mhurhangee/ep-ind-claims huggingface dataset:
Command and control assembly for inflating and deflating a hydrostatic balancing jacket, comprising a primary supply duct (901; 902) connected to an end of the air chamber of the jacket and provided, at the opposite end with, a handpiece (1;2) provided with mouthpiece means (601, 611; 602, 612), a connection socket (201; 202) being provided on said handpiece for connecting to a secondary supply duct (211; 212) connected to a compressed air tank, and a pneumatic actuation duct (801; 802) to actuate the discharge valves of said jacket being provided, in fluidic communication with said secondary supply duct (211; 212), the control means (301, 311, 321, 331; 502, 512, 522, 532) of the delivery from said secondary duct, the control means (501, 511, 521, 531; 302, 312, 322, 332) of the delivery to said pneumatic actuation duct (801; 802), and the control means (701, 711, 721, 731; 702, 712, 722, 732) of the delivery from said mouthpiece means (601, 611; 602, 612) being arranged on said handpiece, wherein said control means of the delivery from said secondary duct and said control means of the delivery to said pneumatic actuation duct (801; 802) comprise two valves, characterized in that the said two valves are operated alternatively by means of a unique actuation organ, the two valves comprising each an actuation button (321, 521) and the said buttons being placed one beside the other at a certain distance, a rocker lever being provided which is supported oscillating around an intermediate axis perpendicular to the longitudinal extension of the rocker lever, and the said rocker lever being provided with two opposite ends (620, 630) on opposite sides of the oscillation axis, the said opposite ends of the rocker level being positioned in contact with respectively one of the said buttons, such that acting a pressure alternatively on one of the two opposite ends (620, 630) of the said rocker lever one corresponding button of the said two buttons is operated in order to operate the corresponding valve, while the other button is maintained inactivated or at rest in a position non-operating the corresponding valve
Magnetic gripper for grabbing and releasing magnetic materials, comprising a frame provided with gripping means with which the magnetic gripper can be grabbed by a lifting device, characterized in that the magnetic gripper further contains at least the following elements: - two or more bistable magnets, which can at least be switched between an on mode, in which the bistable magnet concerned can exert a magnetic gripping force on magnetic material to be grabbed, and an off mode, in which the bistable magnet concerned can exert no or practically no magnetic gripping force on magnetic material to be grabbed; - a control unit for generating electrical pulses to put the bistable magnets in the corresponding desired positions; and, - an electric battery which serves as an autonomous source of energy for generating the electrical pulses. - two or more bistable magnets, which can at least be switched between an on mode, in which the bistable magnet concerned can exert a magnetic gripping force on magnetic material to be grabbed, and an off mode, in which the bistable magnet concerned can exert no or practically no magnetic gripping force on magnetic material to be grabbed; - a control unit for generating electrical pulses to put the bistable magnets in the corresponding desired positions; and, - an electric battery which serves as an autonomous source of energy for generating the electrical pulses.
A method of separating toluene from multiple hydrocarbon streams, the method comprising: fractionating a first hydrocarbon stream in a first fractionation zone into a first fractionation overhead stream and a first fractionation bottom stream, wherein the first hydrocarbon stream comprises a benzene-depleted fractionation bottom stream from benzene fractionation, and wherein the first fractionation overhead stream comprises toluene; fractionating a second hydrocarbon stream different from the first hydrocarbon stream in a second fractionation zone into a second fractionation overhead stream and a second fractionation bottom stream, wherein the second fractionation zone is in liquid isolation from and in vapor communication with the first fractionation zone, wherein the second hydrocarbon stream comprises toluene and is substantially free of compounds having a higher vapor pressure than toluene, and wherein the second fractionation overhead stream comprises toluene; separately removing the first fractionation bottom stream from the first fractionation zone and the second fractionation bottom stream from the second fractionation zone; and combining the first fractionation overhead stream from the first fractionation zone and the second fractionation overhead stream from the second fractionation zone to produce a combined fractionation overhead stream comprising toluene. fractionating a first hydrocarbon stream in a first fractionation zone into a first fractionation overhead stream and a first fractionation bottom stream, wherein the first hydrocarbon stream comprises a benzene-depleted fractionation bottom stream from benzene fractionation, and wherein the first fractionation overhead stream comprises toluene; fractionating a second hydrocarbon stream different from the first hydrocarbon stream in a second fractionation zone into a second fractionation overhead stream and a second fractionation bottom stream, wherein the second fractionation zone is in liquid isolation from and in vapor communication with the first fractionation zone, wherein the second hydrocarbon stream comprises toluene and is substantially free of compounds having a higher vapor pressure than toluene, and wherein the second fractionation overhead stream comprises toluene; separately removing the first fractionation bottom stream from the first fractionation zone and the second fractionation bottom stream from the second fractionation zone; and combining the first fractionation overhead stream from the first fractionation zone and the second fractionation overhead stream from the second fractionation zone to produce a combined fractionation overhead stream comprising toluene.
