mhurhangee/ep-ind-claims huggingface dataset:
Electrical multi-directional force sensor with a sensor pin that can be adjusted from its neutral position in at least two actuation directions and that returns to its neutral position when an actuating force is no longer applied, with a sensor plate that is connected to the sensor pin and can be pivoted by an adjustment of the sensor pin against a printed circuit board that has an electrical measuring system whose output signal depends on the position of the sensor plate, wherein the sensor plate is integrally connected to a plurality of strip-shaped supporting elements (13, 14, 15, 16), each of which has an end section designed as an eye (17, 18, 19), characterized in that the sensor plate and the supporting elements (13, 14, 15, 16) are cut out in one piece from a single rectangular or, in particular, square metal plate in the directions of the diagonals of the metal plate, so that a sensor plate in the shape of a cloverleaf with four sensor wings arranged opposite each other in pairs remains between the strip-shaped supporting elements (13, 14, 15, 16). with a sensor plate that is connected to the sensor pin and can be pivoted by an adjustment of the sensor pin against a printed circuit board that has an electrical measuring system whose output signal depends on the position of the sensor plate, wherein the sensor plate is integrally connected to a plurality of strip-shaped supporting elements (13, 14, 15, 16), each of which has an end section designed as an eye (17, 18, 19), characterized in that the sensor plate and the supporting elements (13, 14, 15, 16) are cut out in one piece from a single rectangular or, in particular, square metal plate in the directions of the diagonals of the metal plate, so that a sensor plate in the shape of a cloverleaf with four sensor wings arranged opposite each other in pairs remains between the strip-shaped supporting elements (13, 14, 15, 16).
A method for manufacturing a wind turbine blade comprising the step of: moulding at least one wind turbine blade shell in a blade mould; wherein said step of moulding comprises forming integrated flanges as part of said blade shell, and wherein said flanges are used for subsequent handling of said blade shell, wherein said flanges comprise guide flanges, characterized in that the method comprises the further step of transferring said blade shell to a blade cradle for post-moulding operations, and wherein said step of transferring said blade shell to said blade cradle comprises aligning said guide flanges with corresponding markers provided on said blade cradle. moulding at least one wind turbine blade shell in a blade mould; wherein said step of moulding comprises forming integrated flanges as part of said blade shell, and wherein said flanges are used for subsequent handling of said blade shell, wherein said flanges comprise guide flanges, characterized in that the method comprises the further step of transferring said blade shell to a blade cradle for post-moulding operations, and wherein said step of transferring said blade shell to said blade cradle comprises aligning said guide flanges with corresponding markers provided on said blade cradle.
A base station comprising: an information generating device configured to generate control information for causing at least one mobile device of a plurality of mobile devices (104a, 104b) to initiate a discovery signal transmission procedure based on determining, prior to transmitting a discovery signal during the discovery signal transmission procedure, whether the mobile device is out of a range of network coverage and whether a signal power exceeds a threshold signal power for at least one of a specified time resource, a specified frequency resource, and a specified code resource; and an information transmission device configured to broadcast the control information to the plurality of mobile devices (104a, 104b), wherein the control information comprises a resource allocation for the discovery signal used in performing the discovery signal transmission procedure. an information generating device configured to generate control information for causing at least one mobile device of a plurality of mobile devices (104a, 104b) to initiate a discovery signal transmission procedure based on determining, prior to transmitting a discovery signal during the discovery signal transmission procedure, whether the mobile device is out of a range of network coverage and whether a signal power exceeds a threshold signal power for at least one of a specified time resource, a specified frequency resource, and a specified code resource; and an information transmission device configured to broadcast the control information to the plurality of mobile devices (104a, 104b), wherein the control information comprises a resource allocation for the discovery signal used in performing the discovery signal transmission procedure.
