mhurhangee/ep-ind-claims huggingface dataset:
A method for determining whether a human individual has Sjögren's disease comprising i) determining in a biological sample from the individual the presence of antibodies directed to any one of the following, salivary gland protein 1 (SP-1), parotid secretory protein,or carbonic anhydrase 6, or determining the presence of a combination of said antibodies, and determining that the individual has SD based on the presence of the antibodies; or determining in a biological sample obtained from the individual the absence of detection of antibodies to PSP and SP-1 and determining based on the absence of detection of the antibodies that the individual does not have SD. i) determining in a biological sample from the individual the presence of antibodies directed to any one of the following, salivary gland protein 1 (SP-1), parotid secretory protein,or carbonic anhydrase 6, or determining the presence of a combination of said antibodies, and determining that the individual has SD based on the presence of the antibodies; or determining in a biological sample obtained from the individual the absence of detection of antibodies to PSP and SP-1 and determining based on the absence of detection of the antibodies that the individual does not have SD.
An X-ray inspection system with variable energy dose rate for screening vehicles, the system comprising: an X-ray source for generating an X-ray beam to create a scanning region, and at least one detector array to receive the x-ray beam signals transmitted through the vehicle being screened, characterized by further comprising: a collimator, wherein said collimator comprises an insert located within an opening defined by a first block and a second block, wherein said insert is rotatable to vary the delivered dose rate by modulating the intensity of X-ray beam to produce a low X-ray energy dose rate or a high X-ray energy dose rate depending upon a portion of the vehicle being screened, and wherein the insert is configured to vary the dose rate such that the portion of the vehicle carrying people receives the low energy dose rate when being screened, and a portion of the vehicle carrying cargo receives the high X-ray energy dose rate when being screened. an X-ray source for generating an X-ray beam to create a scanning region, and at least one detector array to receive the x-ray beam signals transmitted through the vehicle being screened, a collimator, wherein said collimator comprises an insert located within an opening defined by a first block and a second block, wherein said insert is rotatable to vary the delivered dose rate by modulating the intensity of X-ray beam to produce a low X-ray energy dose rate or a high X-ray energy dose rate depending upon a portion of the vehicle being screened, and wherein the insert is configured to vary the dose rate such that the portion of the vehicle carrying people receives the low energy dose rate when being screened, and a portion of the vehicle carrying cargo receives the high X-ray energy dose rate when being screened.
An IE type trench gate IGBT comprising: (a) a semiconductor substrate having first and second main surfaces (1a, 1b); (b) a drift area disposed in the semiconductor substrate and having a first conductive type; (c) a cell formation area disposed on the first main surface; (d) a plurality of linear unit cell areas disposed in the cell formation area and each having first and second linear unit cell areas (40f, 40s); (e) a metal gate electrode disposed on the first main surface; and (f) a metal emitter electrode disposed on the first main surface; the first linear unit cell areas each including: a linear active cell area disposed from the first main surface over an inner part of the drift area; first and second linear trench gate electrodes (14q, 14r) connected electrically to the metal gate electrode and disposed in first and second trenches (21q, 21r) in the first main surface, respectively, so as to hold the linear active cell area between the first and second linear trench gate electrodes (14q, 14r) from both sides; a body area disposed in a surface area on the side of the first main surface of the drift area and having a second conductive type opposite to the first conductive type; linear inactive cell areas disposed adjacently to both sides of the linear active cell area so as to hold the linear active cell area between the linear inactive cell areas from both sides while defining the first and second linear trench gate electrodes (14q, 14r) as boundaries; a floating area disposed in all surface areas on the side of the first main surface in the linear inactive cell areas deeper than the body area and having the same conductive type as that of the body area; and an emitter area of the first conductive type disposed in the surface area on the side of the first main surface of the body area; the second linear unit cell areas each including: a linear hole collector cell area disposed from the first main surface over the inner part of the drift area; third and fourth linear trench gate electrodes (14s, 14t) connected electrically to the metal emitter electrode and disposed in third and fourth trenches (21s, 21t) in the first main surface, respectively, so as to hold the linear hole collector cell area between the third and fourth linear trench gate electrodes (14s, 14t) from both sides; the body area disposed in the surface area on the side of the first main surface of the drift area; the linear inactive cell areas disposed adjacently to both sides of the linear hole collector cell area so as to hold the linear hole collector cell area between the third and fourth linear trench gate electrodes (14s, 14t) from both sides while defining the third and fourth linear trench gate electrodes (14s, 14t) as boundaries; and the floating area disposed in all surface areas on the side of the first main surface in the linear inactive cell area deeper than the body area and having the same conductive type as that of the body area.
