mhurhangee/patent-ind-claim-en huggingface dataset:
A work machine comprising: a lift arm with a work implement capable of loading a load; a hydraulic actuator configured to rotate the lift arm ; a hydraulic force detection unit configured to detect a hydraulic force of the hydraulic actuator ; an arm angle detection unit configured to detect a rotation angle of the lift arm ; and a controller configured to calculate a weight of the load, characterized in that : the controller is configured to measure a hydraulic force in a state where the rotation angle of the lift arm is within a predetermined measurement angle range, calculate a change rate of the hydraulic force with respect to the rotation angle of the lift arm as a hydraulic force change rate, and then calculate a new hydraulic force change rate by dividing the hydraulic force change rate by an average hydraulic force within the measurement angle range, and correct an error of the weight of the load occurring due to an inclination angle of a body on the basis of the new hydraulic force change rate. a lift arm with a work implement capable of loading a load; a hydraulic actuator configured to rotate the lift arm ; a hydraulic force detection unit configured to detect a hydraulic force of the hydraulic actuator ; an arm angle detection unit configured to detect a rotation angle of the lift arm ; and a controller configured to calculate a weight of the load, characterized in that : the controller is configured to measure a hydraulic force in a state where the rotation angle of the lift arm is within a predetermined measurement angle range, calculate a change rate of the hydraulic force with respect to the rotation angle of the lift arm as a hydraulic force change rate, and then calculate a new hydraulic force change rate by dividing the hydraulic force change rate by an average hydraulic force within the measurement angle range, and correct an error of the weight of the load occurring due to an inclination angle of a body on the basis of the new hydraulic force change rate. the controller is configured to measure a hydraulic force in a state where the rotation angle of the lift arm is within a predetermined measurement angle range, calculate a change rate of the hydraulic force with respect to the rotation angle of the lift arm as a hydraulic force change rate, and then calculate a new hydraulic force change rate by dividing the hydraulic force change rate by an average hydraulic force within the measurement angle range, and correct an error of the weight of the load occurring due to an inclination angle of a body on the basis of the new hydraulic force change rate.
A method for developing and extracting biological trace evidence, is characterized in that , the method comprises following steps: using a biological fluorescent development reagent to process a porous carrier so as to develop biological trace evidence on the porous carrier, wherein a raw material formulation of the biological fluorescent development reagent is, in percent by weight: 0.01% - 0.5% of indanedione, 4% - 10% of ethyl acetate, 0.5% - 1.5% of glycerol, 5% - 15.5% of pure alcohol, and 73.5% - 90% of petroleum ether; extracting the biological trace evidence to obtain DNA information of the biological trace evidence. using a biological fluorescent development reagent to process a porous carrier so as to develop biological trace evidence on the porous carrier, wherein a raw material formulation of the biological fluorescent development reagent is, in percent by weight: 0.01% - 0.5% of indanedione, 4% - 10% of ethyl acetate, 0.5% - 1.5% of glycerol, 5% - 15.5% of pure alcohol, and 73.5% - 90% of petroleum ether; extracting the biological trace evidence to obtain DNA information of the biological trace evidence.
A mobile device comprising a liquid crystal display module and a middle-frame structure comprising a side rim that constitutes the sides of the mobile device, the liquid crystal display module comprising: a display function component , locatable in a receiving space of the middle-frame structure of a mobile device; and a front glass structure adhered to the middle-frame structure , fixedly arranged directly upon the display function component ; wherein the front glass structure is sized such that the dimensions of the front glass structure are matched with the middle frame structure and such that edges of the front glass structure are directly adhered upon the top surface of the side rim of the middle-frame structure so that a cover glass structure of the mobile device is formed by the front glass structure . a display function component , locatable in a receiving space of the middle-frame structure of a mobile device; and a front glass structure adhered to the middle-frame structure , fixedly arranged directly upon the display function component ; wherein the front glass structure is sized such that the dimensions of the front glass structure are matched with the middle frame structure and such that edges of the front glass structure are directly adhered upon the top surface of the side rim of the middle-frame structure so that a cover glass structure of the mobile device is formed by the front glass structure .
