value in relation to the vehicle axle is detected by means of at least one weighing sensor of the weighing apparatus , and - the acting axle load is assigned to the measurement value in a control unit of the weighing apparatus . - the vehicle is arranged on the calibrating apparatus in such a way that at least one wheel of the vehicle axle is arranged on a standing element of the calibrating apparatus , - at least one tension element connected to a holding device of the calibrating apparatus is connected to the vehicle , wherein the tension element is arranged on the vehicle axle , - the standing element is raised from an initial position into a raised position relative to the holding device by means of a lifting actuator , wherein, in the raised position, a predetermined tensile force acts via the tension element on the vehicle in the direction of the standing element , - an acting axle load is detected by a force-detecting device , - a measurement value in relation to the vehicle axle is detected by means of at least one weighing sensor of the weighing apparatus , and - the acting axle load is assigned to the measurement value in a control unit of the weighing apparatus .
A method, comprising: acquiring a three-dimensional anatomical image of a patient face and identifying, by a processing device , multiple anatomical points corresponding to respective predefined locations on the patient face in a first coordinate system; assigning, by the processing device , at least one function to at least one predefined location on the patient face ; receiving, by the processing device , multiple positions in a second coordinate system at the respective predefined locations on the patient face from a registration tool comprising a position sensor; registering by the processing device the first and second coordinate systems, by correlating between the positions in the second coordinate system and the respective anatomical points on the patient face in the first coordinate system; triggering a command corresponding to the at least one assigned function by applying a tool equipped with a position sensor in the at least one predefined location on the patient face ; and communicating the command to an electronic device. acquiring a three-dimensional anatomical image of a patient face and identifying, by a processing device , multiple anatomical points corresponding to respective predefined locations on the patient face in a first coordinate system; assigning, by the processing device , at least one function to at least one predefined location on the patient face ; receiving, by the processing device , multiple positions in a second coordinate system at the respective predefined locations on the patient face from a registration tool comprising a position sensor; registering by the processing device the first and second coordinate systems, by correlating between the positions in the second coordinate system and the respective anatomical points on the patient face in the first coordinate system; triggering a command corresponding to the at least one assigned function by applying a tool equipped with a position sensor in the at least one predefined location on the patient face ; and communicating the command to an electronic device.
An automotive vacuum pump for pumping a gas, comprising a pump housing defining a pump cavity , a pump rotor body with at least one vane slit supporting a shiftable vane defining at least two rotating pumping chambers, the pump rotor body having an axial low-pressure end and an axial high-pressure end , the low-pressure end being axially supported by a closed housing wall , so that the gas pressure inside the rotating pumping chambers is present at the low-pressure end of the pump rotor body , the pump housing being fluidically open at the high-pressure end , so that atmospheric pressure is present at the high-pressure end of the pump rotor body , and a separate axial rotor retaining arrangement defined by a separate retaining sheet body arranged in a transversal plane and axially blocking at least partially the high-pressure end of the pump rotor body , characterized in that a radial friction bearing axially arranged between the at least one vane slit and the high-pressure end of the pump rotor body . a pump housing defining a pump cavity , a pump rotor body with at least one vane slit supporting a shiftable vane defining at least two rotating pumping chambers, the pump rotor body having an axial low-pressure end and an axial high-pressure end , the low-pressure end being axially supported by a closed housing wall , so that the gas pressure inside the rotating pumping chambers is present at the low-pressure end of the pump rotor body , the pump housing being fluidically open at the high-pressure end , so that atmospheric pressure is present at the high-pressure end of the pump rotor body , and a separate axial rotor retaining arrangement defined by a separate retaining sheet body arranged in a transversal plane and axially blocking at least partially the high-pressure end of the pump rotor body , characterized in that a radial friction bearing axially arranged between the at least one vane slit and the high-pressure end of the pump rotor body .
A device for contactless inductive energy transmission from a primary part to a secondary part , each having at least one coil which can be inductively coupled to one another via an air gap , wherein the primary part and the secondary part each have a data transmission unit for an optical transmission of data via the air gap , wherein the data transmission units each have at least one transmitting element and at least one receiving element , wherein the data transmission units each have a light-conducting element and wherein the light-conducting element is basically cylindrical in shape, characterized in that the light-conducting element has a first light entry or exit surface facing the transmitting or receiving elements and a second light entry or exit surface facing the air gap , wherein the first light entry and exit surface is planar and the second light entry and exit surface is concave in shape.
A computer-implemented method of monitoring an agricultural implement , comprising: Accessing a first spatial agricultural data set associated with a first agricultural operation; Accessing a second spatial agricultural data set associated with a second agricultural operation; Generating a first map overlay based on said first spatial agricultural data set; Generating a second map overlay based on said second spatial agricultural data set; Displaying a first map comprising said first map overlay; and Displaying a second map comprising said second map overlay on a common screen with said first map, wherein said second map is at least partly disjoined from said first map, and wherein said second map has a common view characteristic with said first map, and wherein said first spatial agricultural data set comprises planting data collected during a planting operation, and wherein said second spatial agricultural data set comprises yield data collected during a harvesting operation, wherein the method further is comprising: determining a direction of implement travel in a first area while said first spatial agricultural data set was generated; and displaying a directional annotation in said second map, said directional annotation indicating said direction of implement travel, and said directional annotation located within a portion of said second map corresponding to said first area. Accessing a first spatial agricultural data set associated with a first agricultural operation; Accessing a second spatial agricultural data set associated with a second agricultural operation; Generating a first map overlay based on said first spatial agricultural data set; Generating a second map overlay based on said second spatial agricultural data set; Displaying a first map comprising said first map overlay; and Displaying a second map comprising said second map overlay on a common screen with said first map, wherein said second map is at least partly disjoined from said first map, and wherein said second map has a common view characteristic with said first map, and wherein said first spatial agricultural data set comprises planting data collected during a planting operation, and wherein said second spatial agricultural data set comprises yield data collected during a harvesting operation, wherein the method further is comprising: determining a direction of implement travel in a first area while said first spatial agricultural data set was generated; and displaying a directional annotation in said second map, said directional annotation indicating said direction of implement travel, and said directional annotation located within a portion of said second map corresponding to said first area.
A method of managing a gas turbine engine operating line comprising the steps of: detecting an airspeed ; detecting a fan speed; referencing a parameter relationship related to a desired variable area fan nozzle position based upon at least airspeed and fan speed, and comparing the detected airspeed and detected fan speed to the parameter relationship to determine a target variable area fan nozzle position; and adjusting an actual variable area fan nozzle position in response to the determination of the target area fan nozzle position, wherein the referencing and comparing steps include providing a target variable area fan nozzle position for a range of air speeds based upon the fan speed, wherein the fan speed is not needed for air speeds outside of the range when determining the target variable area fan nozzle position. detecting an airspeed ; detecting a fan speed; referencing a parameter relationship related to a desired variable area fan nozzle position based upon at least airspeed and fan speed, and comparing the detected airspeed and detected fan speed to the parameter relationship to determine a target variable area fan nozzle position; and adjusting an actual variable area fan nozzle position in response to the determination of the target area fan nozzle position, wherein the referencing and comparing steps include providing a target variable area fan nozzle position for a range of air speeds based upon the fan speed, wherein the fan speed is not needed for air speeds outside of the range when determining the target variable area fan nozzle position.
A compound of formula (I) a N-oxide, a pharmaceutically acceptable salt or solvate thereof, wherein D represents deuterium.