mhurhangee/ep-ind-claims huggingface dataset:
A catheter comprising an elongate shaft, an insertable end formed in or connected to one end of said elongate shaft, and a discharge end formed in or connected to the opposite end of said elongate shaft, wherein said catheter further comprises an insertion aid at least partly encircling said discharge end, and being integrally connected to and easily removable from said discharge end, characterized in that the discharge end and the insertion aid are formed and connected by means of injection molding.
Method of sending of data symbols by a sender device comprising a number M of send antennas, destined for a receiver device comprising a number N+C of receive antennas, M, N and C being integer parameters greater than or equal to 1, the said method of sending comprising: - a step of spatial frequency multiplexing of a block of N data symbols D 1, D 2,..., D N resulting in a block of N useful spatial symbols S" u, 1, S u, 2,..., S u,N, this step using an inverse discrete Fourier transform (IDFT); - a step of adding C spatial redundancy symbols to the block of N useful spatial symbols, resulting in a block of N+C spatial symbols S 1, S 2,..., S N+C; and - a step of precoding the block of N+C spatial symbols S 1, S 2,..., S N+C with the aid of a focusing matrix of dimensions Mx(N+C), the said precoding step providing M precoded spatial symbols X 1, X 2,..., X M, each precoded spatial symbol being sent on a distinct send antenna of the sender device. - a step of spatial frequency multiplexing of a block of N data symbols D 1, D 2,..., D N resulting in a block of N useful spatial symbols S" u, 1, S u, 2,..., S u,N, this step using an inverse discrete Fourier transform (IDFT); - a step of adding C spatial redundancy symbols to the block of N useful spatial symbols, resulting in a block of N+C spatial symbols S 1, S 2,..., S N+C; and - a step of precoding the block of N+C spatial symbols S 1, S 2,..., S N+C with the aid of a focusing matrix of dimensions Mx(N+C), the said precoding step providing M precoded spatial symbols X 1, X 2,..., X M, each precoded spatial symbol being sent on a distinct send antenna of the sender device.
A process for preparing a ligand, the process comprising contacting an alcohol selected from the group consisting of 3-((2-bromobenzyl)oxy)propan-l-ol or 2-((2-bromobenzyl)oxy)ethanol and bromocresol in a reaction medium under reaction conditions in the presence of triphenylphosphine and diisopropylazodicarboxylate to make a bridging reactant; and contacting a first reactant with the bridging reactant in a polar aprotic reaction medium under reaction conditions, thereby forming the ligand; wherein: (a) when the first reactant is 2-((tetrahydro-2H-pyran-2-yl)oxy)-[1,1'-biphenyl]-3-yl lithium, the bridging reactant is 2-bromo-1-(3-((2-bromobenzyl)oxy)propoxy)-4-methylbenzene, and the ligand is 2-(3-((2'-hydroxy-[1,1':3',1"-terphenyl]-2-yl)methoxy)propoxy)-5-methyl-[1,1':3',1"-terphenyl]-2'-ol (Ligand AP); or wherein (b) when the first reactant is 2',5,5'-trimethyl-2-((methoxymethoxy)-[1,1'-biphenyl]-3-yl lithium, the bridging reactant is 2-bromo-1-(3-((2-bromobenzyl)oxy)propoxy)-4-methylbenzene, and the ligand is 2-(3-((2'-hydroxy-2",5',5"-trimethyl-[1,1':3',1"-terphenyl]-2-yl)methoxy)propoxy)-2",5,5',5"-tetramethyl-[1,1':3',1"-terphenyl]-2'-ol (Ligand BP); or wherein (c) when the first reactant is 2-(methoxymethoxy)-5-methyl-3-(2-methylnaphthalen-1-yl)phenyl) lithium, the bridging reactant is 2-bromo-1-(3-((2-bromobenzyl)oxy)propoxy)-4-methylbenzene, and the ligand is 2'-(3-((2'-hydroxy-5'-methyl-3'-(2-methylnaphthalen-l-yl)-[1,1'-biphenyl]-2-yl)methoxy)propoxy)-5,5'-dimethyl-3-(2-methylnaphthalen-l-yl)-[1,1'-biphenyl]-2-ol (Ligand CP).
