mhurhangee/ep-ind-claims huggingface dataset:
A system to facilitate interaction among digital personal assistants (108A-108M), the system characterized by comprising: at least one element comprising at least one of (a) a processor, (b) hardware logic, or (c) electrical circuitry; determination logic, implemented using the at least one element, configured to determine whether a first digital personal assistant on a first device associated with a first user is authorized to perform an operation on behalf of a second digital personal assistant on a second device associated with a second user who is different from the first user, the second digital personal assistant being different from the first digital personal assistant and to generate an operation instruction based at least in part on a determination that the first digital personal assistant is authorized to perform the operation on behalf of the second digital personal assistant; and causation logic, implemented using the at least one element, configured to cause the first digital personal assistant to perform the operation on behalf of the second digital personal assistant in response to receipt of the operation instruction at least one element comprising at least one of (a) a processor, (b) hardware logic, or (c) electrical circuitry; determination logic, implemented using the at least one element, configured to determine whether a first digital personal assistant on a first device associated with a first user is authorized to perform an operation on behalf of a second digital personal assistant on a second device associated with a second user who is different from the first user, the second digital personal assistant being different from the first digital personal assistant and to generate an operation instruction based at least in part on a determination that the first digital personal assistant is authorized to perform the operation on behalf of the second digital personal assistant; and causation logic, implemented using the at least one element, configured to cause the first digital personal assistant to perform the operation on behalf of the second digital personal assistant in response to receipt of the operation instruction
A three-dimensional spine correction robot comprises a pillar, a seat, a plurality of human body fixing belts, a head fixing apparatus, and a bracket, said head fixing apparatus is fixed on the top of the bracket, wherein said three-dimensional spine correction robot further comprises a plurality of pillar casing pipes, a spine lateral push-and-pull apparatus and a seat locking mechanism; the pillar casing pipes are sleeved over the pillar in a movable manner, and each pillar casing pipe is connected to a human body fixing belt; the lower end of the pillar casing pipe is connected to the seat, and the upper end thereof is connected to the pillar; a first elastic connection object is connected between the pillar casing pipes; the spine lateral push-and-pull apparatus may move up and down along the pillar and swing; the seat is connected to the pillar through a bearing, and may move up and down along the pillar; and the seat locking mechanism is fixed between the bracket and the seat.
A process for the biotransformation of aromatic acids to their reduced carbon aromatic acids comprising: a) culturing or growing Amycolatopsis mediterranei NCIM 5008 in a fermentor at a temperature in the range of 37-46 °C for 16-24 hours; b) adding the alkaline solution of substrate containing aromatic acid to the fermentation broth of step (a) to obtain the final concentration of 1-15 g/L for aromatic acid; wherein aromatic acid is converted for 24-50 hours and converted liquid containing reduced carbon aromatic acid is obtained; c) centrifuging or filtrating the converted liquid of step (b) to obtain retentate comprising culture cells, and permeate comprising converted liquid with reduced carbon aromatic acid; d) optionally precipitating the converted liquid obtained from step (c) to isolate crude reduced carbon aromatic acid in solid form; and e) optionally recrystallizing the crude reduced carbon aromatic acid from (d) to obtain pure reduced carbon aromatic acid. a) culturing or growing Amycolatopsis mediterranei NCIM 5008 in a fermentor at a temperature in the range of 37-46 °C for 16-24 hours; b) adding the alkaline solution of substrate containing aromatic acid to the fermentation broth of step (a) to obtain the final concentration of 1-15 g/L for aromatic acid; wherein aromatic acid is converted for 24-50 hours and converted liquid containing reduced carbon aromatic acid is obtained; c) centrifuging or filtrating the converted liquid of step (b) to obtain retentate comprising culture cells, and permeate comprising converted liquid with reduced carbon aromatic acid; d) optionally precipitating the converted liquid obtained from step (c) to isolate crude reduced carbon aromatic acid in solid form; and e) optionally recrystallizing the crude reduced carbon aromatic acid from (d) to obtain pure reduced carbon aromatic acid.
