mhurhangee/patent-ind-claim-en huggingface dataset:
A method for estimating yield of a standing crop in a field, the method comprising: obtaining (S102), by an imaging device , image data associated with one or more target plants in one or more rows of the standing crop in the field; estimating (S 104) a spatial region of plant pixels of one or more target plants in the obtained image data for a harvestable plant component and its associated component pixels of the harvestable plant component to reduce the search space for identifying the harvestable plant component , wherein the estimating of the spatial region comprises estimating a plant height of the one or more target plants in the obtained image data and a corresponding component height range for a harvestable plant component in the obtained image data to reduce a search space size in the obtained image data for a component pixels of a harvestable plant component; identifying (S106) the component pixels of a harvestable plant component on the one or more target plants within the reduced search space in the obtained image data of plant pixels of the one or more target plants ; determining (S 108) an edge, boundary or outline of the component pixels; detecting (S 110) a size of the harvestable plant component based on the determined edge, boundary or outline of the identified component pixels; and providing (S112), via a user interface , the detected size of the harvestable plant component for the one or more target plants as an indicator of yield of the one or more plants or standing crop in the field. obtaining (S102), by an imaging device , image data associated with one or more target plants in one or more rows of the standing crop in the field; estimating (S 104) a spatial region of plant pixels of one or more target plants in the obtained image data for a harvestable plant component and its associated component pixels of the harvestable plant component to reduce the search space for identifying the harvestable plant component , wherein the estimating of the spatial region comprises estimating a plant height of the one or more target plants in the obtained image data and a corresponding component height range for a harvestable plant component in the obtained image data to reduce a search space size in the obtained image data for a component pixels of a harvestable plant component; identifying (S106) the component pixels of a harvestable plant component on the one or more target plants within the reduced search space in the obtained image data of plant pixels of the one or more target plants ; determining (S 108) an edge, boundary or outline of the component pixels; detecting (S 110) a size of the harvestable plant component based on the determined edge, boundary or outline of the identified component pixels; and providing (S112), via a user interface , the detected size of the harvestable plant component for the one or more target plants as an indicator of yield of the one or more plants or standing crop in the field.
A system for rotation of a human body in three-dimensional space comprising: a yaw frame contained within a roll frame , wherein the yaw frame is driven by a yaw motor to rotate about a yaw axis within the roll frame , and wherein the roll frame is driven by a roll motor to rotate about a roll axis; a pitch frame contained within the yaw frame , wherein the pitch frame is driven by a pitch motor to rotate about a pitch axis within the yaw frame ; a seat affixed within the pitch frame ; wherein the roll frame , the yaw frame and the pitch frame define a rotational space, and wherein the roll motor , the yaw motor and the pitch motor are located outside the rotational space; wherein the roll frame comprises an internal drive hub ; wherein the yaw motor drives a first internal driveshaft that runs through the internal drive hub ; and wherein the pitch motor comprises a second internal drive shaft that runs through the internal drive hub . a yaw frame contained within a roll frame , wherein the yaw frame is driven by a yaw motor to rotate about a yaw axis within the roll frame , and wherein the roll frame is driven by a roll motor to rotate about a roll axis; a pitch frame contained within the yaw frame , wherein the pitch frame is driven by a pitch motor to rotate about a pitch axis within the yaw frame ; a seat affixed within the pitch frame ; wherein the roll frame , the yaw frame and the pitch frame define a rotational space, and wherein the roll motor , the yaw motor and the pitch motor are located outside the rotational space; wherein the roll frame comprises an internal drive hub ; wherein the yaw motor drives a first internal driveshaft that runs through the internal drive hub ; and wherein the pitch motor comprises a second internal drive shaft that runs through the internal drive hub .
A method for performing wireless communication by a first device, the method comprising: determining a selection window for selecting a sidelink, SL, resource within an active time related to SL discontinuous reception, DRX; determining a sensing window related to the selection window; performing sensing within the sensing window; selecting at least one candidate resource within the selection window based on the sensing; characterised by extending the selection window, based on that a number of the at least one candidate resource is less than or equal to a first threshold, wherein an interval of the extended selection window includes an inactive time related to the SL DRX. determining a selection window for selecting a sidelink, SL, resource within an active time related to SL discontinuous reception, DRX; determining a sensing window related to the selection window; performing sensing within the sensing window; selecting at least one candidate resource within the selection window based on the sensing; characterised by extending the selection window, based on that a number of the at least one candidate resource is less than or equal to a first threshold, wherein an interval of the extended selection window includes an inactive time related to the SL DRX.
