mhurhangee/ep-ind-claims huggingface dataset:
A display apparatus comprising: a display unit that has a position detection function detecting a position where the user performs handwriting; a memory (22 or 26); and a processor that performs an information display control process causing the display unit to display information in response to user operation, characterized in that the processor further performs: a recognition process recognizing a handwritten locus of a handwriting position which is detected by the position detection function of the display unit; a handwriting position determining process determining whether the handwritten locus of the handwriting position detected by the position detection function is superposed on the information which is displayed on the display unit by the information display control process; an information storing process storing the displayed information in association with the handwritten locus recognized by the recognition process in the memory (22 or 26), when it is determined by the handwriting position determining process that the handwritten locus of the handwriting position is superposed on the information which is displayed on the display unit; and an information output process reading and outputting the information, which is stored in the memory (22 or 26) in association with the handwritten locus recognized by the recognition process by the information storing process, when it is determined by the handwriting position determining process that the handwritten locus of the handwriting position is not superposed on the information which is displayed on the display unit. a display unit that has a position detection function detecting a position where the user performs handwriting; a memory (22 or 26); and a processor that performs an information display control process causing the display unit to display information in response to user operation, a recognition process recognizing a handwritten locus of a handwriting position which is detected by the position detection function of the display unit; a handwriting position determining process determining whether the handwritten locus of the handwriting position detected by the position detection function is superposed on the information which is displayed on the display unit by the information display control process; an information storing process storing the displayed information in association with the handwritten locus recognized by the recognition process in the memory (22 or 26), when it is determined by the handwriting position determining process that the handwritten locus of the handwriting position is superposed on the information which is displayed on the display unit; and an information output process reading and outputting the information, which is stored in the memory (22 or 26) in association with the handwritten locus recognized by the recognition process by the information storing process, when it is determined by the handwriting position determining process that the handwritten locus of the handwriting position is not superposed on the information which is displayed on the display unit.
An automatic calibration method of an angle sensor for an automatic drive control system of a farm machine, whereby the method comprises the following steps: Step S1: fixing a steering wheel of the farm machine to make front wheels of a vehicle kept at a fixed angle; Step S2: collecting a plurality of pieces of current position information of the farm machine, and processing the plurality of pieces of current position information to obtain an average value; Step S3: establishing a two-wheel farm machine kinematics model based on a center of a rear axle; Step S4: performing a radius calculation to obtain a set of angle correspondences; Step S5: rotating the farm machine by a preset angle at a constant speed with the rear axle of the farm machine as a center, and performing Step S1 through Step S4; Step S6: after performing Step S5 for several times, performing an angle value fitting calculation to obtain a calibration coefficient. Step S1: fixing a steering wheel of the farm machine to make front wheels of a vehicle kept at a fixed angle; Step S2: collecting a plurality of pieces of current position information of the farm machine, and processing the plurality of pieces of current position information to obtain an average value; Step S3: establishing a two-wheel farm machine kinematics model based on a center of a rear axle; Step S4: performing a radius calculation to obtain a set of angle correspondences; Step S5: rotating the farm machine by a preset angle at a constant speed with the rear axle of the farm machine as a center, and performing Step S1 through Step S4; Step S6: after performing Step S5 for several times, performing an angle value fitting calculation to obtain a calibration coefficient.
Therapeutical composition, comprising a complex having the following formula comprising a rare-earth radioisotope, said complex being solubilized in a lipophilic organic phase, said lipophilic organic phase being Lipiodol®: [M 3] wherein: - M designates the rare-earth radioisotope, and - L designates a tropolone ligand or a tropolone-derived ligand, L being chosen from amongst halogenotropolone, α-methyltropolone, β-methyltropolone, γ-methyltropolone, α-isopropyltropolone, β-isopropyltropolone, γ-isopropyltropolone, nootkatin, stipitatic acid, puberulic acid, puberulonic acid, purpurogallin, colchicine or a derivative of these substances, L preferably designating β-isopropyltropolone. - M designates the rare-earth radioisotope, and - L designates a tropolone ligand or a tropolone-derived ligand, L being chosen from amongst halogenotropolone, α-methyltropolone, β-methyltropolone, γ-methyltropolone, α-isopropyltropolone, β-isopropyltropolone, γ-isopropyltropolone, nootkatin, stipitatic acid, puberulic acid, puberulonic acid, purpurogallin, colchicine or a derivative of these substances, L preferably designating β-isopropyltropolone.
