mhurhangee/ep-ind-claims huggingface dataset:
A digital radio receiver comprising: a first section arranged to receive an analogue radio signal and to generate therefrom digital intermediate frequency I and Q channel samples, a second section arranged to convert said I and Q channel samples to a lower, baseband frequency, said second section comprising: a first coordinate rotation digital computer module arranged to perform a complex rotation of the I channel samples; a second coordinate rotation digital computer module arranged to perform a complex rotation of the Q channel samples; a phase accumulator arranged to provide an output signal representing a complex rotation to be applied to each of the I and Q channel samples, wherein the second section is arranged such that the phase accumulator output signal is modified by a phase offset signal prior to being supplied to one of the first and second coordinate rotation digital computer modules; wherein each of the first and second coordinate rotation digital computer modules (36, 38) has two inputs; characterised in that: one of the inputs of each of the first and second coordinate rotation digital computer modules (36, 38) is held at zero. a first section arranged to receive an analogue radio signal and to generate therefrom digital intermediate frequency I and Q channel samples, a second section arranged to convert said I and Q channel samples to a lower, baseband frequency, said second section comprising: a first coordinate rotation digital computer module arranged to perform a complex rotation of the I channel samples; a second coordinate rotation digital computer module arranged to perform a complex rotation of the Q channel samples; a phase accumulator arranged to provide an output signal representing a complex rotation to be applied to each of the I and Q channel samples, wherein the second section is arranged such that the phase accumulator output signal is modified by a phase offset signal prior to being supplied to one of the first and second coordinate rotation digital computer modules; wherein each of the first and second coordinate rotation digital computer modules (36, 38) has two inputs; characterised in that: one of the inputs of each of the first and second coordinate rotation digital computer modules (36, 38) is held at zero. a first coordinate rotation digital computer module arranged to perform a complex rotation of the I channel samples; a second coordinate rotation digital computer module arranged to perform a complex rotation of the Q channel samples; a phase accumulator arranged to provide an output signal representing a complex rotation to be applied to each of the I and Q channel samples, wherein the second section is arranged such that the phase accumulator output signal is modified by a phase offset signal prior to being supplied to one of the first and second coordinate rotation digital computer modules; wherein each of the first and second coordinate rotation digital computer modules (36, 38) has two inputs; characterised in that: one of the inputs of each of the first and second coordinate rotation digital computer modules (36, 38) is held at zero.
An imaging apparatus to which an accessory device is mountable, the imaging apparatus comprising: a first communication line (LCLK) configured to transmit, to the accessory device, a clock signal or a request-to-send signal serving as a timing signal for controlling a timing of communication with the accessory device; and a second communication line configured to transmit, to the accessory device, a first command relating to operations of the accessory device at a timing corresponding to the timing signal; characterized by: a third communication line configured to receive, from the accessory device, first data corresponding to the first command at a timing corresponding to the timing signal; a fourth communication line configured to receive, from the accessory device, second data by one-way data asynchronous communication regardless of a timing indicated by the timing signal; and a communication control means (208a, 208b) configured to control communication by the first communication line, the second communication line, the third communication line, and the fourth communication line. a first communication line (LCLK) configured to transmit, to the accessory device, a clock signal or a request-to-send signal serving as a timing signal for controlling a timing of communication with the accessory device; and a second communication line configured to transmit, to the accessory device, a first command relating to operations of the accessory device at a timing corresponding to the timing signal; characterized by: a third communication line configured to receive, from the accessory device, first data corresponding to the first command at a timing corresponding to the timing signal; a fourth communication line configured to receive, from the accessory device, second data by one-way data asynchronous communication regardless of a timing indicated by the timing signal; and a communication control means (208a, 208b) configured to control communication by the first communication line, the second communication line, the third communication line, and the fourth communication line. a third communication line configured to receive, from the accessory device, first data corresponding to the first command at a timing corresponding to the timing signal; a fourth communication line configured to receive, from the accessory device, second data by one-way data asynchronous communication regardless of a timing indicated by the timing signal; and a communication control means (208a, 208b) configured to control communication by the first communication line, the second communication line, the third communication line, and the fourth communication line.