An encapsulation module for encapsulating a transponder clip (100, 302) used for identifying and tracking a device, wherein the encapsulation module is adapted to be attached to the device, the encapsulation module comprising: a base receptacle (202, 303, 401) having a cavity for receiving the transponder clip (100, 302); a top caddy (201, 301) adapted to be adjustably fitted over the base receptacle (202, 303, 401) by employing a fitting mechanism; a pair of special leg fixtures (203, 304) and at least one support leg fixture (204, 305) coupled with the base receptacle (202, 303, 401); a pair of metallic strips (306, 402) embedded in the base receptacle (202, 303, 401), a wire harness fastened through a hole in each of the pair of special leg fixtures (203, 304) and at least one support leg fixture (204, 305) such that the wire harness electrically couples minimally exposed distal ends of the pair of metallic ships thereby activating the transpender clip, and wherein proximal ends of the pair of metallic strips (306, 402) are minimally exposed in the cavity of the base receptacle (202, 303, 401) and adapted to be electrically coupled with a pair of antenna traces of the transponder clip (100, 302), each metallic strip extending through a special leg fixture (203, 304) of the pair of special leg fixtures (203, 304), the pair of special leg fixtures (203, 304) and the at least one support leg fixture (204, 305) electrically coupled to each other by the wire harness fastened through the hole in each of the pair of special leg fixtures (203, 304) and at least one support leg fixture (204, 305). a base receptacle (202, 303, 401) having a cavity for receiving the transponder clip (100, 302); a top caddy (201, 301) adapted to be adjustably fitted over the base receptacle (202, 303, 401) by employing a fitting mechanism; a pair of special leg fixtures (203, 304) and at least one support leg fixture (204, 305) coupled with the base receptacle (202, 303, 401); a pair of metallic strips (306, 402) embedded in the base receptacle (202, 303, 401), a wire harness fastened through a hole in each of the pair of special leg fixtures (203, 304) and at least one support leg fixture (204, 305) such that the wire harness electrically couples minimally exposed distal ends of the pair of metallic ships thereby activating the transpender clip, and wherein proximal ends of the pair of metallic strips (306, 402) are minimally exposed in the cavity of the base receptacle (202, 303, 401) and adapted to be electrically coupled with a pair of antenna traces of the transponder clip (100, 302), each metallic strip extending through a special leg fixture (203, 304) of the pair of special leg fixtures (203, 304), the pair of special leg fixtures (203, 304) and the at least one support leg fixture (204, 305) electrically coupled to each other by the wire harness fastened through the hole in each of the pair of special leg fixtures (203, 304) and at least one support leg fixture (204, 305).
A firearm, comprising a stock bearing a system and a barrel associated with this system, characterized in that the stock is preformed in a defined manner and forms bearing areas for the system and the barrel associated with this system, wherein a clearance between the stock and the system and/or the barrel is avoided in that gaps in the form of channels and/or recesses around elevations are provided between the stock and the system and/or at least partially around the barrel associated with this system and/or at least partially around the bearing areas, which are filled with a clearance-free fitting material filling the gaps. the stock is preformed in a defined manner and forms bearing areas for the system and the barrel associated with this system, wherein a clearance between the stock and the system and/or the barrel is avoided in that gaps in the form of channels and/or recesses around elevations are provided between the stock and the system and/or at least partially around the barrel associated with this system and/or at least partially around the bearing areas, which are filled with a clearance-free fitting material filling the gaps.
A current measurement device: for measuring a current flowing through a conductor to be measured, the current measurement device comprising: a first sensor configured to detect a direct current magnetic field and a low-frequency alternating current magnetic field generated due to the current flowing through the conductor to be measured; a second sensor configured to detect alternating current magnetic fields from a low frequency to a high frequency generated due to the current flowing through the conductor to be measured; a first calculator configured to calculate the current flowing through the conductor to be measured from a detection result of the first sensor using distance information indicating a distance between the first sensor and the conductor to be measured; a second calculator configured to calculate the current flowing through the conductor to be measured from a detection result of the second sensor; and a synthesizer configured to synthesize a calculation result of the first calculator with a calculation result of the second calculator. a first sensor configured to detect a direct current magnetic field and a low-frequency alternating current magnetic field generated due to the current flowing through the conductor to be measured; a second sensor configured to detect alternating current magnetic fields from a low frequency to a high frequency generated due to the current flowing through the conductor to be measured; a first calculator configured to calculate the current flowing through the conductor to be measured from a detection result of the first sensor using distance information indicating a distance between the first sensor and the conductor to be measured; a second calculator configured to calculate the current flowing through the conductor to be measured from a detection result of the second sensor; and a synthesizer configured to synthesize a calculation result of the first calculator with a calculation result of the second calculator.