A sowing element for pneumatic seed drills comprising a selector disc for isolating the seed (S), the selector disc being rotatable about an axis (X), a conduit for transporting the seed (S) with an initial portion which is proximal to a position for removing the seed (S) from the selector disc and an intermediate portion which extends in continuation of the initial portion , wherein the conduit , at least in the initial portion and in the intermediate portion , is rectilinear and coaxial and has an axis (Y) and wherein an angle (B) between a plane (P1) which is perpendicular to the axis (Y) of the conduit in the rectilinear initial portion and rectilinear intermediate portion of the conduit and a plane (P2) perpendicular to the rotation axis (X) of the selector disc is less than 90°, characterised in that the axis (Y) of the conduit is located inside a plane which is perpendicular to the sowing ground and parallel with the sowing advance direction.
A method for determining a coupling between magnetometers of an array of N vector magnetometers with optical pumping and including n measurement axes, characterised in that it includes the following operations: - sequential generation (GENi), by one of the magnetometers of the array called the reference magnetometer, of m reference magnetic fields of known amplitudes and distinct directions; - during a time slot dedicated to the generation of each of the m reference magnetic fields by the reference magnetometer of the sequential generation operation, measurement (MESj), by each of the N magnetometers of the array, of the m reference magnetic fields along the n measurement axes; - determination (CALCij) of coupling coefficients between the reference magnetometer and each of the N magnetometers of the array, said determination comprising the calculation of coupling coefficients by performing the ratios between the N measurements of one of the m reference magnetic fields according to one of the n measurement axes and the known amplitude of said one of the m reference magnetic fields; - m and n being integers at least equal to 1. - sequential generation (GENi), by one of the magnetometers of the array called the reference magnetometer, of m reference magnetic fields of known amplitudes and distinct directions; - during a time slot dedicated to the generation of each of the m reference magnetic fields by the reference magnetometer of the sequential generation operation, measurement (MESj), by each of the N magnetometers of the array, of the m reference magnetic fields along the n measurement axes; - determination (CALCij) of coupling coefficients between the reference magnetometer and each of the N magnetometers of the array, said determination comprising the calculation of coupling coefficients by performing the ratios between the N measurements of one of the m reference magnetic fields according to one of the n measurement axes and the known amplitude of said one of the m reference magnetic fields; - m and n being integers at least equal to 1.
A racket frame comprising a head formed in a ring shape along a face (S1), wherein on the head , a first groove in which a base portion for connecting grommets is to be inserted is formed in a radially outer region of the head so as to be recessed toward a radially inner side, and two second grooves are formed in a thickness direction in the radially outer region of the head on the outer surface of the head along the circumferential direction of the head so as to be recessed toward the radially inner side, one second groove being formed at each of both sides of the first groove along the thickness direction such that the first groove is located therebetween, wherein the second grooves are deformation promotion grooves which are configured to promote deformation of regions of the head closer to the first groove than to the second grooves when a tennis ball hits a face (S1) of the racket, characterized in that the width of the deformation promotion grooves being in a range between 0.5 mm and 1.5 mm and the depth of the deformation promotion grooves being in a range between 0.3 mm and 1.0 mm and in that the racket frame is shaped by winding a plurality of prepregs and curing the thermosetting resin included in the prepregs. on the head , a first groove in which a base portion for connecting grommets is to be inserted is formed in a radially outer region of the head so as to be recessed toward a radially inner side, and two second grooves are formed in a thickness direction in the radially outer region of the head on the outer surface of the head along the circumferential direction of the head so as to be recessed toward the radially inner side, one second groove being formed at each of both sides of the first groove along the thickness direction such that the first groove is located therebetween, the width of the deformation promotion grooves being in a range between 0.5 mm and 1.5 mm and the depth of the deformation promotion grooves being in a range between 0.3 mm and 1.0 mm and in that the racket frame is shaped by winding a plurality of prepregs and curing the thermosetting resin included in the prepregs.