A process for manufacturing laminated glazing comprising at least two glass substrates (10, 12) and at least one interlayer made of a polymer material arranged between the substrates, the process comprising the bending of the substrates, the controlled cooling of the substrates, the assembly of the glass substrates and of the interlayer, characterized in that it comprises the following steps in the following order: • bending of the substrates, • controlled cooling of the substrates directly starting from the bending temperature, • formation of a laminated assembly comprising the substrates and the interlayer, • cutting the laminated assembly through its entire thickness along a line on one of its main faces, creating a cut edge, the controlled cooling comprising a general controlled cooling and a local controlled cooling of a zone comprising the cutting line, the local controlled cooling being faster than the general controlled cooling and creating permanent compressive edge stresses at the edge to be cut subsequently, the local controlled cooling is sufficient in duration and in intensity so that the edge stresses after cutting of the laminated assembly are greater than 4 MPa, the value of the edge stresses being determined between 0.1 and 2 mm from one edge after drilling an orifice by the method described in the standard ASTM F218-2005-01. • bending of the substrates, • controlled cooling of the substrates directly starting from the bending temperature, • formation of a laminated assembly comprising the substrates and the interlayer, • cutting the laminated assembly through its entire thickness along a line on one of its main faces, creating a cut edge,
A shoe comprising: an upper comprising a shank, and a threaded barrel, wherein the upper comprises an arch, a midsole, and an outersole and the shank is a flat, rigid plate that mirrors the arch of the upper and resides between the midsole and the outersole; and a detachable heel, wherein the threaded barrel and the shank are one continuous piece of metal, and wherein the detachable heel is removably attached to the upper using a single screw. an upper comprising a shank, and a threaded barrel, wherein the upper comprises an arch, a midsole, and an outersole and the shank is a flat, rigid plate that mirrors the arch of the upper and resides between the midsole and the outersole; and a detachable heel, wherein the threaded barrel and the shank are one continuous piece of metal, and wherein the detachable heel is removably attached to the upper using a single screw.
A method for producing natural rubber by using a recombinant microorganism, comprising the steps of: (a) constructing an expression vector capable of expressing a gene coding for cis -prenyltransferase, which is a guayule-derived natural rubber synthase having the amino acid sequence of SEQ ID NO: 2 or a Hevea brasiliensis -derived natural rubber synthase having the amino acid sequence of SEQ ID NO: 6, and an expression vector capable of expressing a gene coding for an E. coli -derived UDP pyrophosphate synthase having the amino acid sequence of SEQ ID NO: 4; (b) transforming the expression vectors into a host microorganism; (c) culturing the transformed host microorganism; and (d) isolating natural rubber from a culture of the transformed host microorganism, wherein the microorganism is E. coli. (a) constructing an expression vector capable of expressing a gene coding for cis -prenyltransferase, which is a guayule-derived natural rubber synthase having the amino acid sequence of SEQ ID NO: 2 or a Hevea brasiliensis -derived natural rubber synthase having the amino acid sequence of SEQ ID NO: 6, and an expression vector capable of expressing a gene coding for an E. coli -derived UDP pyrophosphate synthase having the amino acid sequence of SEQ ID NO: 4; (b) transforming the expression vectors into a host microorganism; (c) culturing the transformed host microorganism; and (d) isolating natural rubber from a culture of the transformed host microorganism,
A tube for a urethral catheter characterised in that it comprises at least three channels, wherein: - more than one instillation opening, - at least one drainage opening, and - a distal balloon, are formed in the tube and connected to different channels, the distal balloon is formed in the tip of the tube and each instillation opening is arranged relatively to the distal balloon in such a way that instillation liquid exiting each instillation opening hits directly the distal balloon, when the distal balloon is inflated. - more than one instillation opening, - at least one drainage opening, and - a distal balloon,
A method for correcting electrode positions of clinical usage catheters configured for disposition within a patient body, the method comprising: acquiring, from a testing catheter (12") having a plurality of electrodes and a plurality of magnetic sensors, a plurality of data sets, each data set including measured positions of the electrodes and measured positions of the magnetic sensors; mapping, for each data set, a measured position of each electrode to a calculated electrode position that is determined, at least in part, from the measured positions of the magnetic sensors to generate a correction model, wherein the correction model maps measured electrode positions to calculated electrode positions; acquiring, from the clinical usage catheter (12") having a plurality of electrodes, a subsequent set of measured electrode positions for a set of electrodes of the clinical usage catheter, wherein the clinical usage catheter has a common shape as the testing catheter, and the set of electrodes have an equal number, spacing and common configuration as the plurality of electrodes of the testing catheter, and wherein the testing catheter (12") and the clinical usage catheter deform in a manner that is substantially identical; inputting the subsequent set of measured electrode positions into the correction model to generate a set of calculated electrode positions of the clinical usage catheter; generating a catheter shape based on the set of calculated electrode positions; and displaying an image of the clinical usage catheter shape. acquiring, from a testing catheter (12") having a plurality of electrodes and a plurality of magnetic sensors, a plurality of data sets, each data set including measured positions of the electrodes and measured positions of the magnetic sensors; mapping, for each data set, a measured position of each electrode to a calculated electrode position that is determined, at least in part, from the measured positions of the magnetic sensors to generate a correction model, wherein the correction model maps measured electrode positions to calculated electrode positions; acquiring, from the clinical usage catheter (12") having a plurality of electrodes, a subsequent set of measured electrode positions for a set of electrodes of the clinical usage catheter, wherein the clinical usage catheter has a common shape as the testing catheter, and the set of electrodes have an equal number, spacing and common configuration as the plurality of electrodes of the testing catheter, and wherein the testing catheter (12") and the clinical usage catheter deform in a manner that is substantially identical; inputting the subsequent set of measured electrode positions into the correction model to generate a set of calculated electrode positions of the clinical usage catheter; generating a catheter shape based on the set of calculated electrode positions; and displaying an image of the clinical usage catheter shape.
