mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication connection method, comprising: selecting,, by a first terminal, a wireless connection mode in a target application, wherein the wireless connection mode is a Wi-Fi Protected Setup, WPS, based connection mode, and determining a target identifier in an identifier list of the target application; sending,, by the first terminal by using a wireless network, a wireless connection request for the wireless connection mode to a second terminal corresponding to the target identifier; establishing,, by the first terminal, a wireless communication connection in the wireless connection mode to the second terminal, when receiving, by the first terminal by using the wireless network, a connection acknowledgement response to the wireless connection request; wherein the first terminal also sends a MAC address of a third terminal being a router or a Wi-Fi transmission device and an encryption key of the third terminal in the wireless connection mode to the second terminal when receiving the connection acknowledgement response to the connection request, and when receiving the encryption key and the MAC address of the third terminal, the second terminal turns on the wireless connection mode, finds the third terminal through scanning based on the MAC address of the third terminal, and automatically inputs the encryption key, wherein after verification of the encryption key succeeds, the second terminal establishes the wireless communication connection in the wireless connection mode to the third terminal. selecting,, by a first terminal, a wireless connection mode in a target application, wherein the wireless connection mode is a Wi-Fi Protected Setup, WPS, based connection mode, and determining a target identifier in an identifier list of the target application; sending,, by the first terminal by using a wireless network, a wireless connection request for the wireless connection mode to a second terminal corresponding to the target identifier; establishing,, by the first terminal, a wireless communication connection in the wireless connection mode to the second terminal, when receiving, by the first terminal by using the wireless network, a connection acknowledgement response to the wireless connection request; wherein the first terminal also sends a MAC address of a third terminal being a router or a Wi-Fi transmission device and an encryption key of the third terminal in the wireless connection mode to the second terminal when receiving the connection acknowledgement response to the connection request, and when receiving the encryption key and the MAC address of the third terminal, the second terminal turns on the wireless connection mode, finds the third terminal through scanning based on the MAC address of the third terminal, and automatically inputs the encryption key, wherein after verification of the encryption key succeeds, the second terminal establishes the wireless communication connection in the wireless connection mode to the third terminal.
A composition comprising a cosmetically acceptable carrier and a plurality of plasmonic nanoparticles in an amount of 10 9 to 10 18 nanoparticles per millilitre of composition, for use in a method of treating acne in a mammalian subject, wherein the plasmonic nanoparticles are selected from nanorods, nanoshells, nanospheres, nanoplates or nanorice that are encapsulated within a matrix formed of a matrix component selected from silica or polyethylene glycol, wherein said method comprises i) topically administering said composition to a skin surface of the subject; ii) providing penetration means to redistribute the plasmonic nanoparticles from the skin surface to a sebaceous gland; iii) washing the plasmonic nanoparticles from the skin surface; iv) causing irradiation of the skin surface by light and v) shedding the plasmonic nanoparticles from the sebaceous gland. i) topically administering said composition to a skin surface of the subject; ii) providing penetration means to redistribute the plasmonic nanoparticles from the skin surface to a sebaceous gland; iii) washing the plasmonic nanoparticles from the skin surface; iv) causing irradiation of the skin surface by light and v) shedding the plasmonic nanoparticles from the sebaceous gland.
A tyre monitoring device configured to be mounted on a wheel and comprising: a pressure sensor for sensing an inflation pressure of a tyre on the wheel; a wireless communication interface configured to receive data indicative of a command to indicate tyre pressure; a storage storing a predetermined pressure value; an indicator configured to provide a first status indication and a second status indication, wherein the first status indication is different from the second status indication; and a processing system configured to operate the indicator to provide the first status indication or the second status indication responsive to receipt of the command to indicate tyre pressure, and based at least in part on the inflation pressure and the predetermined pressure value, characterized in that the wireless communication interface comprises a first transceiver and a second transceiver, the first transceiver having a longer transmission range that the second transceiver. a pressure sensor for sensing an inflation pressure of a tyre on the wheel; a wireless communication interface configured to receive data indicative of a command to indicate tyre pressure; a storage storing a predetermined pressure value; an indicator configured to provide a first status indication and a second status indication, wherein the first status indication is different from the second status indication; and a processing system configured to operate the indicator to provide the first status indication or the second status indication responsive to receipt of the command to indicate tyre pressure, and based at least in part on the inflation pressure and the predetermined pressure value, characterized in that the wireless communication interface comprises a first transceiver and a second transceiver, the first transceiver having a longer transmission range that the second transceiver.