A method in an apparatus capable of near field communications, the method comprising detecting by the apparatus capable of near field communications a radio frequency field; and in response to the detection of the radio frequency field, passing control of establishment of a near field connection to a secure module hosted by the apparatus by activating the secure module; characterized in that the method comprises listening, by a control unit of the apparatus, to data exchange between the secure module and an external device relating to the near field connection establishment; then identifying, by the control unit, an indication of a connection attempt addressed to a functionality of said apparatus in said data exchange relating to the near field connection establishment; then intercepting, by the control unit, the near field connection establishment in the secure module in response to the identified indication of the connection attempt being addressed to the functionality of said apparatus; and then continuing the near field connection establishment under control of the control unit.
A method for wireless positioning, wherein the method is performed by an access point, AP, and comprises: broadcasting a message that identifies a set of stations (115, 115a) for ranging and a schedule of transmissions for the set of stations (115, 115a); receiving a transmission from a plurality of the stations (115, 115a) transmitted according to the identified schedule; and determining a range for at least one of the stations (115, 115a) based at least on a time at which the respective transmission is received. broadcasting a message that identifies a set of stations (115, 115a) for ranging and a schedule of transmissions for the set of stations (115, 115a); receiving a transmission from a plurality of the stations (115, 115a) transmitted according to the identified schedule; and determining a range for at least one of the stations (115, 115a) based at least on a time at which the respective transmission is received.
A power unit having a cam chain tensioner pivot mechanism, the power unit comprising: a crankcase; a cylinder body including a cylinder, and disposed in contact with the crankcase; a crankshaft rotatably supported by the crankcase; a plurality of stud bolts configured to fix the crankcase and the cylinder body to each other; a cam chain driving sprocket disposed at one end portion of the crankshaft; a cam chain wound around the cam chain driving sprocket, the cam chain transmitting power to a valve gear; a cam chain tensioner mechanism including a cam chain tensioner guide providing a tension to the cam chain; and a cam chain tensioner pivot mechanism configured to swingably support the cam chain tensioner guide by a pivot plate fixed to the crankcase by a fixing shaft and a swinging shaft inserted through the cam chain tensioner guide; the fixing shaft and the swinging shaft extend in an axial direction of the crankshaft and, as viewed in an axial direction of the crankshaft, are arranged orthogonally to an axis of at least one stud bolt of the plurality of stud bolts, characterized in that the cam chain tensioner pivot mechanism is disposed nearer to the valve gear than the crankshaft in a direction of a cylinder axis of the cylinder, the crankcase is provided with a rib extending from a side of the cylinder body, and the rib has a boss portion to which the fixing shaft is fixed. a crankcase; a cylinder body including a cylinder, and disposed in contact with the crankcase; a crankshaft rotatably supported by the crankcase; a plurality of stud bolts configured to fix the crankcase and the cylinder body to each other; a cam chain driving sprocket disposed at one end portion of the crankshaft; a cam chain wound around the cam chain driving sprocket, the cam chain transmitting power to a valve gear; a cam chain tensioner mechanism including a cam chain tensioner guide providing a tension to the cam chain; and a cam chain tensioner pivot mechanism configured to swingably support the cam chain tensioner guide by a pivot plate fixed to the crankcase by a fixing shaft and a swinging shaft inserted through the cam chain tensioner guide; the fixing shaft and the swinging shaft extend in an axial direction of the crankshaft and, as viewed in an axial direction of the crankshaft, are arranged orthogonally to an axis of at least one stud bolt of the plurality of stud bolts, characterized in that the cam chain tensioner pivot mechanism is disposed nearer to the valve gear than the crankshaft in a direction of a cylinder axis of the cylinder, the crankcase is provided with a rib extending from a side of the cylinder body, and the rib has a boss portion to which the fixing shaft is fixed.
