mhurhangee/ep-ind-claims huggingface dataset:
Application method implemented by a user device desiring to be a candidate for relaying data between an object and a base station (gNB) in a cellular network, the object and said user device being synchronized and connected to the base station, this method comprising: - a step of sending a request, over a random-access channel, to request resources from said network for relaying said data, said request comprising an identifier of said object; - a step of receiving a response to said request from said base station (gNB); - the application of said user device being retained or rejected in accordance with said response, the method being characterized in that said request comprises a request for resources from said network for transmitting data which are specific to said user device. - a step of sending a request, over a random-access channel, to request resources from said network for relaying said data, said request comprising an identifier of said object; - a step of receiving a response to said request from said base station (gNB); - the application of said user device being retained or rejected in accordance with said response, the method being characterized in that said request comprises a request for resources from said network for transmitting data which are specific to said user device.
A system (10, 110) comprising: a first compressor (12, 112); a second compressor (14, 114); a first heat exchanger (16, 116) configured to receive working fluid discharged from said first and second compressors; a second heat exchanger (18, 118) disposed downstream of said first heat exchanger and configured to provide working fluid to said first compressor; a third heat exchanger (24, 26, 124, 126) disposed between said first and second heat exchangers and including an inlet and first and second outlets (50, 52), said first outlet configured to provide working fluid to said second heat exchanger, said second outlet configured to provide working fluid to said second compressor; and a control module configured to control operation of said second compressor between first and second modes based on a fluid pressure within said third heat exchanger, wherein said first mode is a full capacity mode and said second mode is a reduced capacity mode; characterized in that said control module is configured to compare said fluid pressure with first and second setpoint pressures, said control module being configured to operate said second compressor in said first mode when said fluid pressure is lower than said first and second setpoint pressures, and said control module being configured to operate said second compressor in said second mode when said fluid pressure is higher than said first and second setpoint pressures. a first compressor (12, 112); a second compressor (14, 114); a first heat exchanger (16, 116) configured to receive working fluid discharged from said first and second compressors; a second heat exchanger (18, 118) disposed downstream of said first heat exchanger and configured to provide working fluid to said first compressor; a third heat exchanger (24, 26, 124, 126) disposed between said first and second heat exchangers and including an inlet and first and second outlets (50, 52), said first outlet configured to provide working fluid to said second heat exchanger, said second outlet configured to provide working fluid to said second compressor; and a control module configured to control operation of said second compressor between first and second modes based on a fluid pressure within said third heat exchanger, wherein said first mode is a full capacity mode and said second mode is a reduced capacity mode; characterized in that said control module is configured to compare said fluid pressure with first and second setpoint pressures, said control module being configured to operate said second compressor in said first mode when said fluid pressure is lower than said first and second setpoint pressures, and said control module being configured to operate said second compressor in said second mode when said fluid pressure is higher than said first and second setpoint pressures.
A method of manufacturing an optical fiber preform having (a) a core region having - a first core region which includes a central axis, has a Cl concentration of < 600 atm-ppm and has an alkali metal selectively added thereto, - a second core region provided around the first core region and having a Cl concentration of < 600 atm-ppm, and - a third core region provided around the second core region and having a Cl concentration of ≥ 3,000 atm-ppm (b) a cladding region formed around the core region and having a refractive index lower than that of the core region; the method comprises the steps of: (i) preparing a core rod having a first core region, a second core region and a third core region as defined above; and (ii) adding a cladding region around the core rod by inserting the core rod into a silica glass pipe and integrating the core rod and the silica glass pipe by heating at a temperature of ≥ 1,200°C for ≤ 7 hours. (a) a core region having - a first core region which includes a central axis, has a Cl concentration of < 600 atm-ppm and has an alkali metal selectively added thereto, - a second core region provided around the first core region and having a Cl concentration of < 600 atm-ppm, and - a third core region provided around the second core region and having a Cl concentration of ≥ 3,000 atm-ppm - a first core region which includes a central axis, has a Cl concentration of < 600 atm-ppm and has an alkali metal selectively added thereto, - a second core region provided around the first core region and having a Cl concentration of < 600 atm-ppm, and - a third core region provided around the second core region and having a Cl concentration of ≥ 3,000 atm-ppm (b) a cladding region formed around the core region and having a refractive index lower than that of the core region; the method comprises the steps of: (i) preparing a core rod having a first core region, a second core region and a third core region as defined above; and (ii) adding a cladding region around the core rod by inserting the core rod into a silica glass pipe and integrating the core rod and the silica glass pipe by heating at a temperature of ≥ 1,200°C for ≤ 7 hours. (i) preparing a core rod having a first core region, a second core region and a third core region as defined above; and (ii) adding a cladding region around the core rod by inserting the core rod into a silica glass pipe and integrating the core rod and the silica glass pipe by heating at a temperature of ≥ 1,200°C for ≤ 7 hours.