A wireless device comprising storage and processing circuitry configured to: cause to send a beacon frame, wherein the beacon frame corresponds to a beacon interval; wherein the storage and processing circuitry further configured to: generate a first trigger frame, the first trigger frame comprising an indication that a second trigger frame is to be transmitted during the beacon interval, and an indication of a first resource unit for orthogonal frequency division multiple access communication; generate the second trigger frame, the second trigger frame comprising an indication of a second resource unit for orthogonal frequency division multiple access communication and information to be utilized by a receiving station to determine a power state transition; cause to send the first trigger frame to one or more station devices during the beacon interval; and cause to send the second trigger frame to the one or more station devices during the beacon interval. generate a first trigger frame, the first trigger frame comprising an indication that a second trigger frame is to be transmitted during the beacon interval, and an indication of a first resource unit for orthogonal frequency division multiple access communication; generate the second trigger frame, the second trigger frame comprising an indication of a second resource unit for orthogonal frequency division multiple access communication and information to be utilized by a receiving station to determine a power state transition; cause to send the first trigger frame to one or more station devices during the beacon interval; and cause to send the second trigger frame to the one or more station devices during the beacon interval.
A method for operating an ophthalmologic apparatus comprising: a first measurement unit set at a first set operating distance to measure a subject eye of a subject; a second measurement unit set at a second set operating distance shorter than the first set operating distance to measure the subject eye; a driver that moves the first measurement unit and the second measurement unit relative to the subject eye; and a controller that controls the first measurement unit, the second measurement unit, and the driver, characterized in that the method comprises the steps of obtaining by the controller a displacement of the first measurement unit in each of an up and down direction, a right and left direction, and a back and forth direction, which are orthogonal to each other, in the ophthalmologic apparatus as a distance between both eyes (dm) of right and left subject eyes when the first measurement unit is characterized by the moved to measure the right and left subject eyes of the subject, and step of moving by the controller, after one subject eye is measured with the second measurement unit, the second measurement unit to the other subject eye by the displacement in each of the up and down direction, the right and left direction, and the back and forth direction obtained as the distance between both eyes (dm). a first measurement unit set at a first set operating distance to measure a subject eye of a subject; a second measurement unit set at a second set operating distance shorter than the first set operating distance to measure the subject eye; a driver that moves the first measurement unit and the second measurement unit relative to the subject eye; and a controller that controls the first measurement unit, the second measurement unit, and the driver, characterized in that the method comprises the steps of obtaining by the controller a displacement of the first measurement unit in each of an up and down direction, a right and left direction, and a back and forth direction, which are orthogonal to each other, in the ophthalmologic apparatus as a distance between both eyes (dm) of right and left subject eyes when the first measurement unit is characterized by the moved to measure the right and left subject eyes of the subject, and step of moving by the controller, after one subject eye is measured with the second measurement unit, the second measurement unit to the other subject eye by the displacement in each of the up and down direction, the right and left direction, and the back and forth direction obtained as the distance between both eyes (dm).
A method of separating one or more immunoglobulin containing proteins from a liquid, which method comprises (a) contacting the liquid with a separation matrix comprising ligands immobilised to a support; (b) allowing said immunoglobulin containing proteins to adsorb to the matrix by interaction with the ligands; (c) an optional step of washing the immunoglobulin containing protein adsorbed matrix; wherein each of said ligands comprises one or more domains (monomers) of staphylococcal Protein A (SpA) (E, D, A, B, C) or protein Z or a functional variant thereof, wherein in at least one of the monomers, the Asparagine at the position corresponding to N28 of B domain of Protein A or Protein Z has been substituted with Alanine, characterised in that the method further comprises (d) recovering said immunoglobulin containing proteins by contacting the matrix with an eluent at pH above 4.0 which releases the proteins. (a) contacting the liquid with a separation matrix comprising ligands immobilised to a support; (b) allowing said immunoglobulin containing proteins to adsorb to the matrix by interaction with the ligands; (c) an optional step of washing the immunoglobulin containing protein adsorbed matrix; wherein each of said ligands comprises one or more domains (monomers) of staphylococcal Protein A (SpA) (E, D, A, B, C) or protein Z or a functional variant thereof, wherein in at least one of the monomers, the Asparagine at the position corresponding to N28 of B domain of Protein A or Protein Z has been substituted with Alanine, characterised in that the method further comprises (d) recovering said immunoglobulin containing proteins by contacting the matrix with an eluent at pH above 4.0 which releases the proteins.
A method performed by a source communications device, the method comprising: receiving a measurement report from a user communications device; making a decision, based on the measurement report received from the user communications device, to hand off the user communications device; sending, to a target communications device, a handover request message comprising a C-RNTI of the user communications device to be handed over to that target communications device; and receiving, from the target communications device, first information comprising component carrier indexes for identifying component carriers of multiple component carriers and second information for indicating to the user communications device which of the multiple component carriers is to be used for initial access; wherein the first information and the second information are included in a handover request acknowledge message sent by the target communications device, responsive to the handover request message received from the source communications device, for communication to the user communications device; and wherein the first information and the second information are included in an RRC Connection Reconfiguration message to be sent to the user communications device; further comprising communicating, to the user communications device, the RRC Connection Reconfiguration message including the first information and the second information. receiving a measurement report from a user communications device; making a decision, based on the measurement report received from the user communications device, to hand off the user communications device; sending, to a target communications device, a handover request message comprising a C-RNTI of the user communications device to be handed over to that target communications device; and receiving, from the target communications device, first information comprising component carrier indexes for identifying component carriers of multiple component carriers and second information for indicating to the user communications device which of the multiple component carriers is to be used for initial access; wherein the first information and the second information are included in a handover request acknowledge message sent by the target communications device, responsive to the handover request message received from the source communications device, for communication to the user communications device; and wherein the first information and the second information are included in an RRC Connection Reconfiguration message to be sent to the user communications device; further comprising communicating, to the user communications device, the RRC Connection Reconfiguration message including the first information and the second information.