A Codebook Subset Restriction, CSR, bitmap transmission method of an evolved Node B, eNB, in transmission mode 9 as added to Release 10 of 3GPP LTE for communication with 8 antenna ports, the method comprising: generating a CSR bitmap including bits corresponding to restricted precoding matrix indicators (PMIs) and rank indicators that are not allowed for reporting; and transmitting the CSR bitmap to a User Equipment, UE, wherein the CSR bitmap comprises 53 bits corresponding to a first PMI and 56 bits corresponding to a second PMI, the 53 bits corresponding to the first PMI comprise 16, 16, 4, 4, 4, 4, 4 and 1 bits corresponding to precoding matrices of a first codebook for layers 1, 2, 3, 4, 5, 6, 7 and 8, respectively, and the 56 bits corresponding to the second PMI comprise 16, 16, 16 and 8 bits (523 - 529) corresponding to precoding matrices of a second codebook for layers 1, 2, 3 and 4, respectively, and wherein the CSR bitmap comprises no bits correspond to precoding matrices of the second codebook for layers 5, 6, 7 and 8, wherein in the transmission mode 9, a precoding matrix for transmission is determined based on the first PMI and the second PMI. generating a CSR bitmap including bits corresponding to restricted precoding matrix indicators (PMIs) and rank indicators that are not allowed for reporting; and transmitting the CSR bitmap to a User Equipment, UE, wherein the CSR bitmap comprises 53 bits corresponding to a first PMI and 56 bits corresponding to a second PMI, the 53 bits corresponding to the first PMI comprise 16, 16, 4, 4, 4, 4, 4 and 1 bits corresponding to precoding matrices of a first codebook for layers 1, 2, 3, 4, 5, 6, 7 and 8, respectively, and the 56 bits corresponding to the second PMI comprise 16, 16, 16 and 8 bits (523 - 529) corresponding to precoding matrices of a second codebook for layers 1, 2, 3 and 4, respectively, and wherein the CSR bitmap comprises no bits correspond to precoding matrices of the second codebook for layers 5, 6, 7 and 8, wherein in the transmission mode 9, a precoding matrix for transmission is determined based on the first PMI and the second PMI.
A wireless station configured to: generate a Location Configuration Information, 'LCI', request having a plurality of subelements arranged to query for a LCI report that includes location information regarding Access Points, APs, proximate to a reporting AP,; send the LCI request to the reporting AP; and characterized by the circuitry to cause the wireless station to: receive the LCI report from the reporting AP, the LCI report comprising latitude information, longitude information, and altitude information, the LCI report including BSSIDs of proximate APs, additional information elements associated with the reporting AP and the proximate APs, and LCI information for the proximate APs, characterized in that the additional information elements comprise for at least one of the reporting AP or a proximate AP a floor level of said AP and a height above the floor of said AP. generate a Location Configuration Information, 'LCI', request having a plurality of subelements arranged to query for a LCI report that includes location information regarding Access Points, APs, proximate to a reporting AP,; send the LCI request to the reporting AP; and characterized by the circuitry to cause the wireless station to: receive the LCI report from the reporting AP, the LCI report comprising latitude information, longitude information, and altitude information, the LCI report including BSSIDs of proximate APs, additional information elements associated with the reporting AP and the proximate APs, and LCI information for the proximate APs, characterized in that the additional information elements comprise for at least one of the reporting AP or a proximate AP a floor level of said AP and a height above the floor of said AP. receive the LCI report from the reporting AP, the LCI report comprising latitude information, longitude information, and altitude information, the LCI report including BSSIDs of proximate APs, additional information elements associated with the reporting AP and the proximate APs, and LCI information for the proximate APs, characterized in that the additional information elements comprise for at least one of the reporting AP or a proximate AP a floor level of said AP and a height above the floor of said AP.