An injectable or implantable composition comprising collagen covalently bound to particles, wherein covalent amide bonds are formed between free carboxylic acid groups of collagen and amine reactive groups of the particles, and wherein the particles have an average particle diameter size ranging from 60 to 900 nanometers.
A method of managing memory access to a shared memory location (104; 106) within a transaction of a first thread, the shared memory location (104; 106) being accessible by the first thread and a second thread, the method comprising performing, by the first thread, the steps of: Identifying an enlistment record (118; 120) associated with the shared memory location (104; 106); marking the enlistment record (118; 120) to reserve the shared memory location (104; 106) for the transaction by enlisting a write operation on the shared memory location within the transaction, if the enlistment record (118; 120) indicates no conflict with a write memory access to the shared memory location by the second thread; and performing within the transaction a write memory access to the shared memory location (104; 106), responsive to the marking operation; recording a reference to the shared memory location and its contents in an undo log before the shared memory location is updated. Identifying an enlistment record (118; 120) associated with the shared memory location (104; 106); marking the enlistment record (118; 120) to reserve the shared memory location (104; 106) for the transaction by enlisting a write operation on the shared memory location within the transaction, if the enlistment record (118; 120) indicates no conflict with a write memory access to the shared memory location by the second thread; and performing within the transaction a write memory access to the shared memory location (104; 106), responsive to the marking operation; recording a reference to the shared memory location and its contents in an undo log before the shared memory location is updated.
A wafer check valve assembly comprising: a body member having a mating side and an inlet side, the body member mating side including first, second and third mating surfaces and a shaft groove; a retainer member having a mating side and an outlet side, the retainer member mating side including fourth, fifth and sixth mating surfaces and a first gasketing material positioned proximal to the fifth mating surface; a disc member provided with a shaft member; wherein, when the body member, retainer member and disc member are releasably mated together: (i) at least a portion of the shaft member of the disc member is rotatably housed between the body member and the retainer member and within at least a portion of the shaft groove of the body member, (ii) at least a portion of the first and fourth mating surfaces are positioned proximal to one another, (iii) at least a portion of the second and fifth mating surfaces are positioned proximal to one another, and (iv) at least a portion of the third and sixth mating surfaces are positioned proximal to one another, so to define a mating pocket that houses the first gasketing material, the first gasketing material thereby forming a seal between the body member and the retainer member to releasably secure the body member, retainer member and the disc member together, characterized in that a tapered surface of the mating side of the body member extends from the third mating surface of the body member toward the inlet side of the body member from a first end of a port opening to a second end of the port opening. a body member having a mating side and an inlet side, the body member mating side including first, second and third mating surfaces and a shaft groove; a retainer member having a mating side and an outlet side, the retainer member mating side including fourth, fifth and sixth mating surfaces and a first gasketing material positioned proximal to the fifth mating surface; a disc member provided with a shaft member; wherein, when the body member, retainer member and disc member are releasably mated together: (i) at least a portion of the shaft member of the disc member is rotatably housed between the body member and the retainer member and within at least a portion of the shaft groove of the body member, (ii) at least a portion of the first and fourth mating surfaces are positioned proximal to one another, (iii) at least a portion of the second and fifth mating surfaces are positioned proximal to one another, and (iv) at least a portion of the third and sixth mating surfaces are positioned proximal to one another, so to define a mating pocket that houses the first gasketing material, the first gasketing material thereby forming a seal between the body member and the retainer member to releasably secure the body member, retainer member and the disc member together, characterized in that a tapered surface of the mating side of the body member extends from the third mating surface of the body member toward the inlet side of the body member from a first end of a port opening to a second end of the port opening.
A data processing apparatus for a user device for use in a computer network, the data processing apparatus comprising at least one processor, and at least one memory including computer program code, wherein the at least one memory and the computer program code are configured, with the at least one processor, to: create a virtual smart card entity at the user device to enable a user of the user device secure access to at least one service provider host in the computer network, characterized in that the data processing apparatus is further configured to: request for credential information associated with the virtual smart card from a credential management server for a new request for access, wherein credential information is requested for each new request for access, receive, at the user device from the credential management server, the requested credential information associated with the virtual smart card entity, reconfigure the virtual smart card entity at the user device according to the received credential information, and send the new request for access from the user device to the at least one service provider host using credential information from the reconfigured virtual smart card entity. request for credential information associated with the virtual smart card from a credential management server for a new request for access, wherein credential information is requested for each new request for access, receive, at the user device from the credential management server, the requested credential information associated with the virtual smart card entity, reconfigure the virtual smart card entity at the user device according to the received credential information, and send the new request for access from the user device to the at least one service provider host using credential information from the reconfigured virtual smart card entity.