A sensor for the contactless magnetic detection of a linear relative movement of a transducer magnet along a measurement path comprising at least two identical sensor elements (4, 4.1, 4.2), wherein each sensor element (4, 4.1, 4.2) detects at least one component of a magnetic field of the transducer magnet , wherein the sensor elements (4, 4.1, 4.2) are arranged at a spacing (A) along the measurement path ; wherein the sensor element (4, 4.1, 4.2) is shorter than the measurement path ; wherein a spacing (A) is smaller than the measurement path ; wherein the sensor elements (4, 4.1, 4.2) each generate a monotonic position signal (10, 10.1, 10.2) each having a value of a value range for a respective position along the measurement path of the transducer magnet , wherein the characteristics of the position signals (10, 10.1, 10.2) each have point symmetry; wherein an evaluation unit is provided, characterized in that the evaluation unit is configured to calculate a linearized position signal in accordance with the formula: Linearized position signal 14 = − 1 + position signal 10.1 of the first sensor element 4.1 / position signal 10.2 of the second sensor element 4.2 * spacing A / 2 when the absolute value of the position signal (10.1) of the first sensor element (4.1) is smaller than the absolute value of the position signal (10.2) of the second sensor element (4.2); or in accordance with the formula: Linearized position signal 14 = 1 + position signal 10.2 of the second sensor element 4.2 / position signal 10.1 of the first sensor element 4.2 * spacing A / 2 when the absolute value of the position signal (10.1) of the first sensor element (4.1) is larger than the absolute value of the position signal (10.2) of the second sensor element (4.2), so that a linearized position signal having a linearized value range is formed over the total measurement path .
A method for a user equipment, UE, to perform beam failure recovery in a wireless communication system, the method comprising: receiving a BWP inactivity timer from a base station, wherein the UE is configured to be switched from a first BWP to a second BWP when the BWP inactivity timer expires, the first BWP is an active BWP and the second BWP is a default BWP; determining that a beam failure recovery procedure is triggered on the first BWP; stopping the BWP inactivity timer in response to determining that the beam failure recovery procedure is triggered; finding a candidate beam on the first BWP; sending a beam failure recovery request via a Physical Uplink Control Channel, PUCCH, on the first BWP, or a contention-free Random Access Channel, RACH, and starting a beam failure recovery request timer; monitoring a response of the beam failure recovery request in a pre-configured CORESET of the PDCCH of the first BWP; stopping the beam failure recovery request timer in response to receiving the beam failure recovery response; starting a new BWP inactivity timer in response to receiving the beam failure recovery response on the first BWP; and switching to the second BWP once the inactivity timer expires. receiving a BWP inactivity timer from a base station, wherein the UE is configured to be switched from a first BWP to a second BWP when the BWP inactivity timer expires, the first BWP is an active BWP and the second BWP is a default BWP; determining that a beam failure recovery procedure is triggered on the first BWP; stopping the BWP inactivity timer in response to determining that the beam failure recovery procedure is triggered; finding a candidate beam on the first BWP; sending a beam failure recovery request via a Physical Uplink Control Channel, PUCCH, on the first BWP, or a contention-free Random Access Channel, RACH, and starting a beam failure recovery request timer; monitoring a response of the beam failure recovery request in a pre-configured CORESET of the PDCCH of the first BWP; stopping the beam failure recovery request timer in response to receiving the beam failure recovery response; starting a new BWP inactivity timer in response to receiving the beam failure recovery response on the first BWP; and switching to the second BWP once the inactivity timer expires.
An atherectomy catheter for use in a vessel comprising: an elongate catheter body ; an annular cutter; an s-shaped curved portion in the elongate catheter body; and a nosecone configured to pivot away from the elongate body to expose the cutter, characterized in that : (i) the curved portion includes a frame having a longitudinal proximal spine connecting a first annular spine to a second annular spine , and a longitudinal distal spine connecting the second annular spine to a third annular spine , the longitudinal proximal spine positioned approximately 180 degrees away from the longitudinal distal spine , (ii) the frame has space that is open on a side opposite the longitudinal proximal spine between the first annular spine and the second annular spine , and the frame has space that is open on a side opposite the longitudinal distal spine between the second annular spine and the third annular spine , (iii) the third annular spine is a distal-most spine and includes a beveled distal edge, and (iv) the bevel is configured to provide space for the nosecone to pivot. an elongate catheter body ; an annular cutter; an s-shaped curved portion in the elongate catheter body; and a nosecone configured to pivot away from the elongate body to expose the cutter, characterized in that : (i) the curved portion includes a frame having a longitudinal proximal spine connecting a first annular spine to a second annular spine , and a longitudinal distal spine connecting the second annular spine to a third annular spine , the longitudinal proximal spine positioned approximately 180 degrees away from the longitudinal distal spine , (ii) the frame has space that is open on a side opposite the longitudinal proximal spine between the first annular spine and the second annular spine , and the frame has space that is open on a side opposite the longitudinal distal spine between the second annular spine and the third annular spine , (iii) the third annular spine is a distal-most spine and includes a beveled distal edge, and (iv) the bevel is configured to provide space for the nosecone to pivot. (i) the curved portion includes a frame having a longitudinal proximal spine connecting a first annular spine to a second annular spine , and a longitudinal distal spine connecting the second annular spine to a third annular spine , the longitudinal proximal spine positioned approximately 180 degrees away from the longitudinal distal spine , (ii) the frame has space that is open on a side opposite the longitudinal proximal spine between the first annular spine and the second annular spine , and the frame has space that is open on a side opposite the longitudinal distal spine between the second annular spine and the third annular spine , (iii) the third annular spine is a distal-most spine and includes a beveled distal edge, and (iv) the bevel is configured to provide space for the nosecone to pivot.