Protective covering suitable for covering power, filtering and control blocks (100, 200, 300) of an electronic assembly for a rotary electric machine for a motor vehicle, wherein said protective cover comprises: - openings (401, 402, 403, 404) suitable for generating different flows of cooling air (F1, F2, F3, F4) for thermal dissipation needs of each of the power, control and filtering blocks; - the openings of the protective cover being divided into: - a first set of openings suitable for being positioned facing the fins of a first dissipator coupled to the power block; - a second set of openings suitable for being positioned facing the control block; the two sets of openings (401, 402) being separated by a separating low wall so as to create a first radial flow of cooling air for said power block and a second radial flow of cooling air for said control block; and - a third set of openings that can be positioned facing the fins of a second dissipator coupled to capacitors of the filtering block so as to create a third radial flow of cooling air for said filtering block. - openings (401, 402, 403, 404) suitable for generating different flows of cooling air (F1, F2, F3, F4) for thermal dissipation needs of each of the power, control and filtering blocks; - the openings of the protective cover being divided into: - a first set of openings suitable for being positioned facing the fins of a first dissipator coupled to the power block; - a second set of openings suitable for being positioned facing the control block; the two sets of openings (401, 402) being separated by a separating low wall so as to create a first radial flow of cooling air for said power block and a second radial flow of cooling air for said control block; and - a third set of openings that can be positioned facing the fins of a second dissipator coupled to capacitors of the filtering block so as to create a third radial flow of cooling air for said filtering block. - a first set of openings suitable for being positioned facing the fins of a first dissipator coupled to the power block; - a second set of openings suitable for being positioned facing the control block; the two sets of openings (401, 402) being separated by a separating low wall so as to create a first radial flow of cooling air for said power block and a second radial flow of cooling air for said control block; and - a third set of openings that can be positioned facing the fins of a second dissipator coupled to capacitors of the filtering block so as to create a third radial flow of cooling air for said filtering block.
An RFID label inspection apparatus for inspecting an RFID label sheet in which an RFID label encasing an RFID tag is temporarily adhered to a strip-form backing sheet at regular intervals, comprising: a conveyance path for the RFID label sheet, RFID label quality determining means (104, 150) for determining the quality of said RFID label; RFID label peeling means (108, 135) for peeling said RFID label away from said backing sheet when said RFID label is determined to be defective by said RFID label quality determining means (104, 150); and RFID label temporary adhering means for temporarily adhering a replacement RFID label to said backing sheet in a former temporary adhesion position of said RFID label peeled away by said RFID label peeling means; wherein the RFID label quality determining means (104, 150) the RFID label peeling means (108, 135) and the RFID label temporary adhering means are disposed in sequence from the upstream side of the conveyance path, characterized in that said RFID label peeling means comprises a first roller having a protrusion formed in a predetermined position on an outer peripheral portion thereof, and said RFID label is peeled away from said backing sheet by rotating said first roller such that said protrusion is pressed against a rear surface of said RFID label sheet. a conveyance path for the RFID label sheet, RFID label quality determining means (104, 150) for determining the quality of said RFID label; RFID label peeling means (108, 135) for peeling said RFID label away from said backing sheet when said RFID label is determined to be defective by said RFID label quality determining means (104, 150); and RFID label temporary adhering means for temporarily adhering a replacement RFID label to said backing sheet in a former temporary adhesion position of said RFID label peeled away by said RFID label peeling means; wherein the RFID label quality determining means (104, 150) the RFID label peeling means (108, 135) and the RFID label temporary adhering means are disposed in sequence from the upstream side of the conveyance path, characterized in that said RFID label peeling means comprises a first roller having a protrusion formed in a predetermined position on an outer peripheral portion thereof, and said RFID label is peeled away from said backing sheet by rotating said first roller such that said protrusion is pressed against a rear surface of said RFID label sheet.
Process for applying noise reducer elements to tyres for vehicle wheels, comprising: arranging at least one stack of noise reducer elements; extracting said noise reducer elements one at a time from said at least one stack; and feeding, in succession, said noise reducer elements extracted from the stack according to a pre-established path; picking up said noise reducer elements from said pre-established path; applying said noise reducer elements to a radially inner surface of at least one tyre for vehicle wheels; wherein extracting said noise reducer elements one at a time comprises: retaining a first noise reducer element placed at the base of said at least one stack; lifting the remaining noise reducer elements of said at least one stack with respect to said first noise reducer element; moving away the first noise reducer element according to the pre-established path; lowering the remaining noise reducer elements of said at least one stack. arranging at least one stack of noise reducer elements; extracting said noise reducer elements one at a time from said at least one stack; and feeding, in succession, said noise reducer elements extracted from the stack according to a pre-established path; picking up said noise reducer elements from said pre-established path; applying said noise reducer elements to a radially inner surface of at least one tyre for vehicle wheels; wherein extracting said noise reducer elements one at a time comprises: retaining a first noise reducer element placed at the base of said at least one stack; lifting the remaining noise reducer elements of said at least one stack with respect to said first noise reducer element; moving away the first noise reducer element according to the pre-established path; lowering the remaining noise reducer elements of said at least one stack. retaining a first noise reducer element placed at the base of said at least one stack; lifting the remaining noise reducer elements of said at least one stack with respect to said first noise reducer element; moving away the first noise reducer element according to the pre-established path; lowering the remaining noise reducer elements of said at least one stack.
