mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel nozzle for gas turbine combustor , comprising: a diffusion combustion burner including a diffusion fuel nozzle for spraying a diffusion combustion fuel into a combustion chamber ; a premixing combustion burner including a premixing fuel nozzle for spraying a premixing fuel into a premixer ; an end flange to which the diffusion combustion burner and the premixing combustion burner are mechanically joined; and a diffusion combustion burner support which fixes the diffusion combustion burner to the end flange and is mounted around the premixing fuel nozzle in a manner to cover a root portion of the premixing fuel nozzle , the root portion being a junction between the premixing fuel nozzle and the end flange , an outside diameter of the premixing fuel nozzle longitudinally varies in a manner to progressively increase toward the junction, characterized in that a maximum diameter (D1) of the root portion of the premixing fuel nozzle is greater than an inside diameter (d1) of a hole formed in the diffusion combustion burner support , an outside diameter part of the premixing fuel nozzle includes the root portion which is the thickest, a step portion thinner than the root portion , and a distal end portion as thick as the step portion or thinner than the step portion , and a boundary region between the root portion and the step portion has an arc shape. a diffusion combustion burner including a diffusion fuel nozzle for spraying a diffusion combustion fuel into a combustion chamber ; a premixing combustion burner including a premixing fuel nozzle for spraying a premixing fuel into a premixer ; an end flange to which the diffusion combustion burner and the premixing combustion burner are mechanically joined; and a diffusion combustion burner support which fixes the diffusion combustion burner to the end flange and is mounted around the premixing fuel nozzle in a manner to cover a root portion of the premixing fuel nozzle , the root portion being a junction between the premixing fuel nozzle and the end flange , an outside diameter of the premixing fuel nozzle longitudinally varies in a manner to progressively increase toward the junction, characterized in that a maximum diameter (D1) of the root portion of the premixing fuel nozzle is greater than an inside diameter (d1) of a hole formed in the diffusion combustion burner support , an outside diameter part of the premixing fuel nozzle includes the root portion which is the thickest, a step portion thinner than the root portion , and a distal end portion as thick as the step portion or thinner than the step portion , and a boundary region between the root portion and the step portion has an arc shape.
A connecting device for interconnecting a windscreen wiper device of the flat blade type and an oscillating arm pivotally connectable to said connecting device about a pivot axis near one end thereof, wherein said windscreen wiper device comprises an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one groove , in which groove a longitudinal strip of the carrier element is disposed, whereby said connecting device is arranged to be connected to said longitudinal strip , wherein said connecting device comprises: - at least one hole of a first type arranged to allow a welding tool access through said hole of the first type to contact said longitudinal strip for welding said longitudinal strip and said connecting device together; and - at least one hole of a second type arranged to allow a pin access through said hole of the second type and through said longitudinal strip for interconnecting said longitudinal strip and said connecting device ; characterized in that : - said connecting device comprises two pairs of holes of the first type, wherein each pair comprises opposing holes of the first type, and wherein each pair is located near an end wall of said connecting device ; and - said connecting device comprises two pairs of holes of the second type, wherein each pair comprises opposing holes of the second type, and wherein each pair is located near an end wall of said connecting device . - at least one hole of a first type arranged to allow a welding tool access through said hole of the first type to contact said longitudinal strip for welding said longitudinal strip and said connecting device together; and - at least one hole of a second type arranged to allow a pin access through said hole of the second type and through said longitudinal strip for interconnecting said longitudinal strip and said connecting device ; characterized in that : - said connecting device comprises two pairs of holes of the first type, wherein each pair comprises opposing holes of the first type, and wherein each pair is located near an end wall of said connecting device ; and - said connecting device comprises two pairs of holes of the second type, wherein each pair comprises opposing holes of the second type, and wherein each pair is located near an end wall of said connecting device . - said connecting device comprises two pairs of holes of the first type, wherein each pair comprises opposing holes of the first type, and wherein each pair is located near an end wall of said connecting device ; and - said connecting device comprises two pairs of holes of the second type, wherein each pair comprises opposing holes of the second type, and wherein each pair is located near an end wall of said connecting device .
