mhurhangee/patent-ind-claim-en huggingface dataset:
A method for correcting remote sensor data of an agricultural field, the method comprising the following steps: receiving remote sensor data (DR) for the agricultural field from a remote sensor, wherein the remote sensor data (DR) comprises at least one remote measurement value corresponding to at least one location that is measured by the remote sensor at at least one point in time in the past of obtaining the remote measurement value; receiving local sensor data (DL) for the agricultural field from at least one local sensor, wherein the local sensor data (DL) comprises at least one local measurement value corresponding to at least one location of the at least one local sensor and corresponding to at least one point in time of obtaining the local measurement value correlating to the location and point of time in the past of obtaining the remote measurement value; determining a correction model based on the previously received local sensor data (DL) and the previously received remote sensor data (DR); and determining corrected current remote sensor data (DRP, DRPR) by applying the correction model to current remote sensor data. receiving remote sensor data (DR) for the agricultural field from a remote sensor, wherein the remote sensor data (DR) comprises at least one remote measurement value corresponding to at least one location that is measured by the remote sensor at at least one point in time in the past of obtaining the remote measurement value; receiving local sensor data (DL) for the agricultural field from at least one local sensor, wherein the local sensor data (DL) comprises at least one local measurement value corresponding to at least one location of the at least one local sensor and corresponding to at least one point in time of obtaining the local measurement value correlating to the location and point of time in the past of obtaining the remote measurement value; determining a correction model based on the previously received local sensor data (DL) and the previously received remote sensor data (DR); and determining corrected current remote sensor data (DRP, DRPR) by applying the correction model to current remote sensor data.
A laser tip attachable to a laser radiation opening provided at a tip end of a laser transmission tube , wherein laser light is directed from the laser radiation opening , the laser tip comprising: a mounting portion detachable from the laser radiation opening ; a contact portion contactable with a biological tissue, the contact portion being provided to the front of the mounting portion in a direction in which the laser light is directed from the laser radiation opening , with an open space (S) being provided between the contact portion and the mounting portion ; and a coupler that couples the contact portion and the mounting portion to each other; wherein the contact portion has a reflective portion provided at a rear end thereof, which reflective portion is configured to reflect the laser light , directed forward from the laser radiation opening , toward the coupler ; characterized in that the reflective portion has a reflective surface that forms an acute angle with respect to the coupler . a mounting portion detachable from the laser radiation opening ; a contact portion contactable with a biological tissue, the contact portion being provided to the front of the mounting portion in a direction in which the laser light is directed from the laser radiation opening , with an open space (S) being provided between the contact portion and the mounting portion ; and a coupler that couples the contact portion and the mounting portion to each other; wherein the contact portion has a reflective portion provided at a rear end thereof, which reflective portion is configured to reflect the laser light , directed forward from the laser radiation opening , toward the coupler ; characterized in that the reflective portion has a reflective surface that forms an acute angle with respect to the coupler .
A cathode, characterized in that , the cathode comprising: a cathode current collector; and a cathode active material layer disposed on a surface of the cathode current collector, wherein the cathode active material layer comprises a first particle and a second particle, the first particle comprising a first secondary particle composed of a third particle, the third particle being a first primary particle, the first particle having an average particle size of 5 μm to 20 μm, the third particle having an average particle size of 200 nm to 700 nm, the second particle comprising a fourth particle and/or a second secondary particle composed of the fourth particle, the fourth particle being a second primary particle, the second particle having an average particle size of 3 μm to 5 μm, the fourth particle having an average particle size of 800 nm to 5 μm, the average particle sizes being measured using a Malvern particle size tester after 30 minutes of sonication of a dispersed material to be tested and corresponding to a particle size with which the volume cumulative frequency from the smaller diameter side reaches 50% in the volume-based particle size distribution, wherein a region containing the first particle is closer to the cathode current collector than the region containing the second particle. a cathode current collector; and a cathode active material layer disposed on a surface of the cathode current collector, wherein the cathode active material layer comprises a first particle and a second particle, the first particle comprising a first secondary particle composed of a third particle, the third particle being a first primary particle, the first particle having an average particle size of 5 μm to 20 μm, the third particle having an average particle size of 200 nm to 700 nm, the second particle comprising a fourth particle and/or a second secondary particle composed of the fourth particle, the fourth particle being a second primary particle, the second particle having an average particle size of 3 μm to 5 μm, the fourth particle having an average particle size of 800 nm to 5 μm, the average particle sizes being measured using a Malvern particle size tester after 30 minutes of sonication of a dispersed material to be tested and corresponding to a particle size with which the volume cumulative frequency from the smaller diameter side reaches 50% in the volume-based particle size distribution, wherein a region containing the first particle is closer to the cathode current collector than the region containing the second particle.