A computer-implemented method, comprising: detecting (303, 805) that a first message, sent to a recipient device from a sender device, comprises suspicious content; receiving (308, 810), from the recipient device, user interaction information indicating that a user of the recipient device has sent a reply message in response to the first message; generating a modified message by modifying (309, 815) a first source number corresponding to the reply message; causing (310A-B, 820) transmission of the modified message with the modified first source number to the sender device; intercepting (312, 825) one or more additional messages between the sender device and the modified first source number; and redirecting (313, 830) the one or more additional messages. detecting (303, 805) that a first message, sent to a recipient device from a sender device, comprises suspicious content; receiving (308, 810), from the recipient device, user interaction information indicating that a user of the recipient device has sent a reply message in response to the first message; generating a modified message by modifying (309, 815) a first source number corresponding to the reply message; causing (310A-B, 820) transmission of the modified message with the modified first source number to the sender device; intercepting (312, 825) one or more additional messages between the sender device and the modified first source number; and redirecting (313, 830) the one or more additional messages.
An implant comprising a unitary body including an intramedullary portion connected to an extramedullary portion, the unitary body configured to attach a first bone section to a second bone section, wherein the intramedullary portion has a first longitudinal axis and is configured for insertion into the first bone section, the intramedullary portion including at least one first fastener aperture having an aperture axis oriented obliquely relative to the first longitudinal axis, wherein the extramedullary portion is configured to abut a surface of the second bone section and includes at least one second fastener aperture disposed to transversely receive a bone fastener inserted in the second bone section, the extramedullary portion having a second longitudinal axis offset from the first longitudinal axis, and wherein the extramedullary portion has a first side facing radially inward toward the first longitudinal axis and one second side facing radially outward from the first longitudinal axis, the second side having a concave surface adapted to engage a curved bone surface. wherein the intramedullary portion has a first longitudinal axis and is configured for insertion into the first bone section, the intramedullary portion including at least one first fastener aperture having an aperture axis oriented obliquely relative to the first longitudinal axis, wherein the extramedullary portion is configured to abut a surface of the second bone section and includes at least one second fastener aperture disposed to transversely receive a bone fastener inserted in the second bone section, the extramedullary portion having a second longitudinal axis offset from the first longitudinal axis, and wherein the extramedullary portion has a first side facing radially inward toward the first longitudinal axis and one second side facing radially outward from the first longitudinal axis, the second side having a concave surface adapted to engage a curved bone surface.
A microstrip radiation unit, comprising a dielectric substrate, a radiation circuit and a feed circuit; wherein the dielectric substrate is integrally formed by injection molding, and comprises a top portion, a support portion and a welding portion, and the support portion is connected to the top portion and the welding portion respectively; the support portion is a single column structure or is composed of a plurality of support components, and the welding portion is used for providing the electrical connection between the feed circuit and a feed network when being connected with the feed network; the radiation circuit is arranged on an upper surface of the top portion, and the feed circuit comprises an intermediate connecting portion that extends along an outer surface of the support portion, and a bottom welding portion arranged on the welding portion and connected to the intermediate connecting portion; and an extension hole is provided in the center of the top portion, and extends towards the direction of the welding portion in the support portion; and the radiation circuit is extended to and arranged on a wall of the extension hole, characterized in that, the feed circuit comprises a top feed circuit arranged on a lower surface of the top portion and connected to the intermediate connecting portion, wherein the feed circuit has an elongated shape with a first end being the bottom welding portion and a second end being the top feed circuit. a dielectric substrate, a radiation circuit and a feed circuit; wherein the dielectric substrate is integrally formed by injection molding, and comprises a top portion, a support portion and a welding portion, and the support portion is connected to the top portion and the welding portion respectively; the support portion is a single column structure or is composed of a plurality of support components, and the welding portion is used for providing the electrical connection between the feed circuit and a feed network when being connected with the feed network; the radiation circuit is arranged on an upper surface of the top portion, and the feed circuit comprises an intermediate connecting portion that extends along an outer surface of the support portion, and a bottom welding portion arranged on the welding portion and connected to the intermediate connecting portion; and an extension hole is provided in the center of the top portion, and extends towards the direction of the welding portion in the support portion; and the radiation circuit is extended to and arranged on a wall of the extension hole, characterized in that, the feed circuit comprises a top feed circuit arranged on a lower surface of the top portion and connected to the intermediate connecting portion, wherein the feed circuit has an elongated shape with a first end being the bottom welding portion and a second end being the top feed circuit.