An all solid battery , comprising: a cell stack comprising a negative electrode , a solid electrolyte layer , and a positive electrode ; a case accommodating the cell stack ; and a buffer material layer pressurizing the cell stack in the case , wherein the buffer material layer is a thermo-responsive polymer porous sheet, which volume is shrunken at a critical temperature or more and expanded when the temperature is reduced, wherein the buffer material layer is a thermo-responsive polymer having a critical temperature of 50 °C to 80 °C, and wherein the thermo-responsive polymer is selected from poly(N-ethylmethacrylamide), poly(propylene glycol), poly(N-cyclopropylacrylamide), or a combination thereof. a cell stack comprising a negative electrode , a solid electrolyte layer , and a positive electrode ; a case accommodating the cell stack ; and a buffer material layer pressurizing the cell stack in the case , wherein the buffer material layer is a thermo-responsive polymer porous sheet, which volume is shrunken at a critical temperature or more and expanded when the temperature is reduced, wherein the buffer material layer is a thermo-responsive polymer having a critical temperature of 50 °C to 80 °C, and wherein the thermo-responsive polymer is selected from poly(N-ethylmethacrylamide), poly(propylene glycol), poly(N-cyclopropylacrylamide), or a combination thereof.
A control device comprising: a control unit configured to control a position and an attitude of a microscope unit by driving an arm unit that supports the microscope unit on the basis of a captured image of an operating site captured by the microscope unit during a surgical operation so that a registered position and attitude condition is satisfied, wherein the registered position and attitude condition is a condition that prescribes a position and an attitude of the microscope unit with respect to the operating site to obtain a desired captured image, wherein the control unit is operable to update the registered position and attitude condition based on a manual modification of the position and attitude of the microscope unit by an operator, so that a modified image captured at a modified position and attitude is set as the desired captured image associated with the registered position and attitude condition; and the registered position and attitude condition includes an instruction regarding a magnification of the microscope unit. a control unit configured to control a position and an attitude of a microscope unit by driving an arm unit that supports the microscope unit on the basis of a captured image of an operating site captured by the microscope unit during a surgical operation so that a registered position and attitude condition is satisfied, wherein the registered position and attitude condition is a condition that prescribes a position and an attitude of the microscope unit with respect to the operating site to obtain a desired captured image, wherein the control unit is operable to update the registered position and attitude condition based on a manual modification of the position and attitude of the microscope unit by an operator, so that a modified image captured at a modified position and attitude is set as the desired captured image associated with the registered position and attitude condition; and the registered position and attitude condition includes an instruction regarding a magnification of the microscope unit.
A method for producing an image of a subject over an extended field-of-view (FOV) of a magnetic resonance imaging (MRI) system having a predefined FOV that is smaller than the extended FOV, the method comprising the steps of: a) determining a set of imaging stations at which to image said subject over the extended FOV; b) performing a prescan at the set of imaging stations using receiver coil elements to acquire a prescan data set; c) determining sensitivity profiles of the receiver coil elements at each of the set of imaging stations from the prescan data set; d) moving the subject to a first station in the set of imaging stations; e) performing a stationary, parallel imaging acquisition while the subject is at the first station to acquire a first set of NMR data from the subject; f) moving the subject toward a second station in the set of imaging stations; g) performing an intermediate imaging acquisition while the subject is being moved toward the second station in the set of imaging stations to acquire a second set of NMR data; h) repeating steps d) through g) for the second and any further imaging station of the set of imaging stations until NMR data has been acquired at all imaging stations of the set of imaging stations, thereby acquiring a series of NMR data from the subject at each station in the set of imaging stations; and i) reconstructing and processing the series NMR data using the sensitivity profiles determined at step c) to produce images of the subject over the extended FOV. a) determining a set of imaging stations at which to image said subject over the extended FOV; b) performing a prescan at the set of imaging stations using receiver coil elements to acquire a prescan data set; c) determining sensitivity profiles of the receiver coil elements at each of the set of imaging stations from the prescan data set; d) moving the subject to a first station in the set of imaging stations; e) performing a stationary, parallel imaging acquisition while the subject is at the first station to acquire a first set of NMR data from the subject; f) moving the subject toward a second station in the set of imaging stations; g) performing an intermediate imaging acquisition while the subject is being moved toward the second station in the set of imaging stations to acquire a second set of NMR data; h) repeating steps d) through g) for the second and any further imaging station of the set of imaging stations until NMR data has been acquired at all imaging stations of the set of imaging stations, thereby acquiring a series of NMR data from the subject at each station in the set of imaging stations; and i) reconstructing and processing the series NMR data using the sensitivity profiles determined at step c) to produce images of the subject over the extended FOV.