An in situ vaccine for use in the treatment of cancer, the in situ vaccine comprising a therapeutically effective amount of empty cowpea mosaic viruses that is administered intratumorally to cancer in a subject, wherein the empty cowpea mosaic viruses are devoid of an antigen or drug.
A method for producing a composition, comprising the steps of: dry milling a solid biologically active material and a millable grinding matrix in a mill comprising a plurality of milling bodies, for a time period sufficient to produce particles of the biologically active material dispersed in an at least partially milled grinding matrix, wherein the biologically active material is metaxalone, and wherein the particles have a median particle size, determined on a particle volume basis and by laser diffraction, equal to or less than 500 nm.
A phase-locked loop, PLL, circuit , comprising: a sampling phase detector configured to receive a reference clock (ref_clk) and a feedback clock (fb_clk) and configured to supply a differential first control current (IsamP, IsamN) and a pulse signal (pul), the sampling phase detector comprising a sampler configured to sample the feedback clock using the reference clock to generate a differential control voltage (VsamP, VsamN), a transconductance circuit configured to convert the differential control voltage into the differential first control current, and a pulser circuit configured to generate the pulse signal in response to the reference clock, wherein a jitter performance of the phase-locked loop circuit is configured to be improved by increasing a gain of the sampling phase detector by varying at least one of: a slew rate of the feedback clock (fb_clk); a pulse width of the pulse signal (pul); and a gain of the transconductance circuit ; a charge pump configured to generate a second control current (Icp) based on the differential first control current and the pulse signal; a loop filter configured to filter the second control current and generate an oscillator control voltage (Vctrl); and a voltage controlled oscillator, VCO , configured to generate an output clock (out_clk) based on the oscillator control voltage; and the PLL circuit further comprises a frequency divider configured to generate the feedback clock (fb_clk) from the output clock. a sampling phase detector configured to receive a reference clock (ref_clk) and a feedback clock (fb_clk) and configured to supply a differential first control current (IsamP, IsamN) and a pulse signal (pul), the sampling phase detector comprising a sampler configured to sample the feedback clock using the reference clock to generate a differential control voltage (VsamP, VsamN), a transconductance circuit configured to convert the differential control voltage into the differential first control current, and a pulser circuit configured to generate the pulse signal in response to the reference clock, wherein a jitter performance of the phase-locked loop circuit is configured to be improved by increasing a gain of the sampling phase detector by varying at least one of: a slew rate of the feedback clock (fb_clk); a pulse width of the pulse signal (pul); and a gain of the transconductance circuit ; a charge pump configured to generate a second control current (Icp) based on the differential first control current and the pulse signal; a loop filter configured to filter the second control current and generate an oscillator control voltage (Vctrl); and a voltage controlled oscillator, VCO , configured to generate an output clock (out_clk) based on the oscillator control voltage; and the PLL circuit further comprises a frequency divider configured to generate the feedback clock (fb_clk) from the output clock.
A process for the preparation of boscalid anhydrate form I, the process comprising: (a) dissolving boscalid in a halogenated hydrocarbon solvent, at or above room temperature; (b) simultaneously cooling the solution to a temperature between about 20°C to about 50° C and stirring the solution at a speed of 400-700 rpm in a time period of 15 minutes to 2 hours until crystal formation is observed; and (c) effecting crystallization by sudden cooling in a time period of 15 minutes to 2 hours to provide a solid crystalline product from the stirred solution, wherein the solution is rapidly cooled to a temperature between -10°C to 5°C to effect the crystallization; wherein said boscalid is a mixture of boscalid anhydrate form I and boscalid anhydrate form II or boscalid anhydrate form II. (a) dissolving boscalid in a halogenated hydrocarbon solvent, at or above room temperature; (b) simultaneously cooling the solution to a temperature between about 20°C to about 50° C and stirring the solution at a speed of 400-700 rpm in a time period of 15 minutes to 2 hours until crystal formation is observed; and (c) effecting crystallization by sudden cooling in a time period of 15 minutes to 2 hours to provide a solid crystalline product from the stirred solution, wherein the solution is rapidly cooled to a temperature between -10°C to 5°C to effect the crystallization;
A chassis comprising: a housing comprising a front portion and a rear portion connected by a base portion , the base portion comprising a plurality of hard disk drives arranged in a plurality of rows along a leading edge of the base portion in a direction from the front portion to the rear portion ; and a fan module configured to pass air from the front portion of the housing to the rear portion of the housing, wherein the chassis is characterized in that in the plurality of hard disk drives a first group of the hard disk drives are inclined relative to the leading edge of the base portion such that at least one triangular air gap is formed between two respective edges of two immediately-adjacent hard disk drives of the first group of the hard disk drives and the base portion . a housing comprising a front portion and a rear portion connected by a base portion , the base portion comprising a plurality of hard disk drives arranged in a plurality of rows along a leading edge of the base portion in a direction from the front portion to the rear portion ; and a fan module configured to pass air from the front portion of the housing to the rear portion of the housing, wherein the chassis is characterized in that in the plurality of hard disk drives a first group of the hard disk drives are inclined relative to the leading edge of the base portion such that at least one triangular air gap is formed between two respective edges of two immediately-adjacent hard disk drives of the first group of the hard disk drives and the base portion .