A liquid ejecting head comprising: a nozzle plate having a plurality of nozzles ejecting a liquid; a flow path forming substrate having a first surface to which the nozzle plate is bonded and including a shared supply path (131, 132) shared for supplying the liquid to the plurality of nozzles, an individual communication flow path (133, 134, 135, 136, 137, 138) provided for each of the nozzles communicating the nozzles and respective pressure chambers to each other, and a shared collecting path (139, 140) shared between the plurality of nozzles for collecting a liquid, which is not discharged from the nozzles, from the individual communication flow paths; a first flexible plate bonded to the first surface of the flow path forming substrate so as to constitute a part of a wall of the shared supply path; and a second flexible plate bonded to the first surface of the flow path forming substrate so as to constitute a part of a wall of the shared collecting path. a nozzle plate having a plurality of nozzles ejecting a liquid; a flow path forming substrate having a first surface to which the nozzle plate is bonded and including a shared supply path (131, 132) shared for supplying the liquid to the plurality of nozzles, an individual communication flow path (133, 134, 135, 136, 137, 138) provided for each of the nozzles communicating the nozzles and respective pressure chambers to each other, and a shared collecting path (139, 140) shared between the plurality of nozzles for collecting a liquid, which is not discharged from the nozzles, from the individual communication flow paths; a first flexible plate bonded to the first surface of the flow path forming substrate so as to constitute a part of a wall of the shared supply path; and a second flexible plate bonded to the first surface of the flow path forming substrate so as to constitute a part of a wall of the shared collecting path.
An operating mechanism of a miniature circuit breaker, comprising a handle pivotally installed on a housing, a driving connecting rod, a stationary contact and a moving contact arranged in the housing, wherein: the operating mechanism of a miniature circuit breaker further comprises a tension spring and a trip lever, one end of the driving connecting rod is hinged with the handle, one end of the tension spring is fixed on the housing, and the other end of the tension spring is connected to the moving contact; the moving contact is driven by the tension spring and the driving connecting rod together to provide a contact pressure and an overstretching elastic force required for ensuring the reliability of electrical contact for closing the moving contact and the stationary contact, and the tension spring provides an energy storage elastic force required for resetting the mechanism for breaking the moving contact from the stationary contact; and the trip lever is arranged on the moving contact, and is used to control the locking and unlocking cooperation between the driving connecting rod and the moving contact, when a failure occurs, the trip lever separates the driving connecting rod from the moving contact so that the operating mechanism automatically trips, characterised in that the other end of the driving rod is matched with the moving contact.
A modular LED system comprising: • a frame having; • a plurality of light emitting diodes (LEDs) of at least two different colors for generating light within a color spectrum, said LEDs being mounted, preferably clickable, on or adjacent to a, preferably heat conductive, plate equipped with cooling means for cooling the LEDs with cooling medium; • a processor for controlling an amount of electrical current supplied to the plurality of LEDs, so that a particular amount of current supplied thereto determines a color of light generated by the plurality of LEDs; and • a flat translucent member having translucent lenses associated with the LEDs for decreasing or increasing the diffusion angle for light emitted from each LED to provide substantially uniform illumination of a surface; wherein the frame is provided with a tunnel, above said plate equipped with cooling means, with electrical plug-ins for receiving a tube carrying power for the LED system. • a frame having; • a plurality of light emitting diodes (LEDs) of at least two different colors for generating light within a color spectrum, said LEDs being mounted, preferably clickable, on or adjacent to a, preferably heat conductive, plate equipped with cooling means for cooling the LEDs with cooling medium; • a processor for controlling an amount of electrical current supplied to the plurality of LEDs, so that a particular amount of current supplied thereto determines a color of light generated by the plurality of LEDs; and • a flat translucent member having translucent lenses associated with the LEDs for decreasing or increasing the diffusion angle for light emitted from each LED to provide substantially uniform illumination of a surface;
A thermoplastic polymer toughening material comprising a mixture of an epoxy curing agent selected from 3,3'-diaminodiphenylsulphone, 4-,4'-diaminodiphenylsulphone, or combination thereof, and a polyarylsulphone polymer comprising a combination of polyether sulphone and polyether ether sulphone linked repeating units, wherein said thermoplastic polymer toughening material does not comprise an epoxy resin and takes the form of a fiber or a non-woven veil. an epoxy curing agent selected from 3,3'-diaminodiphenylsulphone, 4-,4'-diaminodiphenylsulphone, or combination thereof, and a polyarylsulphone polymer comprising a combination of polyether sulphone and polyether ether sulphone linked repeating units, wherein said thermoplastic polymer toughening material does not comprise an epoxy resin and takes the form of a fiber or a non-woven veil.