A parking assist control apparatus comprising: an obstacle detector that is provided at a rear of a vehicle to detect an obstacle behind the vehicle; a parking assist unit that is configured to execute, when judging that a distance between the obstacle detected by the obstacle detector and the vehicle becomes equal-to or shorter-than a predetermined control start distance, a parking assist control for preventing a close approach between the obstacle and the vehicle during a backward running of the vehicle for getting out from a parked position and at a backward running of the vehicle for parking from a current position to a position where the vehicle is to be parked based on an amount of the parking assist control; and a parking start judgment unit that is configured to judge a start of a parking operation in which a backward running is done after a predetermined forward running; characterized by an assist control amount reduction unit being configured to reduce, when the start of the parking operation is judged by the parking start judgment unit, the amount of the parking assist control during the backward running of the vehicle for parking from a current position to a position where the vehicle is to be parked so as to be smaller than the amount of the parking assist control at the backward running of the vehicle for getting out from a parked position, and the parking assist control by the parking assist unit being at least one control of a brake force application to the vehicle and a restriction of a drive force of the vehicle. an obstacle detector that is provided at a rear of a vehicle to detect an obstacle behind the vehicle; a parking assist unit that is configured to execute, when judging that a distance between the obstacle detected by the obstacle detector and the vehicle becomes equal-to or shorter-than a predetermined control start distance, a parking assist control for preventing a close approach between the obstacle and the vehicle during a backward running of the vehicle for getting out from a parked position and at a backward running of the vehicle for parking from a current position to a position where the vehicle is to be parked based on an amount of the parking assist control; and a parking start judgment unit that is configured to judge a start of a parking operation in which a backward running is done after a predetermined forward running; characterized by an assist control amount reduction unit being configured to reduce, when the start of the parking operation is judged by the parking start judgment unit, the amount of the parking assist control during the backward running of the vehicle for parking from a current position to a position where the vehicle is to be parked so as to be smaller than the amount of the parking assist control at the backward running of the vehicle for getting out from a parked position, and the parking assist control by the parking assist unit being at least one control of a brake force application to the vehicle and a restriction of a drive force of the vehicle.
A mechanical force generator comprising: an elongate housing comprising an at least substantially axially extending inner member and an at least substantially axially extending outer member, a mass in the elongate housing between the inner member and the outer member able to oscillate axially relative to the inner and outer members yet held against any substantial rotation relative to one, or both, of said members, a rotatable member having a cam interengaged to the mass between the inner member and the outer member, the rotation of the rotatable member relative to the mass able to axially oscillate by some multiple of the input rotation of the rotatable member the mass to which the cam is interengaged, and a rotary drive to provide directly or indirectly a rotational input to the rotatable member, wherein the force generator in operation has no impact percussions. an elongate housing comprising an at least substantially axially extending inner member and an at least substantially axially extending outer member, a mass in the elongate housing between the inner member and the outer member able to oscillate axially relative to the inner and outer members yet held against any substantial rotation relative to one, or both, of said members, a rotatable member having a cam interengaged to the mass between the inner member and the outer member, the rotation of the rotatable member relative to the mass able to axially oscillate by some multiple of the input rotation of the rotatable member the mass to which the cam is interengaged, and a rotary drive to provide directly or indirectly a rotational input to the rotatable member, wherein the force generator in operation has no impact percussions.
A manufactured product nanofunctionalised with photocatalytic nanoparticles, said manufactured product being a manufactured product made of polymeric material having at least one inner and/or outer surface, prepared by means of 3D printing, injection moulding or extrusion of said polymeric material and characterised by a nanoroughness, measured by means of an electron microscope, comprised between 10 and 150 nm and a macroroughness,, measured by means of an electron microscope, comprised between 100 and 600 μm, wherein said nanoroughness and macroroughness are diffused internally and/or superficially, and wherein said photocatalytic nanoparticles are present within said polymeric material and/or in the form of a nanoparticle coating on said at least one inner and/or outer surface of said product, and wherein said photocatalytic nanoparticles are nitrogen-doped TiO 2 (TiO 2 -N).