An implantable medical device comprising: an exterior surface; and a coating disposed on at least a portion of the exterior surface of the medical device, the coating comprising: a poly(monochloro-p-xylylene) coating formed on at least a portion of the implantable medical device; a layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol) methyl ether linked to the poly(monochloro-p-xylylene) coating by covalent bonds; and a bifunctional linker disposed between poly(monochloro-p-xylylene) coating and the layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol)methyl ether, wherein the bifunctional linker is covalently bonded to the poly(monochloro-p-xylylene) coating and to the layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol) methyl ether. an exterior surface; and a coating disposed on at least a portion of the exterior surface of the medical device, the coating comprising: a poly(monochloro-p-xylylene) coating formed on at least a portion of the implantable medical device; a layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol) methyl ether linked to the poly(monochloro-p-xylylene) coating by covalent bonds; and a bifunctional linker disposed between poly(monochloro-p-xylylene) coating and the layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol)methyl ether, wherein the bifunctional linker is covalently bonded to the poly(monochloro-p-xylylene) coating and to the layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol) methyl ether. a poly(monochloro-p-xylylene) coating formed on at least a portion of the implantable medical device; a layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol) methyl ether linked to the poly(monochloro-p-xylylene) coating by covalent bonds; and a bifunctional linker disposed between poly(monochloro-p-xylylene) coating and the layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol)methyl ether, wherein the bifunctional linker is covalently bonded to the poly(monochloro-p-xylylene) coating and to the layer including at least one of poly(ethylene glycol) and a poly(ethylene glycol) methyl ether.
Method for operating a motor vehicle in the event of an unavoidable collision with a collision object, in particular another vehicle , wherein environment data relating to the collision object are determined by means of an environment sensor device comprising at least one environment sensor and are evaluated to determine at least one item of driving intervention information for reducing the consequences of a collision, wherein the motor vehicle is automatically guided in accordance with the driving intervention information, wherein the evaluation of the environment data is carried out together with an item of structural information of the vehicle itself describing the vehicle body, in particular comprising collision energy absorbing elements , of the motor vehicle in such a way that in the determination of the item of driving intervention information a modified collision point that maximises the deformation energy absorbed by the vehicle construction and is to be produced by the item of driving intervention information is determined, characterised in that the determination of the deformation energy is carried out from a deformation path in an energy grid method and in that , in addition to a maximisation of the deformation energy, a minimisation of the penetration depth and/or a maximum permissible penetration depth is also sought in the determination of the modified collision point .
A method for managing power consumption in a power domain of a portable computing device, PCD , the method comprising: setting a peak dynamic power threshold to an initial budget level; monitoring temperature of one or more processing components of a system on a chip, SoC ; monitoring voltage levels supplied to the one or more processing components; calculating an available budget for the peak dynamic power threshold representing a remaining amount of power that may be allocated to the one or more processing components of the SoC , wherein the available budget is calculated based on a real-time leakage power level estimation, which is based on the monitored temperature and voltage levels associated with the one or more processing components; determining that the available budget of the peak dynamic power threshold differs from the initial level of the peak dynamic power threshold; adjusting the peak dynamic power threshold to the available budget, wherein a sum of the peak dynamic power threshold and the leakage power level is not exceeding a maximum power level; characterised by , based on the adjusted peak dynamic power threshold, triggering adjustments to a throttling level for one or more functional blocks of one or more of the processing components of the SoC , wherein the adjustments are adjustments to the maximum operating frequency. setting a peak dynamic power threshold to an initial budget level; monitoring temperature of one or more processing components of a system on a chip, SoC ; monitoring voltage levels supplied to the one or more processing components; calculating an available budget for the peak dynamic power threshold representing a remaining amount of power that may be allocated to the one or more processing components of the SoC , wherein the available budget is calculated based on a real-time leakage power level estimation, which is based on the monitored temperature and voltage levels associated with the one or more processing components; determining that the available budget of the peak dynamic power threshold differs from the initial level of the peak dynamic power threshold; adjusting the peak dynamic power threshold to the available budget, wherein a sum of the peak dynamic power threshold and the leakage power level is not exceeding a maximum power level; characterised by , based on the adjusted peak dynamic power threshold, triggering adjustments to a throttling level for one or more functional blocks of one or more of the processing components of the SoC , wherein the adjustments are adjustments to the maximum operating frequency.