A method of operating a mobile device, the mobile device comprising a modem operable for configuring an antenna (14A-E) for use with one or more wireless protocols, the modem configured to optimize the efficiency of the power transfer between the antennae and the modem within the frequency range associated with the wireless protocol used by the mobile device, the method comprising: accessing data encoding a response shift in a signal received through the antenna (14A-E) of the mobile device, the signal corresponding to wireless communication to the mobile device from another device, the response shift being detected and encoded by the modem of the mobile device coupled to the antenna (14A-E); transmitting, by the modem, the data encoding the response shift in the signal to a logic through an application programming interface; and processing, by the logic, the encoded response-shift data, and initiating changes to the configuration of the mobile device; determining an operational state of the mobile device based at least in part on the response shift encoded in the data, wherein the response shift is caused by interference with the signal and is a frequency shift, wherein a source of the interference comprises an object coming into proximity or contact with the mobile device, and wherein determining the operational state of the mobile device comprises differentiating between different sources of interference based on the amount or pattern of frequency shift resulting from different sources of interference, and initiating a pre-determined function of the mobile device in response to the determined operational state, the pre-determined function comprising resuming operation of the mobile device in response to physical contact with the mobile device. accessing data encoding a response shift in a signal received through the antenna (14A-E) of the mobile device, the signal corresponding to wireless communication to the mobile device from another device, the response shift being detected and encoded by the modem of the mobile device coupled to the antenna (14A-E); transmitting, by the modem, the data encoding the response shift in the signal to a logic through an application programming interface; and processing, by the logic, the encoded response-shift data, and initiating changes to the configuration of the mobile device; determining an operational state of the mobile device based at least in part on the response shift encoded in the data, wherein the response shift is caused by interference with the signal and is a frequency shift, wherein a source of the interference comprises an object coming into proximity or contact with the mobile device, and wherein determining the operational state of the mobile device comprises differentiating between different sources of interference based on the amount or pattern of frequency shift resulting from different sources of interference, and initiating a pre-determined function of the mobile device in response to the determined operational state, the pre-determined function comprising resuming operation of the mobile device in response to physical contact with the mobile device.
A memory controller in a user device comprises: a memory control processing module operable to: receive a memory access request regarding a data segment; interpret the memory access request to determine whether an error coding dispersal function of the data segment is applicable; when the error coding dispersal function is applicable, send the memory access request to a distributed storage processing module; and the distributed storage processing module operable to: perform the error coding dispersal function on the data segment to produce an error coded processed data segment; and send the error coded processed data segment to the memory control processing module. a memory control processing module operable to: receive a memory access request regarding a data segment; interpret the memory access request to determine whether an error coding dispersal function of the data segment is applicable; when the error coding dispersal function is applicable, send the memory access request to a distributed storage processing module; and receive a memory access request regarding a data segment; interpret the memory access request to determine whether an error coding dispersal function of the data segment is applicable; when the error coding dispersal function is applicable, send the memory access request to a distributed storage processing module; and the distributed storage processing module operable to: perform the error coding dispersal function on the data segment to produce an error coded processed data segment; and send the error coded processed data segment to the memory control processing module. perform the error coding dispersal function on the data segment to produce an error coded processed data segment; and send the error coded processed data segment to the memory control processing module.
Self-referenced magnetic random access memory cell, hereinafter termed MRAM, comprising a magnetic tunnel junction including a sense layer; a storage layer having a storage magnetization; a tunnel barrier layer comprised between the sense and the storage layers (21, 23); and an antiferromagnetic layer exchange-coupling the storage layer such that the storage magnetization can be pinned when the antiferromagnetic layer is below a critical temperature and freely varied when the antiferromagnetic layer is heated at or above the critical temperature; wherein said sense layer comprises a first sense layer having a first sense magnetization, a second sense layer having a second sense magnetization and spacer layer between the first and second sense layers (211, 212); the spacer layer is a metal layer which introduces a RKKY coupling, characterized in that: the dimension of the magnetic tunnel junction along the first and second sense magnetization (213,214), is larger than 100 nm and the spacer layer has a thickness greater than 2 nm such that said absolute value of the RKKY coupling is below the RKKY coupling obtained when the first and second sense layers and the spacer layer form a synthetic antiferromagnet; or, the dimension of the magnetic tunnel junction along the first and second sense magnetization, is smaller than 100 nm and the spacer layer has a thickness between 1 nm and 2 nm such that RKKY coupling is a parallel coupling counterbalancing dipolar coupling between the first and second sense layer (211,212). the dimension of the magnetic tunnel junction along the first and second sense magnetization (213,214), is larger than 100 nm and the spacer layer has a thickness greater than 2 nm such that said absolute value of the RKKY coupling is below the RKKY coupling obtained when the first and second sense layers and the spacer layer form a synthetic antiferromagnet; or, the dimension of the magnetic tunnel junction along the first and second sense magnetization, is smaller than 100 nm and the spacer layer has a thickness between 1 nm and 2 nm such that RKKY coupling is a parallel coupling counterbalancing dipolar coupling between the first and second sense layer (211,212).