Method for repairing a vehicle body having the steps: the release in a damage free manner of a connection between a fibre composite central element, which is embodied as a battery housing, and a front of vehicle crash structure in the region of a front interface and/or of a connection between said fibre composite central element and a rear of vehicle crash structure in the region of a rear end interface and/or of a connection between said fibre composite central element and a side crash structure in the region of a side interface (7; 8); the removal of the front of vehicle crash structure and/or of the rear of vehicle crash structure and/or of the side crash structure from the fibre composite central element; and the attachment and releasable connection to the fibre composite central element of a new front of vehicle crash structure at the front interface and/or of a new rear of vehicle crash structure at the rear end interface and/or of a new side crash structure at the side interface (7; 8). the release in a damage free manner of a connection between a fibre composite central element, which is embodied as a battery housing, and a front of vehicle crash structure in the region of a front interface and/or of a connection between said fibre composite central element and a rear of vehicle crash structure in the region of a rear end interface and/or of a connection between said fibre composite central element and a side crash structure in the region of a side interface (7; 8); the removal of the front of vehicle crash structure and/or of the rear of vehicle crash structure and/or of the side crash structure from the fibre composite central element; and the attachment and releasable connection to the fibre composite central element of a new front of vehicle crash structure at the front interface and/or of a new rear of vehicle crash structure at the rear end interface and/or of a new side crash structure at the side interface (7; 8).
A process for preparing a multi-block copolymer comprising in polymerized form propylene, 4-methyl-1-pentene, styrene or another C 4-20 α-olefin; and one or more copolymerizable comonomers, said block copolymer having both a polydisperse block distribution and a polydisperse distribution of block sizes, comprising contacting propylene, 4-methyl-1-pentene, styrene or another C 4-20 α-olefin; together with one or more copolymerizable comonomers under addition polymerization conditions with a composition comprising a first olefin polymerization catalyst, a second olefin polymerization catalyst capable of preparing polymers differing in chemical or physical properties from the polymer prepared by catalyst under equivalent polymerization conditions, and a chain shuttling agent.
A golf club head comprising: a body having a top surface; and a varied top surface visible profile region positioned on the top surface, wherein the varied top surface visible profile region is configured to provide a visual impression of a varied profile of the body distinct from an actual profile of the top surface of the body, and wherein the varied top surface visible profile region extends along a front edge and a heel end of the top surface of the body and is spaced from a rear end and a toe end of the top surface of the body. a body having a top surface; and a varied top surface visible profile region positioned on the top surface, wherein the varied top surface visible profile region is configured to provide a visual impression of a varied profile of the body distinct from an actual profile of the top surface of the body, and wherein the varied top surface visible profile region extends along a front edge and a heel end of the top surface of the body and is spaced from a rear end and a toe end of the top surface of the body.
A genetically engineered Escherichia bacterial strain, wherein said bacterial strain comprises: a) a disruption of ldhA, b) a disruption of adhE, and c) a disruption of ack-pta; wherein said bacterial strain produces at least 1.5 mole succinate per mole glucose under anaerobic conditions. a) a disruption of ldhA, b) a disruption of adhE, and c) a disruption of ack-pta;
An endoprosthesis comprising: a stent, wherein the stent has an inner surface defining a lumen, an outer surface, a first end, a second end, and a thickness defined between the inner surface and the outer surface, wherein the stent has a plurality of openings extending through the thickness; and a polymeric cover on the outer surface of the stent, the polymeric cover comprising a base and adhesion elements (54; 54a; 54b, 54c) arranged in a micropattern and adapted to create a partial vacuum to adhere, stabilize, fix or immobilize the endoprosthesis to a body lumen wall, wherein the base covers at least some of the plurality of openings of the stent. a stent, wherein the stent has an inner surface defining a lumen, an outer surface, a first end, a second end, and a thickness defined between the inner surface and the outer surface, wherein the stent has a plurality of openings extending through the thickness; and a polymeric cover on the outer surface of the stent, the polymeric cover comprising a base and adhesion elements (54; 54a; 54b, 54c) arranged in a micropattern and adapted to create a partial vacuum to adhere, stabilize, fix or immobilize the endoprosthesis to a body lumen wall, wherein the base covers at least some of the plurality of openings of the stent.