An antenna array calibration device , applied to an antenna array comprising a plurality of antennas , wherein the antenna array calibration device comprises: a processor , configured to analyze and calculate whether is a real number solution of a simultaneous equation of amplitudes and phases; and a controller , configured to adjust the antennas from having an initial phase to having a random phase, and adjust the antennas from having an initial amplitude to having a maximum amplitude; wherein the processor is configured to calculate a phase difference by subtracting one of the initial phase and the random phase from the other, calculate an amplitude difference by subtracting one of the initial amplitude and the maximum amplitude from the other, and introduce the phase difference, the amplitude difference and a power total of the antenna array into the simultaneous equation of amplitudes and phases; if there is a real number solution for the simultaneous equation of amplitudes and phases, the controller is configured to obtain initial amplitudes and initial phases of the antennas to calibrate the phase of the antenna array ; and if there is no real number solution for the simultaneous equation of amplitudes and phases, the controller is configured to adjust the antennas to having another random phase different from the random phase, and the processor is configured to recalculate the simultaneous equation of amplitudes and phases according to the another random phase in order to obtain a real number solution. a processor , configured to analyze and calculate whether is a real number solution of a simultaneous equation of amplitudes and phases; and a controller , configured to adjust the antennas from having an initial phase to having a random phase, and adjust the antennas from having an initial amplitude to having a maximum amplitude; wherein the processor is configured to calculate a phase difference by subtracting one of the initial phase and the random phase from the other, calculate an amplitude difference by subtracting one of the initial amplitude and the maximum amplitude from the other, and introduce the phase difference, the amplitude difference and a power total of the antenna array into the simultaneous equation of amplitudes and phases; if there is a real number solution for the simultaneous equation of amplitudes and phases, the controller is configured to obtain initial amplitudes and initial phases of the antennas to calibrate the phase of the antenna array ; and if there is no real number solution for the simultaneous equation of amplitudes and phases, the controller is configured to adjust the antennas to having another random phase different from the random phase, and the processor is configured to recalculate the simultaneous equation of amplitudes and phases according to the another random phase in order to obtain a real number solution.
A molecule comprising an antigen binding fragment that immunospecifically binds to BTN1A1, wherein said antigen binding fragment comprises: (a) a heavy chain variable (V H ) region comprising: a V H CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 7, 10, 13 and 16; a V H CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 8, 11, 14 and 17; and a V H CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 9, 12, 15 and 18; or (b) a light chain variable (V L ) region comprising: a V L CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 19, 22, 25 and 28; a V L CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 20, 23, 26 and 29; and a V L CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 21, 24, 27 and 30. (a) a heavy chain variable (V H ) region comprising: a V H CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 7, 10, 13 and 16; a V H CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 8, 11, 14 and 17; and a V H CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 9, 12, 15 and 18; or a V H CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 7, 10, 13 and 16; a V H CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 8, 11, 14 and 17; and a V H CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 9, 12, 15 and 18; or (b) a light chain variable (V L ) region comprising: a V L CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 19, 22, 25 and 28; a V L CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 20, 23, 26 and 29; and a V L CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 21, 24, 27 and 30. a V L CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 19, 22, 25 and 28; a V L CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 20, 23, 26 and 29; and a V L CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 21, 24, 27 and 30.