Driving stage of a servo valve, the driving stage including a hydraulic unit for ejecting a jet of fluid and a hydraulic unit for receiving the jet of fluid, the hydraulic units (30, 6) being able to be moved relative to each other so as to change their relative position and thereby to generate a pressure differential, one of the two hydraulic units being fixedly mounted on a body of the servo valve and the other of the two hydraulic units being integral with a mobile unit of the driving stage, movable relative to a body of the servo valve through actuating means, the actuating means comprising a first piezoelectric actuator and a second piezoelectric actuator connected in series, characterized in that the maximum elongation (Amax41) of the first piezoelectric actuator is substantially equal to half the maximum elongation (Amax42) of the second piezoelectric actuator.
A plasmin for use in treating filtration failure after trabeculectomy surgery of an eye, or for preventing, reducing or retarding the occurrence of filtration failure after trabeculectomy surgery of an eye.
Method of manufacturing a sheet metal product, comprising the following steps: a) providing a molten magnesium alloy consisting of - 0.2 wt% to 2 wt% Zn, - an amount of Ca, - 0.0 wt% to 0.3 wt% Zr, - 0.0 wt% to 1.0 wt% rare earth elements and/or Sr, - unavoidable impurities, and - the balance being Mg b) forming a strip in a twin roll casting process, c) performing a warm rolling process on the strip and d) performing a subsequent heat treatment on the strip at 250°C to 450°C for 0,5 min to 60 min, characterized in that the amount of Ca is chosen from an interval [0.1 wt%, 0.4 wt%[. a) providing a molten magnesium alloy consisting of - 0.2 wt% to 2 wt% Zn, - an amount of Ca, - 0.0 wt% to 0.3 wt% Zr, - 0.0 wt% to 1.0 wt% rare earth elements and/or Sr, - unavoidable impurities, and - the balance being Mg - 0.2 wt% to 2 wt% Zn, - an amount of Ca, - 0.0 wt% to 0.3 wt% Zr, - 0.0 wt% to 1.0 wt% rare earth elements and/or Sr, - unavoidable impurities, and - the balance being Mg b) forming a strip in a twin roll casting process, c) performing a warm rolling process on the strip and d) performing a subsequent heat treatment on the strip at 250°C to 450°C for 0,5 min to 60 min,
A structural integrity monitoring system comprising: a structure; at least two vibration monitoring devices mounted to the structure, each of the at least two vibration monitoring devices outputting a vibration response signal; and a controller operatively connected to each of the at least two vibration monitoring devices, characterized in that the controller is adapted to determine a mode shape matrix and a vibration matrix based on the vibration response signal obtained with known excitation input signal and to calculate a coefficient matrix based on the mode shape matrix and the vibration matrix, wherein the coefficient matrix describes the predicted vibration response independent of any load applied to the structure or any external conditions and wherein the controller is adapted to compare the predicted vibration response against the real time measured vibration response to detect changes in the structure. a structure; at least two vibration monitoring devices mounted to the structure, each of the at least two vibration monitoring devices outputting a vibration response signal; and a controller operatively connected to each of the at least two vibration monitoring devices, characterized in that the controller is adapted to determine a mode shape matrix and a vibration matrix based on the vibration response signal obtained with known excitation input signal and to calculate a coefficient matrix based on the mode shape matrix and the vibration matrix, wherein the coefficient matrix describes the predicted vibration response independent of any load applied to the structure or any external conditions and wherein the controller is adapted to compare the predicted vibration response against the real time measured vibration response to detect changes in the structure.
Method of managing unusable printed products in a system for processing printing substrates, the system consisting of at least one computer (3, 8, 10) and at least one printing machine, the method comprising the steps of allotting by means of a computer a central ID for every print product to be processed in the system, assigning specific events to every ID by means of the computer (3, 8, 10), printing on print products in a printing machine of the system, examining the print products that have been printed in this way by means of a computer-assisted image recording system, and, as a function of the examining step, assigning a specific state to every one of the printed print products by means of the computer (3, 8, 10), assigning, by means of the computer (3, 8, 10) all recorded states to a respective specific event, and initiating the specific event for all of the printed print products as a function of the respective assigned state of the respective print product and of a specific further processing by means of the computer (3, 8, 10), wherein the printing machine is a sheet-fed printing machine, characterized in that the computer (3, 8, 10) assigns an ID to every utilized print sheet in a corresponding way, in that, in case of further processing in the sheet-fed printing machine, the events comprise activating a good sheet counter or stopping the printing machine and, in case of further processing in a separate further processing unit, the events comprise feeding the printed print product to the separate further processing unit, separately depositing the printed print product as a sample sheet, stopping the separate further processing unit, as well as loading provided configuration data for an autonomous presetting of the separate further processing unit and in that in both cases, the events comprise removing the printed product as unusable.