A process for producing a fluorinated ether compound, which comprises reacting a compound represented by the following formula or a compound represented by the following formula with a compound represented by the following formula to obtain a compound represented by the following formula: R f (CF 2) a -CF 2 OC(=O)R f4 R f (CF 2) a -C(=O)X 1 HN(-R 1 CH=CH 2) 2 R f (CF 2) a -C(=O)N(-R 1 CH=CH 2) 2 wherein R f is a linear polyfluoroalkoxy group having at least two carbon atoms and at least one etheric oxygen atom between carbon atoms, R f4 is a C 1-30 perfluoroalkyl group or a C 2-30 perfluoroalkyl group having an etheric oxygen atom between carbon atoms, X 1 is a halogen atom, R 1 is an alkylene group, and a is an integer of from 1 to 5. R f4 is a C 1-30 perfluoroalkyl group or a C 2-30 perfluoroalkyl group having an etheric oxygen atom between carbon atoms, X 1 is a halogen atom, R 1 is an alkylene group, and a is an integer of from 1 to 5.
A method for controlling electrical propulsion of a pram or stroller, wherein an average pushing force of the person who is operating the pram or stroller is determined with respect to a predetermined time period, wherein the average pushing force is kept constant regardless of external aspects such as the pram's load, the quality and the tilt of a surface. wherein an average pushing force of the person who is operating the pram or stroller is determined with respect to a predetermined time period, wherein the average pushing force is kept constant regardless of external aspects such as the pram's load, the quality and the tilt of a surface.
An electric razor comprising: a body configured to be gripped by a user; a head having three or more blade blocks each comprising an outer blade (311, 321) and an inner blade (312, 322) which is disposed inside the outer blade and sliding with respect to the outer blade; and a head support connecting the head and the body to each other, wherein the head support supports the head in a floatable-and-sinkable way with respect to the body, the head comprises: a case that supports the three or more blade blocks; and a blade float that allows each of the three or more blade blocks to float and sink with respect to the case, and the head support urges the head in a floating direction with a first urging force, the first urging force being larger than a second urging force with which the blade float urges a plurality of blade blocks that are one or more less than the three or more blade blocks in a floating direction, the plurality of blade blocks being included in the three or more blade blocks, the first urging force being smaller than a third urging force with which the blade float urges all of the three or more blade blocks in the floating direction. a body configured to be gripped by a user; a head having three or more blade blocks each comprising an outer blade (311, 321) and an inner blade (312, 322) which is disposed inside the outer blade and sliding with respect to the outer blade; and a head support connecting the head and the body to each other, wherein the head support supports the head in a floatable-and-sinkable way with respect to the body, the head comprises: a case that supports the three or more blade blocks; and a blade float that allows each of the three or more blade blocks to float and sink with respect to the case, and a case that supports the three or more blade blocks; and a blade float that allows each of the three or more blade blocks to float and sink with respect to the case, and the head support urges the head in a floating direction with a first urging force, the first urging force being larger than a second urging force with which the blade float urges a plurality of blade blocks that are one or more less than the three or more blade blocks in a floating direction, the plurality of blade blocks being included in the three or more blade blocks, the first urging force being smaller than a third urging force with which the blade float urges all of the three or more blade blocks in the floating direction.
A high-voltage conductive path to be wired in an automobile comprising: concentrically, one of a positive electrode conductor and a negative electrode conductor; a first insulator arranged outside of the one of the positive electrode conductor and the negative electrode conductor; an other of the positive electrode conductor and the negative electrode conductor arranged outside of the first insulator; and a second insulator arranged outside of the other of the positive electrode conductor and the negative electrode conductor, wherein the one of the positive electrode conductor and the negative electrode conductor is a single core wire, and has a shape holding function for holding a shape along an arrangement pathway. concentrically, one of a positive electrode conductor and a negative electrode conductor; a first insulator arranged outside of the one of the positive electrode conductor and the negative electrode conductor; an other of the positive electrode conductor and the negative electrode conductor arranged outside of the first insulator; and a second insulator arranged outside of the other of the positive electrode conductor and the negative electrode conductor, wherein the one of the positive electrode conductor and the negative electrode conductor is a single core wire, and has a shape holding function for holding a shape along an arrangement pathway.