A method for allocating resources to uplink signal at a terminal in a Multiple-Input Multiple-Output, MIMO, wireless communication system, the method comprising: writing interleaver input vector sequences into entries of an interleaver matrix row by row; generating output bit sequences by reading out the entries of the interleaver matrix column by column; generating complexed valued modulation symbols by modulating the output bit sequences according to a modulation order Q; allocating the complexed valued modulation symbols to multiple layers sequentially; wherein a number of rows of each of the entries is defined by L ⁢ ⋅ log 2 Q where L is a number of the multiple layers. writing interleaver input vector sequences into entries of an interleaver matrix row by row; generating output bit sequences by reading out the entries of the interleaver matrix column by column; generating complexed valued modulation symbols by modulating the output bit sequences according to a modulation order Q; allocating the complexed valued modulation symbols to multiple layers sequentially; wherein a number of rows of each of the entries is defined by L ⁢ ⋅ log 2 Q where L is a number of the multiple layers.
A method of constructing an image of a sample from MRI data, the method comprising: i) selectively acquiring one or more sets of MRI data generated from driving signals created under a specific set of operation parameters, wherein each of the driving signals comprises a RF pulse, to which the specific set of operation parameters controls any one or more flip angle and phase of the RF pulse; and a gradient pulse along a phase encoding axis, to which the specific set of operation parameters controls its gradient amplitude, and wherein the specific set of operation parameters are tuned based on a variation of one or more of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse by keeping one or more of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse constant from one measurement cycle to a subsequent measurement cycle when acquiring each set of the one or more sets of MRI data, and varying the remainder of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse in the subsequent measurement cycle; ii) deriving a matrix representative of the driving signals used to acquire the one or more sets of MRI data, wherein the matrix changes in response to the tuning of the specific set of operation parameters; iii) processing the selectively acquired MRI data with the matrix to obtain output data; and iv) synthesising the output data to construct the image of the sample, wherein the selectively acquiring the one or more sets of the MRI data step comprises employing an overlapping technique or both an overlapping and an under-sampling technique. i) selectively acquiring one or more sets of MRI data generated from driving signals created under a specific set of operation parameters, wherein each of the driving signals comprises a RF pulse, to which the specific set of operation parameters controls any one or more flip angle and phase of the RF pulse; and a gradient pulse along a phase encoding axis, to which the specific set of operation parameters controls its gradient amplitude, and wherein the specific set of operation parameters are tuned based on a variation of one or more of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse by keeping one or more of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse constant from one measurement cycle to a subsequent measurement cycle when acquiring each set of the one or more sets of MRI data, and varying the remainder of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse in the subsequent measurement cycle; ii) deriving a matrix representative of the driving signals used to acquire the one or more sets of MRI data, wherein the matrix changes in response to the tuning of the specific set of operation parameters; iii) processing the selectively acquired MRI data with the matrix to obtain output data; and iv) synthesising the output data to construct the image of the sample,
A cold shrink assembly, comprising: a first member having a tapered shape, wherein a first end of the first member includes at least a first opening or first notch; a second member having a tapered shape, wherein a first end of the second member includes at least a second opening or second notch; a shrink fit joint disposed over a portion of the first and second members; and characterized by: a band configured to: secure the first and second members (110, 120) in a predetermined position, wherein the band forms a loop that extends through the at least first opening or first notch, extends along a first portion of an outer surface of the cold shrink assembly, extends through the at least second opening or second notch, and loops back to the at least first opening or first notch along a second portion of the outer surface of the cold shrink assembly. a first member having a tapered shape, wherein a first end of the first member includes at least a first opening or first notch; a second member having a tapered shape, wherein a first end of the second member includes at least a second opening or second notch; a shrink fit joint disposed over a portion of the first and second members; a band configured to: secure the first and second members (110, 120) in a predetermined position, wherein the band forms a loop that extends through the at least first opening or first notch, extends along a first portion of an outer surface of the cold shrink assembly, extends through the at least second opening or second notch, and loops back to the at least first opening or first notch along a second portion of the outer surface of the cold shrink assembly. secure the first and second members (110, 120) in a predetermined position, wherein the band forms a loop that extends through the at least first opening or first notch, extends along a first portion of an outer surface of the cold shrink assembly, extends through the at least second opening or second notch, and loops back to the at least first opening or first notch along a second portion of the outer surface of the cold shrink assembly.