A method for configuring communication in a first cell of a wireless communication system, wherein the wireless communication system is configured to transmit feedback information indicating whether a given uplink transmission was successfully received, wherein said feedback information is transmitted in a downlink subframe occurring a predetermined number of subframes after a last copy of the given uplink transmission, the method comprising: obtaining, at a first network node, information indicating a plurality of candidate subframes for downlink transmissions to a wireless communication device in a first cell served by the first network node, wherein each candidate subframe comprises a subframe which satisfies a predetermined candidate condition in that transmissions in a second cell during that subframe are limited by being configured as almost blank subframes, ABS, in the second cell; receiving a scheduling request relating to an uplink transmission in the first cell by a wireless communication device, and scheduling a first copy of the uplink transmission in a first subframe; determining, based on the obtained information, a number of copies of the uplink transmission the wireless communication device should transmit in consecutive uplink subframes after the first subframe so that the downlink subframe for transmission of feedback information in the first cell related to the uplink transmission will occur during one of the candidate subframes; and configuring the wireless communication device to transmit, in the first cell, the determined number of copies of the uplink transmission in consecutive subframes. obtaining, at a first network node, information indicating a plurality of candidate subframes for downlink transmissions to a wireless communication device in a first cell served by the first network node, wherein each candidate subframe comprises a subframe which satisfies a predetermined candidate condition in that transmissions in a second cell during that subframe are limited by being configured as almost blank subframes, ABS, in the second cell; receiving a scheduling request relating to an uplink transmission in the first cell by a wireless communication device, and scheduling a first copy of the uplink transmission in a first subframe; determining, based on the obtained information, a number of copies of the uplink transmission the wireless communication device should transmit in consecutive uplink subframes after the first subframe so that the downlink subframe for transmission of feedback information in the first cell related to the uplink transmission will occur during one of the candidate subframes; and configuring the wireless communication device to transmit, in the first cell, the determined number of copies of the uplink transmission in consecutive subframes.
Particle isolation apparatus, being configured for isolating particles from a suspension sample, comprising - a droplet dispenser device being adapted for collecting the suspension sample from a carrier substrate and for dispensing droplets onto a target substrate, - a mechanical pump device being coupled with the droplet dispenser device for loading a dilution liquid into the droplet dispenser device and for aspirating a first portion of the suspension sample into the droplet dispenser device, and - a syphon pump device being coupled with the droplet dispenser device for aspirating a second portion of the suspension sample into the droplet dispenser device, wherein - the syphon pump device comprises a system liquid reservoir being arranged at a level lower than the carrier substrate and being coupled with the droplet dispenser device. - a droplet dispenser device being adapted for collecting the suspension sample from a carrier substrate and for dispensing droplets onto a target substrate, - a mechanical pump device being coupled with the droplet dispenser device for loading a dilution liquid into the droplet dispenser device and for aspirating a first portion of the suspension sample into the droplet dispenser device, and - a syphon pump device being coupled with the droplet dispenser device for aspirating a second portion of the suspension sample into the droplet dispenser device, wherein - the syphon pump device comprises a system liquid reservoir being arranged at a level lower than the carrier substrate and being coupled with the droplet dispenser device.