( Amended) A polymer-metal complex crystal including a guest compound, the polymer-metal complex crystal comprising a polymer-metal complex represented by [[M(X) 2 ] 3 (L) 2 ] n wherein M is a zinc(II) ion or a cobalt(II) ion, X is a monovalent anion, L is a tridentate ligand represented by a formula , wherein Ar is a substituted or unsubstituted trivalent aromatic group, X 1 to X 3 are independently a divalent organic group, or a single bond that directly bonds Ar and Y 1 , Y 2 , or Y 3 , and Y 1 to Y 3 are independently a monovalent organic group having a coordinating moiety, and n is an arbitrary natural number), the polymer-metal complex having a three-dimensional network structure that is formed by the metal ion and the ligand that is coordinated to the metal ion, and having pores and voids that are three-dimensionally arranged in the three-dimensional network structure in an ordered manner, at least one compound selected from a group consisting of an aliphatic hydrocarbon, an alicyclic hydrocarbon, an ether, an ester, an aromatic hydrocarbon selected from a group consisting of benzene, toluene, xylene, mesitylene, naphthalene, and phenanthrene, a halogenated hydrocarbon, and a nitrile being included in the pores and the voids as a guest compound (A), and a ratio of an amount of the guest compound (A) present in the pores and the voids to a total amount of the guest compound included in the pores and the voids being 75 mol% or more. wherein Ar is a substituted or unsubstituted trivalent aromatic group, X 1 to X 3 are independently a divalent organic group, or a single bond that directly bonds Ar and Y 1 , Y 2 , or Y 3 , and Y 1 to Y 3 are independently a monovalent organic group having a coordinating moiety, and n is an arbitrary natural number), the polymer-metal complex having a three-dimensional network structure that is formed by the metal ion and the ligand that is coordinated to the metal ion, and having pores and voids that are three-dimensionally arranged in the three-dimensional network structure in an ordered manner, at least one compound selected from a group consisting of an aliphatic hydrocarbon, an alicyclic hydrocarbon, an ether, an ester, an aromatic hydrocarbon selected from a group consisting of benzene, toluene, xylene, mesitylene, naphthalene, and phenanthrene, a halogenated hydrocarbon, and a nitrile being included in the pores and the voids as a guest compound (A), and a ratio of an amount of the guest compound (A) present in the pores and the voids to a total amount of the guest compound included in the pores and the voids being 75 mol% or more.
A closure comprising a top plate and a sidewall depending therefrom, the interior of the sidewall having a screw thread formation, the formation comprising a plurality of thread segments, the thread segments collectively define an engagement surface for engagement with an external thread formation on an associated container, a notional helical top surface with a constant pitch extends along the formation, at least some, but not all, of the segments include material offset from the notional helical top surface towards the top plate, in which at least one of the segments has a first axial thickness and at least one of the segments has a second axial thickness which is greater than the first axial thickness and being increased in a direction towards the top plate so as to offset the top contact surface of the formation and compensate vertical displacement of the closure in use, characterised in that the provision of the or each segment having the second axial thickness is circumferentially restricted to one side of the sidewall.
A transmission method, performed by a base station, comprising: generating an indication information that indicates an allocation of at least one resource subset of a bandwidth part, BWP, to a physical uplink shared channel, PUSCH, or a physical uplink control channel, PUCCH, wherein the BWP is divided into a plurality of resource subsets, and the indication information includes an interleave index of a resource interleave among multiple resource interleaves; transmitting the indication information including the interleave index to a user equipment; transmitting a UE-group common downlink control information indicating a length of remaining maximum channel occupy time, MCOT in unit of slots and/or symbols, a subcarrier spacing, SCS, of the slots and/or symbols being a reference SCS for indicating the length of the remaining MCOT; and receiving, from the user equipment, the PUSCH or PUCCH on the at least one resource subset indicated by the indication information including the interleave index. generating an indication information that indicates an allocation of at least one resource subset of a bandwidth part, BWP, to a physical uplink shared channel, PUSCH, or a physical uplink control channel, PUCCH, wherein the BWP is divided into a plurality of resource subsets, and the indication information includes an interleave index of a resource interleave among multiple resource interleaves; transmitting the indication information including the interleave index to a user equipment; transmitting a UE-group common downlink control information indicating a length of remaining maximum channel occupy time, MCOT in unit of slots and/or symbols, a subcarrier spacing, SCS, of the slots and/or symbols being a reference SCS for indicating the length of the remaining MCOT; and receiving, from the user equipment, the PUSCH or PUCCH on the at least one resource subset indicated by the indication information including the interleave index.