An orthopaedic device for securing between first and second regions of bone separated by a growth plate, the orthopaedic device comprising: a first portion comprising at least two fixing points to secure to a first fixing location on the first bone region in a first configuration and a base configured to extend from the fixing points, the base including a securing point ; a second portion comprising a single fixing point to secure to a second fixing location on the second bone region; the first and second portions pivotally coupled to each other around the securing point of the first portion; the first portion when secured to the first fixing location and the second portion when secured to the second fixing location being offset relative to each other and to a longitudinal axis of the bone; wherein movement of the first and second portions away from each other in a direction parallel to the longitudinal axis of the bone as it grows causes relative rotation of the first and second bone regions, wherein the at least two fixing points of the first portion hold the first portion in said first configuration during growth of the bone. a first portion comprising at least two fixing points to secure to a first fixing location on the first bone region in a first configuration and a base configured to extend from the fixing points, the base including a securing point ; a second portion comprising a single fixing point to secure to a second fixing location on the second bone region; the first and second portions pivotally coupled to each other around the securing point of the first portion; the first portion when secured to the first fixing location and the second portion when secured to the second fixing location being offset relative to each other and to a longitudinal axis of the bone; wherein movement of the first and second portions away from each other in a direction parallel to the longitudinal axis of the bone as it grows causes relative rotation of the first and second bone regions, wherein the at least two fixing points of the first portion hold the first portion in said first configuration during growth of the bone.
A frame of a curved surgical stapler comprising: (a) an end effector frame ; (b) a shaft frame extending proximally from the end effector frame, wherein the shaft frame includes: (i) a first portion that includes a first curvilinear portion and a first alignment feature (246a-b); (ii) a second portion that includes a second curvilinear portion and a second alignment feature (256a-b); and (c) a fastener (228a-b) configured to couple the first and second alignment features of the first and second portions together, characterized in that the end effector frame includes a distal anvil support portion and an insert configured to receive a staple cartridge, wherein the distal anvil support portion includes a third alignment feature , wherein the insert includes first and second insert alignment features (262a-c), wherein the fastener is configured to couple first and second alignment features of first and second portions with the first insert alignment feature (262a-b) of the insert, the frame further comprising a second fastener configured to couple the third alignment feature of distal anvil support portion with the 2. second insert alignment feature of the insert. (a) an end effector frame ; (b) a shaft frame extending proximally from the end effector frame, wherein the shaft frame includes: (i) a first portion that includes a first curvilinear portion and a first alignment feature (246a-b); (ii) a second portion that includes a second curvilinear portion and a second alignment feature (256a-b); and (i) a first portion that includes a first curvilinear portion and a first alignment feature (246a-b); (ii) a second portion that includes a second curvilinear portion and a second alignment feature (256a-b); and (c) a fastener (228a-b) configured to couple the first and second alignment features of the first and second portions together, characterized in that
A remote control device that is configured for use in a load control system, the remote control device comprising: a mounting structure configured to be mounted over a toggle actuator of a mechanical switch that controls whether power is delivered to an electrical load of the load control system; and a control unit comprising a user interface , an orientation sensing circuit , and a communication circuit , the control unit configured to be attached to the mounting structure in a plurality of orientations, the control unit configured to: determine an orientation of the control unit relative to the mounting structure via the orientation sensing circuit; translate a user input from the user interface into control data based on the orientation of the control unit, the control data configured to control the electrical load; and cause the communication circuit to transmit a control signal comprising the control data. a mounting structure configured to be mounted over a toggle actuator of a mechanical switch that controls whether power is delivered to an electrical load of the load control system; and a control unit comprising a user interface , an orientation sensing circuit , and a communication circuit , the control unit configured to be attached to the mounting structure in a plurality of orientations, the control unit configured to: determine an orientation of the control unit relative to the mounting structure via the orientation sensing circuit; translate a user input from the user interface into control data based on the orientation of the control unit, the control data configured to control the electrical load; and cause the communication circuit to transmit a control signal comprising the control data. determine an orientation of the control unit relative to the mounting structure via the orientation sensing circuit; translate a user input from the user interface into control data based on the orientation of the control unit, the control data configured to control the electrical load; and cause the communication circuit to transmit a control signal comprising the control data.
