mhurhangee/ep-ind-claims huggingface dataset:
Working appliance, in particular screwing appliance, for rotationally joining and/or rotationally detaching rotary parts, in particular screws or nuts, having a multi-limb (12, 13, 14, 15) robot with a drive-output rotation axis, wherein the robot bears on its end limb an independently driven rotary device having a rotary tool, characterized in that the rotary device is provided and configured to rapidly screw in or unscrew a rotary part, wherein the robot, in particular its end limb, is provided and configured to tighten or loosen the rotary part.
A solfactant composition comprising: a compound according to the following formula: wherein R z is 2-ethylhexyl, and wherein n 1 and n 2 independently are 1 to 25 and wherein the degree of ethoxylation may vary between the two ethoxylated tails of the surfactant composition.
Use of an esteramide compound, alone or as a mixture, of formula below: R 1 OOC-A-CONR 2 R 3 wherein: - A is a covalent bond; - R 1 is an alkyl group comprising from 1 to 15 carbon atoms or a cycloalkyl group comprising from 5 to 8 carbon atoms, - R 2 and R 3, which may be identical or different, are alkyl groups comprising from 1 to 15 carbon atoms, as solvent or co-solvent. - A is a covalent bond; - R 1 is an alkyl group comprising from 1 to 15 carbon atoms or a cycloalkyl group comprising from 5 to 8 carbon atoms, - R 2 and R 3, which may be identical or different, are alkyl groups comprising from 1 to 15 carbon atoms,
Slope protection installation having at least one mesh mounting unit (11, 11a,b) comprising a first and second post (15a, 16a, 15b, 16b), a mesh (12, 12a, 12c), and anchoring means (13a,b, 14a,b, 18a,b, 23a,b, 24), wherein the two posts (15a, 16a, 15b, 16b) are arranged at a distance from one another, the mesh (12, 12a, 12c) is mounted between the two posts (15a, 16a, 15b, 16b), and the two posts (15a, 16a, 15b, 16b) are anchored with the aid of the anchoring means (13a,b, 14a,b, 18a,b, 23a,b, 24) uphill at a common point in the ground, characterized in that the two posts (15a, 16a, 15b, 16b) are each configured as tubes, and in that the tubes (15a, 16a, 15b, 16b) are each composed of a vertical tube (15a, 15b) and a curved piece (16a, 16b) that adjoins a lower end of the vertical tube (15a, 15b) and is curved upward.
A therapeutic nanoparticle comprising 2-(3-((7-(3-(ethyl(2-hydroxyethyl)amino)propoxy)quinazolin-4-yl)amino)-1H-pyrazol-5-yl)-N-(3-fluorophenyl)acetamide (AZD1152 hqpa), comprising 50 to 99.75 weight percent of a diblock poly(lactic) acid-poly(ethylene)glycol copolymer, wherein the therapeutic nanoparticle comprises 10 to 30 weight percent poly(ethylene)glycol, and wherein the therapeutic nanoparticle comprises a substantially hydrophobic acid.
A method for calibrating a relative orientation of a smartphone in a vehicle including the steps of: a) comparing first sensory data to threshold values to detect potential instability of the smartphone orientation, wherein the first sensory data includes rates of rotation and Euler angles from a gyroscope in the smartphone; b) determining a stability of the orientation of the smartphone based upon said step a); c) collecting second sensory data, wherein the second sensory data includes GPS data from a GPS receiver on the smartphone, magnetometer data from a magnetometer on the smartphone and acceleration data from an accelerometer on the smartphone; d) estimating the relative orientation of the smartphone based upon the second sensory data collected in said step c) while the orientation of the smartphone was determined to be stable in said step b). a) comparing first sensory data to threshold values to detect potential instability of the smartphone orientation, wherein the first sensory data includes rates of rotation and Euler angles from a gyroscope in the smartphone; b) determining a stability of the orientation of the smartphone based upon said step a); c) collecting second sensory data, wherein the second sensory data includes GPS data from a GPS receiver on the smartphone, magnetometer data from a magnetometer on the smartphone and acceleration data from an accelerometer on the smartphone; d) estimating the relative orientation of the smartphone based upon the second sensory data collected in said step c) while the orientation of the smartphone was determined to be stable in said step b).