A fluidized bed system comprising: an enclosure having an inner chamber; a fluidized bed positioned in the inner chamber and configured to process particles and remove particulate; a dust collection system positioned in the inner chamber above the fluidized bed in a fluidizing chamber at a disengaging height, wherein the dust collection system comprises a dust collector, a dust hopper, an integral conveyor device, and a particulate clearance space, wherein the dust collector is positioned above a dust hopper, the dust hopper being positioned at the disengaging height and configured to receive particulate separated from the particles and transported to the dust collector via the particulate clearance space surrounding the dust collection system in the inner chamber between the dust hopper and a wall of the fluidizing chamber, and wherein the integral conveyor positioned within the dust hopper is configured for conveying particulate from the dust collection system; and a fan included in a plenum, the plenum included in the inner chamber and comprising a suction duct, and a pressure duct configured to provide a laminar flow of air to the fluidized bed. an enclosure having an inner chamber; a fluidized bed positioned in the inner chamber and configured to process particles and remove particulate; a dust collection system positioned in the inner chamber above the fluidized bed in a fluidizing chamber at a disengaging height, wherein the dust collection system comprises a dust collector, a dust hopper, an integral conveyor device, and a particulate clearance space, wherein the dust collector is positioned above a dust hopper, the dust hopper being positioned at the disengaging height and configured to receive particulate separated from the particles and transported to the dust collector via the particulate clearance space surrounding the dust collection system in the inner chamber between the dust hopper and a wall of the fluidizing chamber, and wherein the integral conveyor positioned within the dust hopper is configured for conveying particulate from the dust collection system; and a fan included in a plenum, the plenum included in the inner chamber and comprising a suction duct, and a pressure duct configured to provide a laminar flow of air to the fluidized bed.
A tire tread comprising one or more grooves (19, 22, 24, 28) having a groove depth and at least one rib (18, 20, 26), the tread having a radially outer surface and a non-skid tread depth as measured from the radially outer surface of the tread to the radially innermost surface of the one or more grooves (19, 22, 24, 28), the tread having a radially innermost layer comprising of a base tread compound, a radially outer tread cap layer and a middle tread layer located between the base layer and the outer tread cap layer, wherein the rib (18, 20, 26) comprises a dividing line formed between the radially outer tread cap layer and the middle tread layer, wherein the dividing line has a notched area in which the radially outer tread cap layer extends radially inward to a depth in a range of from 80% to 110% of the groove depth or the non-skid depth, and wherein at least one of the following is held true: (i) the radially outer tread cap layer is formed of a rubber compound having a tread rebound at 23°C in the range of from 14 to 28; (ii) the radially outer tread cap layer is formed of a rubber compound having a tread rebound at 100°C in the range of from 43 to 67; (iii) the middle tread cap layer is formed of a rubber compound having a tread rebound at 100°C in the range of from 56 to 80; (iv) the middle tread cap layer is formed of a rubber compound having a tread rebound at 23°C in the range of from 26 to 46. (i) the radially outer tread cap layer is formed of a rubber compound having a tread rebound at 23°C in the range of from 14 to 28; (ii) the radially outer tread cap layer is formed of a rubber compound having a tread rebound at 100°C in the range of from 43 to 67; (iii) the middle tread cap layer is formed of a rubber compound having a tread rebound at 100°C in the range of from 56 to 80; (iv) the middle tread cap layer is formed of a rubber compound having a tread rebound at 23°C in the range of from 26 to 46.
A thermoplastic resin composition, comprising 10 to 90 % by weight of a graft copolymer resin coagulated by a coagulant which is one selected from an acetic acid or a mixture of formic acid and sodium formate; and 90 to 10 % by weight of a non-graft copolymer resin, and having a moist-heat characteristic (Δhaze) of 15 or less, wherein a refractive index difference between the graft copolymer resin and the non-graft copolymer resin is less than 0.01, wherein the graft copolymer resin is a copolymer resin obtained by graft-polymerizing 20 to 60 % by weight of a (meth)acrylic acid alkyl ester compound, 7 to 30 % by weight of an aromatic vinyl compound, and 0 to 10 % by weight of a vinyl cyan compound with 20 to 70 % by weight of a conjugated diene rubber, wherein the non-graft copolymer resin is a copolymer resin obtained by polymerizing 30 to 80% by weight of a (meth)acrylic acid alkyl ester compound, 15 to 50 % by weight of the aromatic vinyl compound, and 0 to 20% by weight of a vinyl cyan compound, wherein the refractive index was measured by means of an Abbe refractometer at 25 °C, wherein the moist-heat characteristic (Δhaze) was measured according to Equation, and wherein the Haze was measured according to ASTM1003. Δ ⁢ Haze = Haze after storing under conditions of 70 ° C and humidity of 90 % for one week − Haze before moist-heating