mhurhangee/ep-ind-claims huggingface dataset:
A work machine comprising: a multi-joint work device for forming a target construction surface; a plurality of hydraulic actuators(32a, 32b, 32c) for driving the work device based on control signals: and a controller including a trajectory corrective control signal calculation section for calculating based on a distance from the work device to the target construction surface a trajectory corrective control signal that is a control signal for at least one correction target hydraulic actuator among the plurality of hydraulic actuators(33a, 33b, 33c) such that a motion trajectory of the work device is maintained above the target construction surface, characterized in that the controller further includes a power corrective control signal calculation section for calculating, when a difference between a target power and an actual power of at least one particular hydraulic actuator(33b, 33c) among the plurality of hydraulic actuators(33a, 33b, 33c) is larger than a predetermined output power value, a power corrective control signal that is a control signal for the correction target hydraulic actuator based on a drive pressure of the particular hydraulic actuator(33b, 33c), and the correction target hydraulic actuator is controlled based on a larger one of the power corrective control signal and the trajectory corrective control signal while the particular hydraulic actuator(33b, 33c) is being operated. a multi-joint work device for forming a target construction surface; a plurality of hydraulic actuators(32a, 32b, 32c) for driving the work device based on control signals: and a controller including a trajectory corrective control signal calculation section for calculating based on a distance from the work device to the target construction surface a trajectory corrective control signal that is a control signal for at least one correction target hydraulic actuator among the plurality of hydraulic actuators(33a, 33b, 33c) such that a motion trajectory of the work device is maintained above the target construction surface, characterized in that the controller further includes a power corrective control signal calculation section for calculating, when a difference between a target power and an actual power of at least one particular hydraulic actuator(33b, 33c) among the plurality of hydraulic actuators(33a, 33b, 33c) is larger than a predetermined output power value, a power corrective control signal that is a control signal for the correction target hydraulic actuator based on a drive pressure of the particular hydraulic actuator(33b, 33c), and the correction target hydraulic actuator is controlled based on a larger one of the power corrective control signal and the trajectory corrective control signal while the particular hydraulic actuator(33b, 33c) is being operated.
An image display apparatus comprising: a universal serial bus interface which is operable to be connected to an external device through a power supply line and a data transmission line; a main controller which, if the external device is connected to the USB interface, is operable to activate one of the power supply line and the data transmission line according to a type of the external device; and a USB controller which is operable to determine the type of the external device according to whether descript information is received from the external device, wherein: if descript information is received from the external device, the main controller activates the data transmission line; if the descript information is not received, the main controller activates the power supply line; and the descript information is a USB descriptor. a universal serial bus interface which is operable to be connected to an external device through a power supply line and a data transmission line; a main controller which, if the external device is connected to the USB interface, is operable to activate one of the power supply line and the data transmission line according to a type of the external device; and a USB controller which is operable to determine the type of the external device according to whether descript information is received from the external device, wherein: if descript information is received from the external device, the main controller activates the data transmission line; if the descript information is not received, the main controller activates the power supply line; and the descript information is a USB descriptor. if descript information is received from the external device, the main controller activates the data transmission line; if the descript information is not received, the main controller activates the power supply line; and the descript information is a USB descriptor.
A biosynthetic method of making a glucoside of a capsaicinoid of interest comprising: a) expressing an acyl-CoA synthetase and a capsaicin synthase in a transformed cellular system; b) expressing a UDP-glucosyltransferase in the transformed cellular system, wherein the UDP-glucosyltransferase is a CaUGT2 from C. roseus and either has a DNA sequence similarity of at least 75% with SEQ ID NO: 5 and/or a protein sequence similarity of at least 90% with SEQ ID NO: 6; c) growing the cellular system in a medium; and, d) producing the glucoside of a capsaicinoid of interest. a) expressing an acyl-CoA synthetase and a capsaicin synthase in a transformed cellular system; b) expressing a UDP-glucosyltransferase in the transformed cellular system, wherein the UDP-glucosyltransferase is a CaUGT2 from C. roseus and either has a DNA sequence similarity of at least 75% with SEQ ID NO: 5 and/or a protein sequence similarity of at least 90% with SEQ ID NO: 6; c) growing the cellular system in a medium; and, d) producing the glucoside of a capsaicinoid of interest.