A method of detecting the presence of an OFDM signal in a received input signal, the method comprising: calculating, for each block of a plurality of blocks of samples of the received input signal, an auto-correlation value at each of a plurality of lags-of-interest; characterized in that the method further comprises: determining, for each of the plurality of lags-of-interest, a rate of growth value across a group of two or more blocks of data samples based on the auto-correlation values; normalising the determined rate of growth values using a normalisation factor to generate normalised rate of growth values; and determining whether an OFDM signal is present in the received input signal based on the normalised rate of growth values. calculating, for each block of a plurality of blocks of samples of the received input signal, an auto-correlation value at each of a plurality of lags-of-interest; characterized in that the method further comprises: determining, for each of the plurality of lags-of-interest, a rate of growth value across a group of two or more blocks of data samples based on the auto-correlation values; normalising the determined rate of growth values using a normalisation factor to generate normalised rate of growth values; and determining whether an OFDM signal is present in the received input signal based on the normalised rate of growth values. determining, for each of the plurality of lags-of-interest, a rate of growth value across a group of two or more blocks of data samples based on the auto-correlation values; normalising the determined rate of growth values using a normalisation factor to generate normalised rate of growth values; and determining whether an OFDM signal is present in the received input signal based on the normalised rate of growth values.
Method for sterilising preforms that are made of a thermoplastic material and intended for the production of blow-moulded containers, in which a sterilising agent is introduced into the area of the preform, and the preforms are heated prior to being blow-moulded, characterised in that at least some of the sterilising agent is dispensed by at least one nozzle in the direction of the preform, a mean discharge direction of the sterilising agent from the nozzle being provided with an angle of inclination with respect to a longitudinal axis of the preform, and the preforms being moved past a stationary sterilising device.
A seat back panel for a vehicle comprising: a plate-shaped main body including a first plate member disposed on a vehicle compartment side of the vehicle and a second plate member disposed on a trunk side while facing the first plate member, the plate-shaped main body being disposed between a vehicle compartment and a trunk; and a fiber assembly housed between the first plate member and the second plate member, and including a plurality of fibers, wherein an opening portion, which establishes communication between the vehicle compartment and the trunk is formed in the plate-shaped main body, the fiber assembly is disposed along a peripheral edge portion of the opening portion, and a space is provided between the first plate member and the second plate member, and an intermediate member is interposed in the space. a plate-shaped main body including a first plate member disposed on a vehicle compartment side of the vehicle and a second plate member disposed on a trunk side while facing the first plate member, the plate-shaped main body being disposed between a vehicle compartment and a trunk; and a fiber assembly housed between the first plate member and the second plate member, and including a plurality of fibers, wherein an opening portion, which establishes communication between the vehicle compartment and the trunk is formed in the plate-shaped main body, the fiber assembly is disposed along a peripheral edge portion of the opening portion, and a space is provided between the first plate member and the second plate member, and an intermediate member is interposed in the space.
A method, comprising: performing a plurality of finishing operations (78,80,82,84A,84B) on a plurality of refractory metal core samples; measuring break edge and surface finish properties associated with at least a portion (P 1,P 2) of the plurality of RMC samples; performing validation operations (78,80,82) on the portion (P 1,P 2) of the plurality of RMC samples; and selecting a combination of finishing operations (78,80,82) for generating an RMC having desirable properties for casting a part free from defects; wherein the step of performing the plurality of finishing operations includes: performing a first finishing operation on a first portion (P 1) of the plurality of RMC samples to round break edges; and performing a second finishing operation on a second portion (P 2) of the plurality of RMC samples to round break edges; and the plurality of finishing operations include at least harperizing, robotic machining and etching. measuring break edge and surface finish properties associated with at least a portion (P 1,P 2) of the plurality of RMC samples; performing validation operations (78,80,82) on the portion (P 1,P 2) of the plurality of RMC samples; and selecting a combination of finishing operations (78,80,82) for generating an RMC having desirable properties for casting a part free from defects; wherein the step of performing the plurality of finishing operations includes: performing a first finishing operation on a first portion (P 1) of the plurality of RMC samples to round break edges; and performing a second finishing operation on a second portion (P 2) of the plurality of RMC samples to round break edges; and performing a first finishing operation on a first portion (P 1) of the plurality of RMC samples to round break edges; and performing a second finishing operation on a second portion (P 2) of the plurality of RMC samples to round break edges; and the plurality of finishing operations include at least harperizing, robotic machining and etching.
A marine seismic survey method, comprising activating a vibrator array of two or more marine vibrators to emit a plurality of radiation patterns, characterized in that the relative phases of two or more marine vibrators of the array located at the same depth are controlled so as to produce complimentary source gradient wavefields, wherein - a notch corresponds to a polarity change from positive to negative; and - a notch in a source gradient wavefield corresponds to a peak in the complementary source gradient wavefield, and wherein the complimentary source gradient wavefields comprise at least a first radiation pattern that has a first notch at a take-off angle that is not close to vertical, and less than a maximum take-off angle of interest, and at least a second radiation pattern that does not have a notch at a take-off angle close to that first notch. - a notch corresponds to a polarity change from positive to negative; and - a notch in a source gradient wavefield corresponds to a peak in the complementary source gradient wavefield, and wherein the complimentary source gradient wavefields comprise at least a first radiation pattern that has a first notch at a take-off angle that is not close to vertical, and less than a maximum take-off angle of interest, and at least a second radiation pattern that does not have a notch at a take-off angle close to that first notch.