A crank shaft seal flange with a carrier, which is at least partially made of plastic and has at least one dynamic seal, which runs across the circumference of the inner wall of a passage of the carrier, and with at least one sensor provided for detecting the rotational speed and the position of the crank shaft, said sensor essentially being composed of one electronic assembly, characterized in that the carrier is fully made of plastic using a mould injection process, and that the electronic assembly of the sensor is integrated into the plastic of the carrier during the mould injection of the seal flange.
A radar device comprising: a printed circuit board, PCB, comprising a ground plane, a radar sensor chip package mounted on the PCB and comprising a mmWave radio frequency, RF, integrated circuit and a planar antenna structure configured as an antenna-in-package and oriented in a plane parallel to the ground plane, wherein the mmWave RF integrated circuit is configured to output a mmWave signal to be transmitted by the planar antenna structure, and a cavity, wherein the radar sensor chip package is arranged in the cavity, the cavity having an open side, and the cavity being defined by a conductive rear wall surface opposite the open side, a pair of mutually opposite and conductive sidewall surfaces, a conductive top surface, and a conductive bottom surface, wherein at least a portion of the conductive bottom surface is formed by at least a portion of the ground plane of the PCB, and wherein the sidewall surfaces, the top surface, and the bottom surface (1406, 1408, 1410) each extends from the rear wall surface towards the open side of the cavity, wherein a width dimension and a height dimension of the cavity are such that a mmWave signal output by the mmWave RF integrated circuit and transmitted by the planar antenna structure excites at least one resonant mode of the cavity. a printed circuit board, PCB, comprising a ground plane, a radar sensor chip package mounted on the PCB and comprising a mmWave radio frequency, RF, integrated circuit and a planar antenna structure configured as an antenna-in-package and oriented in a plane parallel to the ground plane, wherein the mmWave RF integrated circuit is configured to output a mmWave signal to be transmitted by the planar antenna structure, and a cavity, wherein the radar sensor chip package is arranged in the cavity, the cavity having an open side, and the cavity being defined by a conductive rear wall surface opposite the open side, a pair of mutually opposite and conductive sidewall surfaces, a conductive top surface, and a conductive bottom surface, wherein at least a portion of the conductive bottom surface is formed by at least a portion of the ground plane of the PCB, and wherein the sidewall surfaces, the top surface, and the bottom surface (1406, 1408, 1410) each extends from the rear wall surface towards the open side of the cavity, wherein a width dimension and a height dimension of the cavity are such that a mmWave signal output by the mmWave RF integrated circuit and transmitted by the planar antenna structure excites at least one resonant mode of the cavity.
A method for ensuring delivery packet data convergence protocol, PDCP, packets in a wireless communication, the method comprising: performing re-establishment of a PDCP entity based on a handover error, wherein performing re-establishment of the PDCP entity comprises resetting a header compression entity and operation state; generating a PDCP-STATUS message based on a PDCP event, the generation of the PDCP-STATUS message based on the PDCP event being configured by radio resource control, RRC, signaling, wherein the PDCP-STATUS message comprises a starting sequence number and a bitmap, the starting sequence number is a sequence number of a PDCP service data unit, SDU, that has not been successfully received, and the bitmap comprises a plurality of bits, each bit representing a status for one PDCP SDU of one or more consecutive PDCP SDUs; sending the PDCP-STATUS message to a peer entity using a PDPC control packet data unit, PDU. performing re-establishment of a PDCP entity based on a handover error, wherein performing re-establishment of the PDCP entity comprises resetting a header compression entity and operation state; generating a PDCP-STATUS message based on a PDCP event, the generation of the PDCP-STATUS message based on the PDCP event being configured by radio resource control, RRC, signaling, wherein the PDCP-STATUS message comprises a starting sequence number and a bitmap, the starting sequence number is a sequence number of a PDCP service data unit, SDU, that has not been successfully received, and the bitmap comprises a plurality of bits, each bit representing a status for one PDCP SDU of one or more consecutive PDCP SDUs; sending the PDCP-STATUS message to a peer entity using a PDPC control packet data unit, PDU.