A phase adjustment method to be carried out by a sending device, comprising: obtaining phases and amplitudes of M symbols, wherein M is an integer greater than 1, and the phases of the M symbols are respectively φ 1, φ 2,..., and φ M; and adjusting a phase φ i of each of the M symbols to θ i, wherein 1≤i≤M, and i is an integer; and when i=1, θ 1 = φ 1; or when 2≤ i ≤ M, θ i = φ i + φ sum ( i -1, A th), characterised in that A th indicates a preset amplitude threshold, and φ sum ( i -1, A th) indicates a sum of phases of all symbols whose amplitudes are greater than the amplitude threshold A th in a first symbol to an (i-1) th symbol. obtaining phases and amplitudes of M symbols, wherein M is an integer greater than 1, and the phases of the M symbols are respectively φ 1, φ 2,..., and φ M; and adjusting a phase φ i of each of the M symbols to θ i, wherein 1≤i≤M, and i is an integer; and when i=1, θ 1 = φ 1; or when 2≤ i ≤ M, θ i = φ i + φ sum ( i -1, A th), characterised in that A th indicates a preset amplitude threshold, and φ sum ( i -1, A th) indicates a sum of phases of all symbols whose amplitudes are greater than the amplitude threshold A th in a first symbol to an (i-1) th symbol.
A granule made of biocompatible metallic material, in particular made of titanium or titanium alloys, for vertebroplasty operations, characterized in that it has a spherical shape and comprises a central core with a solid structure, also spherical, having an outer surface from which a first diametrical rib and a second diametrical rib also having a solid structure, protrude, arranged according to two diameters orthogonal to each other, and in that it comprises a portion having a trabeculated structure which extends between the outer surface of said central core and the outer surface of the granule itself.
A magnetic bearing apparatus having electromagnets (2, 3, 202, 203) for rotatably supporting a rotor (1, 201) at a predetermined position by magnetic levitation, while obtaining displacement information on the rotor (1, 201) based on a change in impedances of said electromagnets (2, 3, 202, 203), said magnetic bearing apparatus comprising: a PWM driver (4, 204) configured to supply exciting currents (i1, i2) to said electromagnets (2, 3, 202, 203), said PWM driver (4, 204) being driven at a predetermined carrier frequency (fc); a driver power source (5, 205) configured to drive said PWM driver (4, 204); a current detector (19, 219) configured to detect a current (ie) supplied from said driver power source (5, 205) to said PWM driver (4, 204) to obtain a current signal; and a displacement error signal removing section configured to extract a displacement error signal (verr) of the displacement information from the current signal and to remove the displacement error signal (verr) from the displacement information (vdisp). a PWM driver (4, 204) configured to supply exciting currents (i1, i2) to said electromagnets (2, 3, 202, 203), said PWM driver (4, 204) being driven at a predetermined carrier frequency (fc); a driver power source (5, 205) configured to drive said PWM driver (4, 204); a current detector (19, 219) configured to detect a current (ie) supplied from said driver power source (5, 205) to said PWM driver (4, 204) to obtain a current signal; and a displacement error signal removing section configured to extract a displacement error signal (verr) of the displacement information from the current signal and to remove the displacement error signal (verr) from the displacement information (vdisp).
A herbal composition containing a combination of a) a polar water extract of Lagerstroemia speciosa and b) a polar water extract of Cinnamomum burmanii or fraction(s) derived therefrom. a) a polar water extract of Lagerstroemia speciosa and b) a polar water extract of Cinnamomum burmanii
A compound having Structure I: Structure I; where R 1 and R 2 independently are C 2 - C 12 alkyl groups, R 3 and R 3 ' independently are H or CH 3, X 1 is a C 10 - C 16- alkenyl group, and R 4 is a N,N-bis((meth)acryloylalkyl)-amide group having Structure II: Structure II, where R 5 and R 6 independently are C 2 -C 12 alkyl groups, and R 3 " and R 3 "' independently are either H or CH 3. Structure I; where R 1 and R 2 independently are C 2 - C 12 alkyl groups, R 3 and R 3 ' independently are H or CH 3, X 1 is a C 10 - C 16- alkenyl group, and R 4 is a N,N-bis((meth)acryloylalkyl)-amide group having Structure II: where R 1 and R 2 independently are C 2 - C 12 alkyl groups, R 3 and R 3 ' independently are H or CH 3, X 1 is a C 10 - C 16- alkenyl group, and R 4 is a N,N-bis((meth)acryloylalkyl)-amide group having Structure II: Structure II, where R 5 and R 6 independently are C 2 -C 12 alkyl groups, and R 3 " and R 3 "' independently are either H or CH 3. where R 5 and R 6 independently are C 2 -C 12 alkyl groups, and R 3 " and R 3 "' independently are either H or CH 3.