A method, implemented by a multi domain service coordinator, MDSC, of locating a fault in an optical communication link, comprising: determining a fault in a first optical link; determining a fault in a second optical link, wherein the first optical link belongs to a first network domain and the second optical link belongs to a second network domain; determining that a first portion of the first optical link is co-located with a second portion of the second optical link; and identifying, as a result of determining that the first portion is co-located with the second portion, that the fault in the first optical link is located in the first portion and the fault in the second optical link is located in the second portion, wherein determining the fault in the first optical link comprises receiving a first notification from a first physical network controller, PNC, of the fault in the first optical link, wherein the first optical link and the first PNC are associated with the first network domain; and determining the fault in the second optical link comprises receiving a second notification from a second PNC of the fault in the second optical link, wherein the second optical link and the second PNC are associated with the second network domain. determining a fault in a first optical link; determining a fault in a second optical link, wherein the first optical link belongs to a first network domain and the second optical link belongs to a second network domain; determining that a first portion of the first optical link is co-located with a second portion of the second optical link; and identifying, as a result of determining that the first portion is co-located with the second portion, that the fault in the first optical link is located in the first portion and the fault in the second optical link is located in the second portion, wherein determining the fault in the first optical link comprises receiving a first notification from a first physical network controller, PNC, of the fault in the first optical link, wherein the first optical link and the first PNC are associated with the first network domain; and determining the fault in the second optical link comprises receiving a second notification from a second PNC of the fault in the second optical link, wherein the second optical link and the second PNC are associated with the second network domain.
A vehicle control apparatus comprising: braking force applying device of a hydraulic type, capable of applying a braking force to each of wheels; a hydraulic pressure controlling device capable of controlling a hydraulic pressure of said braking force applying device such that each of the wheels is not locked; a hydraulic pressure increasing or decreasing period changing device capable of changing an increasing or decreasing period of the hydraulic pressure controlled by said hydraulic pressure controlling device; and characterized by a controlling device for controlling said hydraulic pressure increasing or decreasing period changing device so as to make the increasing or decreasing period of the hydraulic pressure corresponding to each of the wheels in contact with a road surface having a high road surface friction coefficient different from a period corresponding to a yaw resonance frequency associated with a vehicle, in a case where a left-right braking force difference is generated due to operation of said hydraulic pressure controlling device. braking force applying device of a hydraulic type, capable of applying a braking force to each of wheels; a hydraulic pressure controlling device capable of controlling a hydraulic pressure of said braking force applying device such that each of the wheels is not locked; a hydraulic pressure increasing or decreasing period changing device capable of changing an increasing or decreasing period of the hydraulic pressure controlled by said hydraulic pressure controlling device; and characterized by a controlling device for controlling said hydraulic pressure increasing or decreasing period changing device so as to make the increasing or decreasing period of the hydraulic pressure corresponding to each of the wheels in contact with a road surface having a high road surface friction coefficient different from a period corresponding to a yaw resonance frequency associated with a vehicle, in a case where a left-right braking force difference is generated due to operation of said hydraulic pressure controlling device.
A radially collapsible and expandable annular frame for an implantable prosthetic valve, said frame comprising: a plurality of frame sections (150, 152, 154), the frame sections (150, 152, 154) comprising a plurality of struts (160, 210) forming rows of cells of the frame, the frame having first and second vertical posts between two frame sections (150, 152, 154) and arranged at an upper area of the frame, the first and second vertical posts being spaced apart to define an opening therebetween for receiving at least a portion of two adjacent flexible leaflets, wherein the frame comprises an uppermost row of cells of the rows of cells, and wherein the first and second vertical posts (404, 406) are positioned entirely within the uppermost row of cells. a plurality of frame sections (150, 152, 154), the frame sections (150, 152, 154) comprising a plurality of struts (160, 210) forming rows of cells of the frame, the frame having first and second vertical posts between two frame sections (150, 152, 154) and arranged at an upper area of the frame, the first and second vertical posts being spaced apart to define an opening therebetween for receiving at least a portion of two adjacent flexible leaflets, wherein the frame comprises an uppermost row of cells of the rows of cells, and wherein the first and second vertical posts (404, 406) are positioned entirely within the uppermost row of cells.