A method for producing a fiber-reinforced molding substrate comprising: withdrawing and continuously feeding a bundle of continuous reinforcing fibers; combining cyclic polyarylene sulfide with the reinforcing fiber bundle; heating the composite of the reinforcing fiber bundle and the cyclic polyarylene sulfide obtained in step to 200°C to 450°C and subjecting the cyclic polyarylene sulfide to ring-opening polymerization to convert into polyarylene sulfide; and cooling the composite obtained in step and withdrawing the same, wherein the weight average molecular weight of the cyclic polyarylene sulfide combined in step is less than 5,000 and the weight average molecular weight of the polyarylene sulfide after ring-opening polymerization in step is 5,000 or greater. withdrawing and continuously feeding a bundle of continuous reinforcing fibers; combining cyclic polyarylene sulfide with the reinforcing fiber bundle; heating the composite of the reinforcing fiber bundle and the cyclic polyarylene sulfide obtained in step to 200°C to 450°C and subjecting the cyclic polyarylene sulfide to ring-opening polymerization to convert into polyarylene sulfide; and cooling the composite obtained in step and withdrawing the same,
A method of producing olefinic monomers for the production of a polymer, characterized in the following stages: - bio oil, which consists of 75 to 98 wt % of fatty acids of tall oil and 2 to 25 wt% of resin acids of tall oil, and hydrogen gas are fed into a catalyst bed; - the oil is catalytically deoxygenated by hydrogen in the bed; - the flow exiting the bed is cooled down and divided into a hydrocarbon-bearing liquid phase and a gas phase; and - the hydrocarbon-bearing liquid is subjected to steam cracking to form a product containing polymerizing olefins. - bio oil, which consists of 75 to 98 wt % of fatty acids of tall oil and 2 to 25 wt% of resin acids of tall oil, and hydrogen gas are fed into a catalyst bed; - the oil is catalytically deoxygenated by hydrogen in the bed; - the flow exiting the bed is cooled down and divided into a hydrocarbon-bearing liquid phase and a gas phase; and - the hydrocarbon-bearing liquid is subjected to steam cracking to form a product containing polymerizing olefins.
A method for receiving control information by a base station, BS, in a wireless communication system, the method comprising: selecting a BS receive beam for uplink communication with a mobile station, MS (210,220,230), wherein the selected BS receive beam is one of a plurality of BS receive beams formed by an antenna array of the BS; identifying a control channel region mapped to the selected BS receive beam from among a plurality of control channel regions in an uplink interval (506; 606; 706; 806); and receiving control information from the MS on the identified control channel region through the selected BS receive beam, wherein the uplink interval (506; 606; 706; 806) includes the plurality of control channel regions corresponding to the plurality of BS receive beams respectively, and wherein each of the plurality of control channel regions is allocated to one or more MSs having a same BS receive beam for uplink communication. selecting a BS receive beam for uplink communication with a mobile station, MS (210,220,230), wherein the selected BS receive beam is one of a plurality of BS receive beams formed by an antenna array of the BS; identifying a control channel region mapped to the selected BS receive beam from among a plurality of control channel regions in an uplink interval (506; 606; 706; 806); and receiving control information from the MS on the identified control channel region through the selected BS receive beam, wherein the uplink interval (506; 606; 706; 806) includes the plurality of control channel regions corresponding to the plurality of BS receive beams respectively, and wherein each of the plurality of control channel regions is allocated to one or more MSs having a same BS receive beam for uplink communication.