A method for measuring greenhouse gas, the method comprising: receiving, at a calibration device, a first sample of atmospheric gas from a first port exposed to the earth's atmosphere; receiving, at the calibration device, a second sample of atmospheric gas from a second port exposed to the earth's atmosphere; routing, by the calibration device, the first sample and the second sample to a measurement device for greenhouse gas analysis; determining, by the measurement device, a characteristic of a greenhouse gas present in at least one of the first sample and the second sample; and transmitting, by the measurement device, data associated with the determined characteristic of the greenhouse gas to a server computing device; wherein the method for measuring greenhouse gas uses a distributed greenhouse gas monitoring network comprising a plurality of the measurement devices and respective calibration devices; and each measurement device shares its results with other measurement devices to perform intra-calibration between devices, characterized by: determining, by the server computing device, a source of the greenhouse gas by aggregating the data associated with the determined characteristics of the greenhouse gas received from each of the measurement devices and atmospheric conditions data received from weather observation instruments located at or near the location of each of the measurement devices. receiving, at a calibration device, a first sample of atmospheric gas from a first port exposed to the earth's atmosphere; receiving, at the calibration device, a second sample of atmospheric gas from a second port exposed to the earth's atmosphere; routing, by the calibration device, the first sample and the second sample to a measurement device for greenhouse gas analysis; determining, by the measurement device, a characteristic of a greenhouse gas present in at least one of the first sample and the second sample; and transmitting, by the measurement device, data associated with the determined characteristic of the greenhouse gas to a server computing device; wherein the method for measuring greenhouse gas uses a distributed greenhouse gas monitoring network comprising a plurality of the measurement devices and respective calibration devices; and each measurement device shares its results with other measurement devices to perform intra-calibration between devices, characterized by: determining, by the server computing device, a source of the greenhouse gas by aggregating the data associated with the determined characteristics of the greenhouse gas received from each of the measurement devices and atmospheric conditions data received from weather observation instruments located at or near the location of each of the measurement devices.
An oil pump comprising a pump body, an inner rotor having outer teeth, and an outer rotor having inner teeth, said outer teeth and inner teeth having tooth profiles of a non-toroidal shape, wherein a maximum partition portion is formed between a trailing end side of an intake port and a leading end side of a discharge port in a rotor chamber of the pump body, a minimum partition is formed between a trailing end side of the discharge port and a leading end side of the intake port; in a cell constituted by the outer teeth of the inner rotor and the inner teeth of the outer rotor, the inner tooth of the outer rotor meshes so as to penetrate between the outer teeth of the inner rotor in the minimum partition portion, the inner rotor and the outer rotor being positioned with respect to the pump body such that two outer teeth are left-right symmetrical with respect to a vertical line passing through the rotation center (Qa) of the inner rotor; a total of three cells, namely, a central cell (Sa) positioned at the maximum partition portion location and two adjacent cells (Sb) positioned in front of the central cell (Sa) and behind thereof in the rotation direction are all sealed by mutual contact of the outer teeth and the inner teeth, and the cells on the minimum partition portion side, other than the adjacent cells (Sb), communicate with each other.
A clamp for a character die applicable to manufacturing license plates, signs, or the like by stamping, being of the type which is configured from two independent portions, a lower portion and an upper portion, for receiving the male and female parts of the die of the characters to be stamped, having four partitions (20, 21) on the lower portion as mutual coupling means to be attached in an articulated manner to one another by one of its ends, which partitions (20, 21) are alternately coupled between three thickened sections (30, 31), one wider central section and two narrower side sections determining corresponding grooves separating them in the upper portion, there being channels in said partitions in which lugs of the thickened sections acting as articulation pins fit; incorporating reliefs of varying designs both on the outer surface of the lower portion and on the outer surface of the upper portion for facilitating the gripping; and positioning points have been arranged in specific outer locations of the clamp for the centring and placement thereof, characterised in that on both sides of the central thickening the lugs stemming laterally therefrom are contemplated; and in that in the central partitions of the lower portion there are channels in which the lugs of the upper portion fit on both inner sides thereof.
A system for controlling data caching, comprising: a plurality of data storage structures collectively having an organization corresponding to a structural organization of a dynamic random access memory, DRAM, wherein each of the plurality of data storage structures is a linked list queue organized in a manner corresponding to a rank, bank group, and bank organization of the DRAM, and each linked list queue corresponds to one of a plurality of banks of the DRAM; and a cache controller system configured to: receive a plurality of transaction requests; store data associated with the transaction requests in one or more data storage structures selected from among the plurality of data storage structures based on a memory address associated with each transaction request; and control data transfer to the DRAM using the plurality of data storage structures; select among the plurality of data storage structures based on a sequence, wherein the sequence is based on at least one of a round-robin selection and DRAM page hit information stored in the data storage structures; and evict to the DRAM cached data from locations in a data cache indicated by the data stored in the selected data storage structures. a plurality of data storage structures collectively having an organization corresponding to a structural organization of a dynamic random access memory, DRAM, wherein each of the plurality of data storage structures is a linked list queue organized in a manner corresponding to a rank, bank group, and bank organization of the DRAM, and each linked list queue corresponds to one of a plurality of banks of the DRAM; and a cache controller system configured to: receive a plurality of transaction requests; store data associated with the transaction requests in one or more data storage structures selected from among the plurality of data storage structures based on a memory address associated with each transaction request; and control data transfer to the DRAM using the plurality of data storage structures; select among the plurality of data storage structures based on a sequence, wherein the sequence is based on at least one of a round-robin selection and DRAM page hit information stored in the data storage structures; and evict to the DRAM cached data from locations in a data cache indicated by the data stored in the selected data storage structures. receive a plurality of transaction requests; store data associated with the transaction requests in one or more data storage structures selected from among the plurality of data storage structures based on a memory address associated with each transaction request; and control data transfer to the DRAM using the plurality of data storage structures; select among the plurality of data storage structures based on a sequence, wherein the sequence is based on at least one of a round-robin selection and DRAM page hit information stored in the data storage structures; and evict to the DRAM cached data from locations in a data cache indicated by the data stored in the selected data storage structures.