A method of controlling a solar thermal power generation system comprising: a steam generator for generating steam by heating water with molten salt; a superheater for producing superheated steam by further heating the steam generated by the steam generator with molten salt; a high-pressure turbine driven by the superheated steam supplied from the superheater; a reheater for producing reheated steam by reheating the intermediary exhaust steam coming from the high-pressure turbine with molten salt; a low-pressure turbine driven by the reheated steam supplied from the reheater; a condenser for condensing the exhaust steam coming from the low-pressure turbine into water to be supplied to the steam generator; wherein the method comprises a reheater molten salt quantity control process of controlling the quantity Mr of the molten salt to be supplied to the reheater; characterized in that the solar thermal power generation system further comprises a reheated steam temperature detector for detecting the temperature of the reheated steam to be supplied to the low-pressure turbine and in that the quantity Mr of the molten salt is controlled in the reheater molten salt quantity control process so as to make the temperature of the reheated steam not lower than 370°C and not higher than 430°C as detected by the reheated steam temperature detector in a low load operation with a load ratio not higher than a predetermined load ratio relative to the rated load of the power generation system. a steam generator for generating steam by heating water with molten salt; a superheater for producing superheated steam by further heating the steam generated by the steam generator with molten salt; a high-pressure turbine driven by the superheated steam supplied from the superheater; a reheater for producing reheated steam by reheating the intermediary exhaust steam coming from the high-pressure turbine with molten salt; a low-pressure turbine driven by the reheated steam supplied from the reheater; a condenser for condensing the exhaust steam coming from the low-pressure turbine into water to be supplied to the steam generator; wherein the method comprises a reheater molten salt quantity control process of controlling the quantity Mr of the molten salt to be supplied to the reheater; characterized in that the solar thermal power generation system further comprises a reheated steam temperature detector for detecting the temperature of the reheated steam to be supplied to the low-pressure turbine and in that the quantity Mr of the molten salt is controlled in the reheater molten salt quantity control process so as to make the temperature of the reheated steam not lower than 370°C and not higher than 430°C as detected by the reheated steam temperature detector in a low load operation with a load ratio not higher than a predetermined load ratio relative to the rated load of the power generation system.
A system for surgical planning and assessment of spinal deformity correction in a subject, the system comprising: a control unit configured to: obtain a set of anatomical positions of a patient, the set of anatomical positions including anatomical positions of at least two vertebrae of a subject; determine a model of a subject based on the set of anatomical positions, wherein the model defines a pelvic tilt value, a pelvic incidence value, a sagittal vertical axis value, and a lumbar lordosis value; receive one or more simulated spinal correction inputs corresponding to a surgical procedure; predict a simulated postoperative surgical correction based on the received one or more simulated spinal correction inputs and the model; determine a surgical plan based on the predicted simulated postoperative surgical correction; and provide the determined surgical plan via a display; characterized in that the model is a musculoskeletal model. obtain a set of anatomical positions of a patient, the set of anatomical positions including anatomical positions of at least two vertebrae of a subject; determine a model of a subject based on the set of anatomical positions, wherein the model defines a pelvic tilt value, a pelvic incidence value, a sagittal vertical axis value, and a lumbar lordosis value; receive one or more simulated spinal correction inputs corresponding to a surgical procedure; predict a simulated postoperative surgical correction based on the received one or more simulated spinal correction inputs and the model; determine a surgical plan based on the predicted simulated postoperative surgical correction; and provide the determined surgical plan via a display; characterized in that the model is a musculoskeletal model.
A system for receiving and handling requests from a client application to a server resource, comprising: a server request interface for that receives requests from a client to access a server resource; a threading model using multiple thread pools, including an asynchronous pool of reader threads and a synchronous pool of execute threads, wherein the asynchronous pool is configured to wait on an asynchronous input mechanism; a plurality of execute queues (402,404,406), configured to queue requests for access to the server resource, wherein each execute queue has a pool of execute threads associated therewith; and, a dispatch policy configured on a per-resource basis for a thread from the asynchronous pool to queue specific requests on a selected one of said queues for processing by the synchronous thread pool. a server request interface for that receives requests from a client to access a server resource; a threading model using multiple thread pools, including an asynchronous pool of reader threads and a synchronous pool of execute threads, wherein the asynchronous pool is configured to wait on an asynchronous input mechanism; a plurality of execute queues (402,404,406), configured to queue requests for access to the server resource, wherein each execute queue has a pool of execute threads associated therewith; and, a dispatch policy configured on a per-resource basis for a thread from the asynchronous pool to queue specific requests on a selected one of said queues for processing by the synchronous thread pool.