A method of producing a two-dimensional crystalline material, the method comprising: providing a substrate having nucleation sites within a reaction chamber; introducing at a precursor entry point a precursor into the reaction chamber, the precursor being in a gas phase and/or suspended in a gas; heating the substrate to a temperature that is within a decomposition range of the precursor, and that allows two-dimensional crystalline material formation from a species released from the decomposed precursor; and cooling the precursor entry point; wherein the reaction chamber is a close coupled reaction chamber such that a separation between the substrate surface upon which the two-dimensional crystalline material is formed and the point at which the precursor enters the reaction chamber is sufficiently small, and a thermal gradient between the substrate surface and the point at which the precursor enters the chamber is sufficiently steep, such that the fraction of precursor that reacts in the gas phase within the reaction chamber is low enough to allow the formation of the two-dimensional crystalline material, wherein the distance between the surface of the substrate upon which the two-dimensional crystalline material is produced and the point at which precursor enters the chamber is less than 10mm; and wherein the two-dimensional crystalline material is graphene and the species is carbon or wherein the two-dimensional crystalline material is silicene and the species is silicon; and wherein the substrate provides a non-metallic surface upon which the two-dimensional crystalline material is produced. providing a substrate having nucleation sites within a reaction chamber; introducing at a precursor entry point a precursor into the reaction chamber, the precursor being in a gas phase and/or suspended in a gas; heating the substrate to a temperature that is within a decomposition range of the precursor, and that allows two-dimensional crystalline material formation from a species released from the decomposed precursor; and cooling the precursor entry point; wherein the reaction chamber is a close coupled reaction chamber such that a separation between the substrate surface upon which the two-dimensional crystalline material is formed and the point at which the precursor enters the reaction chamber is sufficiently small, and a thermal gradient between the substrate surface and the point at which the precursor enters the chamber is sufficiently steep, such that the fraction of precursor that reacts in the gas phase within the reaction chamber is low enough to allow the formation of the two-dimensional crystalline material, wherein the distance between the surface of the substrate upon which the two-dimensional crystalline material is produced and the point at which precursor enters the chamber is less than 10mm; and wherein the two-dimensional crystalline material is graphene and the species is carbon or wherein the two-dimensional crystalline material is silicene and the species is silicon; and wherein the substrate provides a non-metallic surface upon which the two-dimensional crystalline material is produced.
A wiring substrate (1, 30) comprising: a substrate body (2, 2a, 2b) made from ceramic (c1 to c4), having a front surface and a rear surface, and having a through hole (6, 6a, 6b, 36) penetrating between the front surface and the rear surface; and a heatsink (11, 11a, 11b, 31) inserted into the through hole of the substrate body (2, 2a, 2b), wherein a step portion protruding in a direction perpendicular to an axial direction of the through hole or a step portion inclined such that the step portion on a center side is closer to the rear surface than that on a peripheral side in a plan view, is formed over an entire periphery on an inner wall surface (8, 9) forming the through hole (6, 6a, 6b, 36) of the substrate body (2, 2a, 2b), a flange facing the step portion (7, 7a) is provided so as to protrude, over an entire periphery on a side surface of the heatsink (11, 11a, 11b, 31), a stress relaxing ring (16, 16a) is arranged over an entire periphery between the step portion (7, 7a) and a joining surface (15, 15a) of the flange, which joining surface faces the step portion, and a brazing material is provided at least between the stress relaxing ring (16, 16a) and the joining surface of the flange and between the stress relaxing ring (16, 16a) and the step portion (7, 7a). a substrate body (2, 2a, 2b) made from ceramic (c1 to c4), having a front surface and a rear surface, and having a through hole (6, 6a, 6b, 36) penetrating between the front surface and the rear surface; and a heatsink (11, 11a, 11b, 31) inserted into the through hole of the substrate body (2, 2a, 2b), wherein a step portion protruding in a direction perpendicular to an axial direction of the through hole or a step portion inclined such that the step portion on a center side is closer to the rear surface than that on a peripheral side in a plan view, is formed over an entire periphery on an inner wall surface (8, 9) forming the through hole (6, 6a, 6b, 36) of the substrate body (2, 2a, 2b), a flange facing the step portion (7, 7a) is provided so as to protrude, over an entire periphery on a side surface of the heatsink (11, 11a, 11b, 31), a stress relaxing ring (16, 16a) is arranged over an entire periphery between the step portion (7, 7a) and a joining surface (15, 15a) of the flange, which joining surface faces the step portion, and a brazing material is provided at least between the stress relaxing ring (16, 16a) and the joining surface of the flange and between the stress relaxing ring (16, 16a) and the step portion (7, 7a).