A shock wave reactor (11a, 11b, 102) for thermal cracking of hydrocarbon-containing feedstock, comprising: a casing wherein a duct is formed with inlet (6, 6a) and outlet; a rotor (1, 1a) the periphery of which contains an axial-flow blade cascade; and a number of stationary vane cascades (8, 9) arranged on the duct wall-defining inner surface of the casing, wherein the casing substantially encloses the periphery of the rotor and a number of stationary vane cascades (8, 9) inside the duct, wherein the stationary vane cascades (8, 9) are adjacently disposed with regard to the axial-flow blade cascade such, as to form a stator-rotor-stator arrangement, in which the cascades (2, 8, 9) are configured to direct feedstock containing process stream to repeatedly pass said cascades within said stator-rotor-stator arrangement in accordance with helical trajectory while propagating within the duct between the inlet and outlet and to generate stationary shock-waves to heat the feedstock. a casing wherein a duct is formed with inlet (6, 6a) and outlet; a rotor (1, 1a) the periphery of which contains an axial-flow blade cascade; and a number of stationary vane cascades (8, 9) arranged on the duct wall-defining inner surface of the casing, wherein the casing substantially encloses the periphery of the rotor and a number of stationary vane cascades (8, 9) inside the duct, wherein the stationary vane cascades (8, 9) are adjacently disposed with regard to the axial-flow blade cascade such, as to form a stator-rotor-stator arrangement, in which the cascades (2, 8, 9) are configured to direct feedstock containing process stream to repeatedly pass said cascades within said stator-rotor-stator arrangement in accordance with helical trajectory while propagating within the duct between the inlet and outlet and to generate stationary shock-waves to heat the feedstock.
A delivery device for implanting a stented prosthetic heart valve, the device comprising: an inner shaft assembly defining a guide wire lumen; an outer sheath defining a distal end, a proximal end, and a guide wire exit port between the distal and proximal ends; and a connector assembly establishing a guide wire passageway between the guide wire lumen and the guide wire exit port; characterized in that: the outer sheath is slidably received over the inner shaft assembly, and the connector assembly comprising a first tubular body and a second tubular body, wherein the first and second tubular bodies (160, 162) combine to define at least a portion of the guide wire passageway, wherein the first body is slidably connected to the second body and the connector assembly is configured to permit sliding movement of the outer sheath relative to the inner shaft assembly. an inner shaft assembly defining a guide wire lumen; an outer sheath defining a distal end, a proximal end, and a guide wire exit port between the distal and proximal ends; and a connector assembly establishing a guide wire passageway between the guide wire lumen and the guide wire exit port; characterized in that: the outer sheath is slidably received over the inner shaft assembly, and the connector assembly comprising a first tubular body and a second tubular body, wherein the first and second tubular bodies (160, 162) combine to define at least a portion of the guide wire passageway, wherein the first body is slidably connected to the second body and the connector assembly is configured to permit sliding movement of the outer sheath relative to the inner shaft assembly. the outer sheath is slidably received over the inner shaft assembly, and the connector assembly comprising a first tubular body and a second tubular body, wherein the first and second tubular bodies (160, 162) combine to define at least a portion of the guide wire passageway, wherein the first body is slidably connected to the second body and the connector assembly is configured to permit sliding movement of the outer sheath relative to the inner shaft assembly.
A polyisoolefin-based polymer composition comprising a multimodal molecular weight distribution comprising a low molecular weight fraction having a peak molecular weight (M p) of less than 100,000 g/mol and a high molecular weight fraction having a peak molecular weight (M p) of greater than 250,000 g/mol, the low molecular weight fraction present in the composition in an amount less than the high molecular weight fraction, wherein the molecular weight is determined by gel permeation chromatography and, wherein the low molecular weight fraction comprises a chain transfer agent incorporated therein.