A data packet sending method, comprising: receiving (2A01), by a first mobile router, a first data packet that is forwarded by a mobile node, MN, and comprises a first home address, wherein the first mobile router is a mobile router to which the MN is currently attached; determining (2A02), by the first mobile router according to routing control policy information, to enable routing control on the first data packet, wherein the routing control policy information comprises indication information for enabling routing control; and sending (2A03), by the first mobile router, the first data packet to a current mobile router of a correspondent node by using a first link, wherein the first link comprises a first tunnel from the first mobile router to a second mobile router and a second tunnel from the second mobile router to the current mobile router of the correspondent node, and the second mobile router is a mobile router to which the MN was previously attached. receiving (2A01), by a first mobile router, a first data packet that is forwarded by a mobile node, MN, and comprises a first home address, wherein the first mobile router is a mobile router to which the MN is currently attached; determining (2A02), by the first mobile router according to routing control policy information, to enable routing control on the first data packet, wherein the routing control policy information comprises indication information for enabling routing control; and sending (2A03), by the first mobile router, the first data packet to a current mobile router of a correspondent node by using a first link, wherein the first link comprises a first tunnel from the first mobile router to a second mobile router and a second tunnel from the second mobile router to the current mobile router of the correspondent node, and the second mobile router is a mobile router to which the MN was previously attached.
An apparatus for wireless communication at a user equipment, UE, comprising: a processor, memory in electronic communication with the processor; and instructions stored in the memory and executable by the processor to cause the apparatus to: monitor a plurality of physical downlink control channel, PDCCH, candidates for downlink control information, DCI, from a plurality of base stations; receive the DCI in the PDCCH candidates from the plurality of base stations, wherein each PDCCH candidate that includes the DCI from one base station maps to a PDCCH candidate that includes the DCI from another base station; combine the DCI received from the plurality of base stations in the plurality of PDCCH candidates; and receive data from or transmitting data to at least one of the plurality of base stations based at least in part on the combined DCI. a processor, memory in electronic communication with the processor; and instructions stored in the memory and executable by the processor to cause the apparatus to: monitor a plurality of physical downlink control channel, PDCCH, candidates for downlink control information, DCI, from a plurality of base stations; receive the DCI in the PDCCH candidates from the plurality of base stations, wherein each PDCCH candidate that includes the DCI from one base station maps to a PDCCH candidate that includes the DCI from another base station; combine the DCI received from the plurality of base stations in the plurality of PDCCH candidates; and receive data from or transmitting data to at least one of the plurality of base stations based at least in part on the combined DCI. monitor a plurality of physical downlink control channel, PDCCH, candidates for downlink control information, DCI, from a plurality of base stations; receive the DCI in the PDCCH candidates from the plurality of base stations, wherein each PDCCH candidate that includes the DCI from one base station maps to a PDCCH candidate that includes the DCI from another base station; combine the DCI received from the plurality of base stations in the plurality of PDCCH candidates; and receive data from or transmitting data to at least one of the plurality of base stations based at least in part on the combined DCI.
A surface-mountable razor holder comprising: a rear surface to mount the surface-mountable razor holder to an external surface; characterized by a front surface with contours that substantially match a counterpart of a handle of a shaving razor, wherein the front surface further comprises a perimeter portion that slopes from a portion of the front surface towards the rear surface in order to match the handle counterpart; and a magnet disposed in a cavity formed by the surface-mountable razor holder, wherein the magnet is to removably secure the counterpart of the handle of the shaving razor to the front surface. a rear surface to mount the surface-mountable razor holder to an external surface; characterized by a front surface with contours that substantially match a counterpart of a handle of a shaving razor, wherein the front surface further comprises a perimeter portion that slopes from a portion of the front surface towards the rear surface in order to match the handle counterpart; and a magnet disposed in a cavity formed by the surface-mountable razor holder, wherein the magnet is to removably secure the counterpart of the handle of the shaving razor to the front surface.
A wearable electronic device comprising: a reading means configured to read optical information; a display means configured to display information read by the reading means; a power supply unit configured to supply power to the reading means or the display means; and a mounting means configured to support the power supply unit, the display means and the reading means, characterized in that the mounting means has at least a part formed of a flexible member, is wearable to an arm, and is configured to be capable of fixing the display means to a side surface of a forearm close to the thumb, the power supply unit to a side surface of the forearm close to a little finger, and the reading means to a back of a hand or a back of a finger. a reading means configured to read optical information; a display means configured to display information read by the reading means; a power supply unit configured to supply power to the reading means or the display means; and a mounting means configured to support the power supply unit, the display means and the reading means, characterized in that the mounting means has at least a part formed of a flexible member, is wearable to an arm, and is configured to be capable of fixing the display means to a side surface of a forearm close to the thumb, the power supply unit to a side surface of the forearm close to a little finger, and the reading means to a back of a hand or a back of a finger.