A communication apparatus comprising a control unit configured for setting of scanning for resetting (S104, S143) communication with an apparatus , the communication being performed by using a directional beam, the scanning including recovery beam sweeping using a plurality of beam groups executed by the communication apparatus , each group of the plurality of beam groups including a plurality of directional beams used for the recovery beam sweeping, the recovery beam sweeping being executed in order of beam groups having a smaller number of the directional beams, at first using the beam group having the smallest number of beams, wherein the control unit is further configured to perform allocation (S104, S141) of resources for the recovery beam sweeping at one time before executing recovery beam sweeping; and wherein the control unit is further configured to, if a report (S107, S109, S145, S147) from the apparatus causes an appropriate directional beam to be found in a certain beam group, not to perform scanning in another beam group. a control unit configured for setting of scanning for resetting (S104, S143) communication with an apparatus , the communication being performed by using a directional beam, the scanning including recovery beam sweeping using a plurality of beam groups executed by the communication apparatus , each group of the plurality of beam groups including a plurality of directional beams used for the recovery beam sweeping, the recovery beam sweeping being executed in order of beam groups having a smaller number of the directional beams, at first using the beam group having the smallest number of beams, wherein the control unit is further configured to perform allocation (S104, S141) of resources for the recovery beam sweeping at one time before executing recovery beam sweeping; and wherein the control unit is further configured to, if a report (S107, S109, S145, S147) from the apparatus causes an appropriate directional beam to be found in a certain beam group, not to perform scanning in another beam group.
An electro-hydrostatic actuator system having at least two movable axes, comprising: a volumetric and/or rotational speed variable hydraulic machine driven by an electric motor comprising two terminals with two connection lines for providing a volume flow of a hydraulic fluid; a main axis that is movable by the hydraulic fluid and has at least one first chamber , wherein the first chamber is hydraulically connected to at least one first main hydraulic line and a first main valve via a first connecting line to a first connection of the hydraulic machine ; a secondary axis that is movable by the hydraulic fluid with at least one first chamber , wherein the first chamber is hydraulically connected to at least one first secondary hydraulic line and a first secondary valve via a second connecting line to a second connection of the hydraulic machine , or via the first connecting line to the first connection of the hydraulic machine ; and wherein a hydraulic accumulator is hydraulically connected to the first secondary hydraulic line in the region between the first chamber of the secondary axis and the first secondary valve , characterized in that the main axis has at least one second chamber , wherein the second chamber is hydraulically connected to at least one second main hydraulic line , and a second main valve is hydraulically connected to the second connection of the hydraulic machine via the second connecting line . a volumetric and/or rotational speed variable hydraulic machine driven by an electric motor comprising two terminals with two connection lines for providing a volume flow of a hydraulic fluid; a main axis that is movable by the hydraulic fluid and has at least one first chamber , wherein the first chamber is hydraulically connected to at least one first main hydraulic line and a first main valve via a first connecting line to a first connection of the hydraulic machine ; a secondary axis that is movable by the hydraulic fluid with at least one first chamber , wherein the first chamber is hydraulically connected to at least one first secondary hydraulic line and a first secondary valve via a second connecting line to a second connection of the hydraulic machine , or via the first connecting line to the first connection of the hydraulic machine ; and wherein a hydraulic accumulator is hydraulically connected to the first secondary hydraulic line in the region between the first chamber of the secondary axis and the first secondary valve , characterized in that the main axis has at least one second chamber , wherein the second chamber is hydraulically connected to at least one second main hydraulic line , and a second main valve is hydraulically connected to the second connection of the hydraulic machine via the second connecting line .