Method for engaging a parking lock of a motor vehicle having a service brake and a parking brake, in which the parking lock is engaged while rolling away of the motor vehicle is at least restricted by means of a braking device of the motor vehicle (step S4), wherein a braking device of the motor vehicle that is different from the service brake and from the parking brake and is provided in addition thereto is used as the braking device (step S4), characterised in that the braking device has a secondary braking system that can be actuated by means of a fluid and has an electronic brake booster, by means of which the rolling away of the motor vehicle is at least limited in such a way that the electronic brake booster causes a pressure of the fluid to actuate the braking device independently of an actuation of the electronic brake booster that is brought about by a person (step S4).
A container comprising a food-contact surface, wherein at least a portion of the food-contact surface is coated with a composition comprising a polymer having one or more segments of Formula I: -O-Ar-R n -C -O-R 1 -O-C -R n -Ar-O- wherein: each Ar is independently a divalent aryl group or heteroarylene group; each R is independently a divalent organic group; R 1 is a divalent organic group; and each n is 0 or 1. each Ar is independently a divalent aryl group or heteroarylene group; each R is independently a divalent organic group; R 1 is a divalent organic group; and each n is 0 or 1.
A method of handling a pediatric patient within a magnetic resonance imaging scanner configured to accept and evaluate an adult patient, and comprising a support table for positioning the adult patient in an imaging region of the MRI scanner, the method comprising: mounting a local radio frequency coil assembly to the patient support table, the local radio frequency coil assembly defining a pediatric patient receiving region; arranging the pediatric patient within a pediatric patient carrier outside the MRI scanner shielded room; positioning the carrier together with the pediatric patient on the patient support table; moving the patient carrier into engagement with the local RF coil assembly by slidingly translating the pediatric patient carrier along its longitudinal axis into engagement with the local RF coil assembly with at least a portion of the pediatric patient disposed in the pediatric patient receiving region; moving the table with the engaged carrier and local RF coil assembly into the imaging region of the MRI scanner; and scanning the patient within the MRI scanner. mounting a local radio frequency coil assembly to the patient support table, the local radio frequency coil assembly defining a pediatric patient receiving region; arranging the pediatric patient within a pediatric patient carrier outside the MRI scanner shielded room; positioning the carrier together with the pediatric patient on the patient support table; moving the patient carrier into engagement with the local RF coil assembly by slidingly translating the pediatric patient carrier along its longitudinal axis into engagement with the local RF coil assembly with at least a portion of the pediatric patient disposed in the pediatric patient receiving region; moving the table with the engaged carrier and local RF coil assembly into the imaging region of the MRI scanner; and scanning the patient within the MRI scanner.
A specimen test apparatus that tests a specimen that is a vehicle or a part of a vehicle, the specimen test apparatus comprising: a loading device (31, 32) whose rotating shaft is connected to a rotating shaft (J1, J2) of the specimen and rotates at the same speed, and gives running resistance to the rotating shaft (J1, J2) of the specimen; characterized by: a storage part that stores tire diameter data indicating a relationship between a running state of the specimen and a tire diameter; and a load control part that, from the tire diameter data, calculates a tire diameter corresponding to a running state of the specimen, and controls the loading device (31, 32) with use of running resistance obtained from the calculated tire diameter. a loading device (31, 32) whose rotating shaft is connected to a rotating shaft (J1, J2) of the specimen and rotates at the same speed, and gives running resistance to the rotating shaft (J1, J2) of the specimen; characterized by: a storage part that stores tire diameter data indicating a relationship between a running state of the specimen and a tire diameter; and a load control part that, from the tire diameter data, calculates a tire diameter corresponding to a running state of the specimen, and controls the loading device (31, 32) with use of running resistance obtained from the calculated tire diameter. a storage part that stores tire diameter data indicating a relationship between a running state of the specimen and a tire diameter; and a load control part that, from the tire diameter data, calculates a tire diameter corresponding to a running state of the specimen, and controls the loading device (31, 32) with use of running resistance obtained from the calculated tire diameter.