Polypropylene composition (C), the polypropylene composition (C) comprising (a) 40.0 to 80.0 wt.-%, based on the total weight of the composition, of a propylene copolymer (R-PP) having (a1) a comonomer content in the range of 1.5 to 8.0 wt.-%, and (a2) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 5.0 to 100.0 g/10 min, and (b) 20.0 to 40.0 wt.-%, based on the total weight of the composition, of a mineral filler (F) being selected from the group consisting of talcum, wollastonite, caolin and mica, wherein the polypropylene composition (C) has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 5.0 to 45.0 g/10 min. (a) 40.0 to 80.0 wt.-%, based on the total weight of the composition, of a propylene copolymer (R-PP) having (a1) a comonomer content in the range of 1.5 to 8.0 wt.-%, and (a2) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 5.0 to 100.0 g/10 min, and (a1) a comonomer content in the range of 1.5 to 8.0 wt.-%, and (a2) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 5.0 to 100.0 g/10 min, (b) 20.0 to 40.0 wt.-%, based on the total weight of the composition, of a mineral filler (F) being selected from the group consisting of talcum, wollastonite, caolin and mica,
A coating device comprising: a head comprising a nozzle surface ; an arm configured to hold the head ; and a controller configured to control movement of the head via the arm , wherein the controller is configured to vibrate the head in a second direction (Y), the second direction (Y) being along the nozzle surface and intersecting a first direction (X), and to optionally rotationally oscillate the head along the nozzle surface , while moving the head in the first direction (X) along a to-be-coated surface of a to-be-coated object when the nozzle surface faces the to-be-coated object , characterized in that the head simultaneously performs vibrations in the second direction (Y) having different periods in parallel with a movement in the first direction (X). a head comprising a nozzle surface ; an arm configured to hold the head ; and a controller configured to control movement of the head via the arm , wherein the controller is configured to vibrate the head in a second direction (Y), the second direction (Y) being along the nozzle surface and intersecting a first direction (X), and to optionally rotationally oscillate the head along the nozzle surface , while moving the head in the first direction (X) along a to-be-coated surface of a to-be-coated object when the nozzle surface faces the to-be-coated object , characterized in that the head simultaneously performs vibrations in the second direction (Y) having different periods in parallel with a movement in the first direction (X).
An information transmission method, comprising: receiving, by a terminal device, configuration information of a measured signal from a source cell, wherein the configuration information of the measured signal is determined by negotiation between the source cell and a target cell and is used for the terminal device to send the measured signal according to the configuration information of the measured signal, wherein the configuration information of the measured signal comprises information about a channel for sending the measured signal; sending , by the terminal device, the measured signal, wherein the measured signal is used for the target cell to determine identification information of a beam corresponding to at least one uplink transmission channel of the terminal device and resource information for transmission of the at least one uplink transmission channel; and receiving , by the terminal device, a notification message from the source cell, wherein the notification message comprises the identification information of the beam corresponding to the at least one uplink transmission channel of the terminal device and the resource information for transmission of the at least one uplink transmission channel, which are determined by the target cell. receiving, by a terminal device, configuration information of a measured signal from a source cell, wherein the configuration information of the measured signal is determined by negotiation between the source cell and a target cell and is used for the terminal device to send the measured signal according to the configuration information of the measured signal, wherein the configuration information of the measured signal comprises information about a channel for sending the measured signal; sending , by the terminal device, the measured signal, wherein the measured signal is used for the target cell to determine identification information of a beam corresponding to at least one uplink transmission channel of the terminal device and resource information for transmission of the at least one uplink transmission channel; and receiving , by the terminal device, a notification message from the source cell, wherein the notification message comprises the identification information of the beam corresponding to the at least one uplink transmission channel of the terminal device and the resource information for transmission of the at least one uplink transmission channel, which are determined by the target cell.