Driving tool, comprising a hand-held housing with a piston member accommodated therein for transmitting energy to a fastening element to be driven, an, in particular exchangeable, driving charge and a combustion chamber arranged between the driving charge and the piston member and extending, in particular, around a central axis, and an actuator by means of which the energy to be transmitted from the driving charge to the piston member is adjustably variable, wherein a slide member is movable parallel or transversely, in particular perpendicularly, to the axis, an outlet cross section of a discharge channel being variably adjustable, depending on the position of the slide member, characterised in that a movable slide member of the actuator forms a side wall of the combustion chamber adjacent to the piston member such that, with the slide member closed, no additional volume, or approximately no additional volume, determined by the actuator is provided in the combustion chamber.
A polymeric material comprising one or more nanoparticles embedded in a surface layer of a single surface of said material, said layer comprising a thickness less than or equal to the diameter of said nanoparticle, wherein said nanoparticles are microbiocidal or comprise a microbiocidal agent and wherein the surface concentration of the nanoparticles is from 1 to 200μg/cm 2.
Safety knife provided with a mechanism for automatic retraction of the blade at the end of cutting, comprising a body, a carriage and a blade-holder, the blade-holder being able to slide relative to the body and to the carriage between a retracted blade return position and an advanced blade extension position, characterized in that it is provided with a system of trunnions/guideways (11, 21, 11', 21') for guiding the blade-holder between the extended position and the retracted position, the trunnions (21, 21') also forming a rotation axis for the blade-holder suitable for tilting the blade-holder to an inclined cutting position (α) relative to the direction of extension of the blade in response to a cutting effort and for which the mechanism comprises a thrust rod for the blade-holder arranged between the carriage and the blade-holder and suitable, in a first position, for thrusting the blade-holder forwards and, in a second position, for separating the blade-holder from the carriage upon the inclination of the blade-holder to the inclined cutting position.
A fuel injector for use in delivering fuel to an internal combustion engine, the fuel injector comprising: a nozzle having a valve needle which is movable with respect to a valve needle seat through a range of movement between a closed position and an open position to control fuel delivery through at least one nozzle outlet; the valve needle cooperating with a needle sleeve which is located in a piston guide; wherein the valve needle is movable relative to the needle sleeve; and the needle sleeve is movable relative to the piston guide, wherein the fuel injector further comprises a first control chamber for controlling the position of the valve needle relative to the needle sleeve; and a second control chamber for controlling the position of the needle sleeve relative to the piston guide, a first nozzle control valve being provided for controlling the pressure in the first control chamber; and a second nozzle control valve being provided for controlling the pressure in the second control chamber. a nozzle having a valve needle which is movable with respect to a valve needle seat through a range of movement between a closed position and an open position to control fuel delivery through at least one nozzle outlet; the valve needle cooperating with a needle sleeve which is located in a piston guide; wherein the valve needle is movable relative to the needle sleeve; and the needle sleeve is movable relative to the piston guide, wherein the fuel injector further comprises a first control chamber for controlling the position of the valve needle relative to the needle sleeve; and a second control chamber for controlling the position of the needle sleeve relative to the piston guide, a first nozzle control valve being provided for controlling the pressure in the first control chamber; and a second nozzle control valve being provided for controlling the pressure in the second control chamber.
A method of producing a finely fibrous cellulose composite prepreg sheet, the method comprising: a preparation step of mixing an emulsion of a reactive compound with an aqueous suspension containing a finely fibrous cellulose to prepare a mixed liquid, a papermaking step of dewatering the mixed liquid by filtration on a porous substrate to form a water-containing sheet, and a drying step of heating and drying the water-containing sheet; wherein the emulsion of the reactive compound is an emulsion obtained by emulsifying a natural or synthetic reactive compound using an emulsifier, and is a milky white liquid in which fine particles having a particle diameter of approximately 0.001 to 10 μm are dispersed in water; wherein the reactive compound is a heat-curable compound, a photocurable compound, or an electron beam-curable compound; and wherein in the preparation step a fiber width of the mixed finely fibrous cellulose is from 2 to 1,000 nm. a preparation step of mixing an emulsion of a reactive compound with an aqueous suspension containing a finely fibrous cellulose to prepare a mixed liquid, a papermaking step of dewatering the mixed liquid by filtration on a porous substrate to form a water-containing sheet, and a drying step of heating and drying the water-containing sheet;