A method for a bending test of a flexible screen, comprising: connecting the flexible screen to a fixing device to form two connection ends; and conducting an extrusion test to the flexible screen, including moving the fixing device to change the distance between the connection ends of the fixing device so that the distance is less than or equal to the length of the flexible screen between the two connection ends, characterized by moving the fixing device respectively along directions which are parallel to each other to extrude the flexible screen, comprising moving the fixing device respectively along a first plurality of directions which are parallel to each other to extrude the flexible screen, and moving the fixing device respectively along a second plurality of directions which are parallel to each other to extrude the flexible screen, the first plurality of directions being perpendicular to the second plurality of directions. connecting the flexible screen to a fixing device to form two connection ends; and conducting an extrusion test to the flexible screen, including moving the fixing device to change the distance between the connection ends of the fixing device so that the distance is less than or equal to the length of the flexible screen between the two connection ends, characterized by moving the fixing device respectively along directions which are parallel to each other to extrude the flexible screen, comprising moving the fixing device respectively along a first plurality of directions which are parallel to each other to extrude the flexible screen, and moving the fixing device respectively along a second plurality of directions which are parallel to each other to extrude the flexible screen, the first plurality of directions being perpendicular to the second plurality of directions.
Medical incubator with space for a person and a measuring device for determining a surface temperature of a baby, comprising an infrared camera with a focus, a calibration apparatus being connected to the infrared camera via a data connection, the calibration apparatus having an outer shell with an external emissivity similar to that of the baby, a temperature sensor being arranged within the outer shell, a heating element that is driven by a temperature controller being arranged in the outer shell, the temperature sensor having a data connection to the temperature controller and the measuring device being configured to carry out the following steps: a) adjusting the temperature in the outer shell to a value at which the outer shell emits the same radiant flux in the wavelength range (W1, W2) as the measurement surface of the baby; b) outputting the temperature at which the radiant flux of the emitted wavelength range of the outer shell equals the radiant flux of the emitted wavelength range of the measurement surface. a calibration apparatus being connected to the infrared camera via a data connection, the calibration apparatus having an outer shell with an external emissivity similar to that of the baby, a temperature sensor being arranged within the outer shell, a heating element that is driven by a temperature controller being arranged in the outer shell, the temperature sensor having a data connection to the temperature controller and the measuring device being configured to carry out the following steps: a) adjusting the temperature in the outer shell to a value at which the outer shell emits the same radiant flux in the wavelength range (W1, W2) as the measurement surface of the baby; b) outputting the temperature at which the radiant flux of the emitted wavelength range of the outer shell equals the radiant flux of the emitted wavelength range of the measurement surface. a) adjusting the temperature in the outer shell to a value at which the outer shell emits the same radiant flux in the wavelength range (W1, W2) as the measurement surface of the baby; b) outputting the temperature at which the radiant flux of the emitted wavelength range of the outer shell equals the radiant flux of the emitted wavelength range of the measurement surface.
A system for stimulating a target neural tissue of the central nervous system, comprising: a lead having at least one electrode, wherein the lead is configured to be positioned so that at least one of the at least one electrode is able to stimulate the target neural tissue; and an implantable pulse generator connectable with the lead, the generator configured to provide a stimulation signal, wherein the stimulation signal has a current amplitude of less than or equal to 4mA; wherein the system is configured such that when a current amplitude of the stimulation signal is above a predetermined level, the current amplitude is adjustable in first increments of approximately 50μA, and when a current amplitude of the stimulation signal is below the predetermined level, the current amplitude is adjustable in second increments of approximately 25μA or less. a lead having at least one electrode, wherein the lead is configured to be positioned so that at least one of the at least one electrode is able to stimulate the target neural tissue; and an implantable pulse generator connectable with the lead, the generator configured to provide a stimulation signal, wherein the stimulation signal has a current amplitude of less than or equal to 4mA; wherein the system is configured such that when a current amplitude of the stimulation signal is above a predetermined level, the current amplitude is adjustable in first increments of approximately 50μA, and when a current amplitude of the stimulation signal is below the predetermined level, the current amplitude is adjustable in second increments of approximately 25μA or less.