An automatic choke for controlling an opening degree of a choke valve provided in an intake passage of an engine upon start of the engine, comprising: a stepping motor for controlling the opening degree of the choke valve, wherein the choke valve is driven to a fully closed side for initializing the stepping motor when a power source for starting the engine is turned on, wherein the opening degree of the choke value upon start of the engine is determined on the basis of a temperature information representing an engine temperature upon start of the engine, a time until releasing the choke corresponding to fully opening the choke valve from the opening degree of the choke valve upon start of the engine is determined on the basis of the temperature information, wherein the engine is controlled to settle at a reference speed which is variable with a magnitude of an electrical load, and wherein the time until releasing the choke depends on the reference speed, and is determined to be shorter when the reference speed is higher, and longer when the reference speed is lower. a stepping motor for controlling the opening degree of the choke valve, wherein the choke valve is driven to a fully closed side for initializing the stepping motor when a power source for starting the engine is turned on, wherein the opening degree of the choke value upon start of the engine is determined on the basis of a temperature information representing an engine temperature upon start of the engine, a time until releasing the choke corresponding to fully opening the choke valve from the opening degree of the choke valve upon start of the engine is determined on the basis of the temperature information, wherein the engine is controlled to settle at a reference speed which is variable with a magnitude of an electrical load, and wherein the time until releasing the choke depends on the reference speed, and is determined to be shorter when the reference speed is higher, and longer when the reference speed is lower.
Peptide compound having the following general formula: R 1 -X 1 -Arg-Lys-Gly-X 2 -R 2 Wherein, X 1 represents an isoleucine, a leucine, a proline, a valine, or is equal to zero, X 2 represents a cysteine, a glutamic acid, a glutamine, a histidine, a methionine, a phenylalanine, a tyrosine, a threonine, or is equal to zero, R 1 represents the primary amine function of the N-terminal amino acid, free or substituted by a protecting group that may be chosen from among an acetyl group, a benzoyl group, a tosyl group or a benzyloxycarbonyl group, R 2 represents the hydroxyl group of the carboxyl function of the C-terminal amino acid, free or substituted by a protecting group that may be chosen from among a C 1 to C 20 alkyl chain, or an NH2, NHY or NYY group where Y represents a C 1 to C 4 alkyl chain, said sequence having the general formula consisting of 3 to 5 amino acid residues, said sequence having the general formula optionally comprising substitutions of the amino acids X 1 and X 2, by other chemically equivalent amino acids. X 1 represents an isoleucine, a leucine, a proline, a valine, or is equal to zero, X 2 represents a cysteine, a glutamic acid, a glutamine, a histidine, a methionine, a phenylalanine, a tyrosine, a threonine, or is equal to zero, R 1 represents the primary amine function of the N-terminal amino acid, free or substituted by a protecting group that may be chosen from among an acetyl group, a benzoyl group, a tosyl group or a benzyloxycarbonyl group, R 2 represents the hydroxyl group of the carboxyl function of the C-terminal amino acid, free or substituted by a protecting group that may be chosen from among a C 1 to C 20 alkyl chain, or an NH2, NHY or NYY group where Y represents a C 1 to C 4 alkyl chain, said sequence having the general formula consisting of 3 to 5 amino acid residues, said sequence having the general formula optionally comprising substitutions of the amino acids X 1 and X 2, by other chemically equivalent amino acids.
A shovel comprising: a lower traveling body; an upper turning body turnably mounted on the lower traveling body; an attachment including a boom and an arm, the boom being attached to the upper turning body, and the arm being attached to a tip of the boom; a boom cylinder configured to drive the boom; an arm cylinder configured to drive the arm; a hydraulic pump configured to supply hydraulic oil to the boom cylinder and the arm cylinder; an input device configured to receive an input from an operator; and a control device configured to control the hydraulic pump, characterized in that when a lifting mode that is a work mode corresponding to hoisting work involving use of the attachment is selected in response to the input received by the input device, the control device sets a standby flow rate of the hydraulic pump to be greater than when a normal mode is selected, the normal mode being a work mode for performing work other than the hoisting work, the work other than the hoisting work including excavation work. a lower traveling body; an upper turning body turnably mounted on the lower traveling body; an attachment including a boom and an arm, the boom being attached to the upper turning body, and the arm being attached to a tip of the boom; a boom cylinder configured to drive the boom; an arm cylinder configured to drive the arm; a hydraulic pump configured to supply hydraulic oil to the boom cylinder and the arm cylinder; an input device configured to receive an input from an operator; and a control device configured to control the hydraulic pump, characterized in that when a lifting mode that is a work mode corresponding to hoisting work involving use of the attachment is selected in response to the input received by the input device, the control device sets a standby flow rate of the hydraulic pump to be greater than when a normal mode is selected, the normal mode being a work mode for performing work other than the hoisting work, the work other than the hoisting work including excavation work.