Method for measurement of hydrogen density, volumetric concentrations as well as longitudinal and/or transverse relaxation times of the individual components of a multi-component mixture consisting of n components by means of nuclear magnetic resonance, where at least the longitudinal or the transverse relaxation times of all n components in pairs are different to each other, comprising the steps of: a) the mixture is enclosed inside a probe volume and polarized by means of a magnetic field; b) the mixture enclosed inside the probe volume is measured in terms of its longitudinal or transverse relaxation behaviour by means of pulsed electromagnetic waves at least n times with a different volumetric share of its components such that at least n different relaxation curves are measured; c) from the relaxation curves the relaxation times are obtained; d) from the relaxation curves the thermal equilibrium magnetizations M 0 of the individual components are obtained; and e) the yielded thermal equilibrium magnetizations M 0 of the individual components are correlated such that the hydrogen densities and the volumetric share of the components for each relaxation curve are calculated. a) the mixture is enclosed inside a probe volume and polarized by means of a magnetic field; b) the mixture enclosed inside the probe volume is measured in terms of its longitudinal or transverse relaxation behaviour by means of pulsed electromagnetic waves at least n times with a different volumetric share of its components such that at least n different relaxation curves are measured; c) from the relaxation curves the relaxation times are obtained; d) from the relaxation curves the thermal equilibrium magnetizations M 0 of the individual components are obtained; and e) the yielded thermal equilibrium magnetizations M 0 of the individual components are correlated such that the hydrogen densities and the volumetric share of the components for each relaxation curve are calculated.
A wound dressing comprising (a) a bioresorbable sponge having a wound-facing surface and an opposite bottom surface, the sponge comprising oxidized regenerated cellulose (ORC) and collagen; and (b) a bioresorbable top sheet covering the wound-facing surface of the bioresorbable sponge, the top sheet comprising a polysaccharide polymer. (a) a bioresorbable sponge having a wound-facing surface and an opposite bottom surface, the sponge comprising oxidized regenerated cellulose (ORC) and collagen; and (b) a bioresorbable top sheet covering the wound-facing surface of the bioresorbable sponge, the top sheet comprising a polysaccharide polymer.
A resettable injection training device, comprising: - an outer housing comprising a proximal end and a distal end; - an inner housing comprising a proximal end and a distal end; - a safety shield moveable relative to the inner housing, the safety shield comprising a proximal end, a distal end, and having an extended pre-use position, an extended post-use position, and a retracted position; - a plunger having a proximal end and a distal end, the plunger moveable proximally and distally within the inner housing to simulate delivery of medicament; - a plunger subassembly comprising the plunger; and - a reset cap comprising a plunger interfacing portion and a safety shield interfacing portion for resetting the safety shield and the plunger. wherein said device further comprises - a lateral actuation member comprising a raised position and a depressed position; - a first signal output signaling actuation of the device; and - a second signal output signaling completion of an injection simulation. - an outer housing comprising a proximal end and a distal end; - an inner housing comprising a proximal end and a distal end; - a safety shield moveable relative to the inner housing, the safety shield comprising a proximal end, a distal end, and having an extended pre-use position, an extended post-use position, and a retracted position; - a plunger having a proximal end and a distal end, the plunger moveable proximally and distally within the inner housing to simulate delivery of medicament; - a plunger subassembly comprising the plunger; and - a reset cap comprising a plunger interfacing portion and a safety shield interfacing portion for resetting the safety shield and the plunger. wherein said device further comprises - a lateral actuation member comprising a raised position and a depressed position; - a first signal output signaling actuation of the device; and - a second signal output signaling completion of an injection simulation.
An assembly configured for being received in a radially extending bucket groove of a rotor disc , the assembly comprising: a blade having an elongate body of aerofoil cross-section, a root portion at one end of the elongate body and a tip at the other, the root portion configured to be retained in the bucket groove ; and a heat shield configured to be received between an end of the root portion and a radially inner surface of the bucket groove and to interlock with the root portion in a manner which deters separation in a radial direction and further including a cooling duct , extending from a front face and into the root portion and radially outwardly, via one or more cooling channels intersecting the duct, into the elongate body of the blade, a wall of the duct being defined partly by the root portion and partly by the heat shield , wherein a front face of the heat shield extends to form a cover which, in use, extends over a front face of the disc to cover gaps between the heat shield and the bucket groove at the front face of the disc. a blade having an elongate body of aerofoil cross-section, a root portion at one end of the elongate body and a tip at the other, the root portion configured to be retained in the bucket groove ; and a heat shield configured to be received between an end of the root portion and a radially inner surface of the bucket groove and to interlock with the root portion in a manner which deters separation in a radial direction and further including a cooling duct , extending from a front face and into the root portion and radially outwardly, via one or more cooling channels intersecting the duct, into the elongate body of the blade, a wall of the duct being defined partly by the root portion and partly by the heat shield , wherein a front face of the heat shield extends to form a cover which, in use, extends over a front face of the disc to cover gaps between the heat shield and the bucket groove at the front face of the disc.
A verification device , connected to a line of sight, LOS, multiple-input multiple-output, MIMO, system , for verification of the LOS MIMO system with respect to relative phase difference of propagation paths, wherein the LOS MIMO system comprises at least one transmitter unit connected to at least a first transmit antenna , the LOS MIMO system further comprising a first receive antenna connected to a first down-converter arranged to output a first down-converted signal to the verification device , and a second receive antenna connected to a second down-converter arranged to output a second down-converted signal to the verification device , said first and said second receive antennas being arranged to receive a first signal with reference symbols transmitted from the first transmit antenna , the verification device being arranged to: obtain a phase difference between the first signal as received in both the first and the second receive antennas by comparing the first down-converted signal and the second down-converted signal with the reference symbols; obtain a gain ratio between the first signal as received in both the first and the second receive antennas by comparing the first down-converted signal and the second down-converted signal with the reference symbols; compare the phase difference to a range of allowed values and compare the gain ratio to a range of allowed values; and indicate successful verification of the LOS MIMO system if the phase difference and the gain ratio are within the respective ranges of the allowed values, and to otherwise indicate failed verification of the LOS MIMO system . obtain a phase difference between the first signal as received in both the first and the second receive antennas by comparing the first down-converted signal and the second down-converted signal with the reference symbols; obtain a gain ratio between the first signal as received in both the first and the second receive antennas by comparing the first down-converted signal and the second down-converted signal with the reference symbols; compare the phase difference to a range of allowed values and compare the gain ratio to a range of allowed values; and indicate successful verification of the LOS MIMO system if the phase difference and the gain ratio are within the respective ranges of the allowed values, and to otherwise indicate failed verification of the LOS MIMO system .
A method of producing a handheld videogame controller using a circuit board of a predetermined fixed size, comprising a plurality of switches at predetermined positions, the method characterised by : obtaining measurements of at least a first hand of a user for whom the handheld videogame controller is to be produced; modifying, by a computer, a design of at least a first part of the handheld videogame controller responsive to the measurements; and 3D printing the or each modified part of the handheld videogame controller, wherein the step of modifying the design of at least a first part of the handheld videogame controller comprises repositioning a button that should mechanically couple to a switch on the circuit board, and the design is further modified to adapt the mechanical linkage between the repositioned button and the switch in order to maintain the mechanical coupling, wherein the mechanical coupling is maintained by repositioning a protrusion underneath the repositioned button, said protrusion serving as said mechanical linkage that maintains the relative position with the fixed switch beneath the repositioned button, or, if the button is repositioned such that the fixed switch no longer is beneath the button, by changing the protrusion to an L-shape that extends beyond the button such that a part of the protrusion maintains the relative position with the fixed switch. obtaining measurements of at least a first hand of a user for whom the handheld videogame controller is to be produced; modifying, by a computer, a design of at least a first part of the handheld videogame controller responsive to the measurements; and 3D printing the or each modified part of the handheld videogame controller, wherein the step of modifying the design of at least a first part of the handheld videogame controller comprises repositioning a button that should mechanically couple to a switch on the circuit board, and the design is further modified to adapt the mechanical linkage between the repositioned button and the switch in order to maintain the mechanical coupling, wherein the mechanical coupling is maintained by repositioning a protrusion underneath the repositioned button, said protrusion serving as said mechanical linkage that maintains the relative position with the fixed switch beneath the repositioned button, or, if the button is repositioned such that the fixed switch no longer is beneath the button, by changing the protrusion to an L-shape that extends beyond the button such that a part of the protrusion maintains the relative position with the fixed switch.