A method in a Narrow Band Internet of Things, NB-IoT, node (405A, 410A), comprising: obtaining information related to an operational mode of a first cell to be measured by the node, wherein the operational mode comprises one of an in-band mode, a stand-alone mode and a guard-band mode; selecting a measurement procedure from a plurality of possible measurement procedures based on the obtained information related to the operational mode of the first cell, wherein one or more measurement parameters of the selected measurement procedure are adapted to the operational mode of the first cell; performing one or more measurements in the first cell using the selected measurement procedure. obtaining information related to an operational mode of a first cell to be measured by the node, wherein the operational mode comprises one of an in-band mode, a stand-alone mode and a guard-band mode; selecting a measurement procedure from a plurality of possible measurement procedures based on the obtained information related to the operational mode of the first cell, wherein one or more measurement parameters of the selected measurement procedure are adapted to the operational mode of the first cell; performing one or more measurements in the first cell using the selected measurement procedure.
An aerial work platform comprising a people-holding cage; and a lifting unit for lifting the cage; the lifting unit comprising a telescopic arm comprising, in turn, a first section bar, a second section bar fitted inside the first section bar and movable between a retracted position and an extracted position, a third section bar fitted inside the second section bar and movable between a retracted position and an extracted position, a fourth section bar fitted inside the third section bar and movable between a retracted position and an extracted position, an actuator cylinder to move the second section bar between its extracted and retracted positions, a first rope operating system (20, 21) fitted inside the telescopic arm to move the third section bar between its extracted and retracted positions, a second rope operating system (22, 23) fitted inside the telescopic arm to move the fourth section bar between its extracted and retracted positions, and at least one pipe to feed an operating fluid along the telescopic arm; the pipe comprising a first flexible segment to feed the operating fluid from the first section bar to the third section bar and a second flexible segment to feed the operating fluid from the third section bar to the fourth section bar; wherein the first flexible segment is fitted inside the telescopic arm, extends inside a hollow space defined between the first section bar and the second section bar and projects into the second section bar to be connected to the third section bar; and wherein the second flexible segment is fitted inside the telescopic arm and extends inside said third and fourth section bars (15, 16); and characterized in that the actuator cylinder is fitted inside the telescopic arm and in that the first flexible segment is coupled to the first section bar and the third section bar.
Measuring assembly with a measuring apparatus and a recognition system (62;70) for the measuring apparatus, the measuring apparatus including a removable device for checking dimensions and/or shape of a mechanical piece and a stationary part comprising at least one mechanical reference (55;59) for the removable device, the recognition system (62;70) including: - a field source (64;64';71) placed in the stationary part and adapted to generate a field; - a matching element (63;73) placed in the removable device and adapted to alter the field propagation; - at least one sensor (67;72) fixed to the stationary part to detect the field generated by the field source (64;64';71), said sensor (67;72) generating a detection or a non-detection signal which depends on the alteration of the field propagation; - a processing unit connected to the sensor (67;72) and adapted to provide an indication of correct positioning of the removable device with respect to the stationary part depending on the signal generated by the sensor (67;72). - a field source (64;64';71) placed in the stationary part and adapted to generate a field; - a matching element (63;73) placed in the removable device and adapted to alter the field propagation; - at least one sensor (67;72) fixed to the stationary part to detect the field generated by the field source (64;64';71), said sensor (67;72) generating a detection or a non-detection signal which depends on the alteration of the field propagation; - a processing unit connected to the sensor (67;72) and adapted to provide an indication of correct positioning of the removable device with respect to the stationary part depending on the signal generated by the sensor (67;72).
A polyamide having a melting point between 330°C and 370°C, said polyamide comprising: - a diamine component (a) comprising at least 10 mole % and at most 28 mole %, based on the total number of moles of the diamine component (a), of at least one aliphatic diamine having more than 6 carbon atoms, which is a mix of 1,9-nonanediamine and 2-methyl-1,8-octanediamine (MODA), and at least 72 mole % and at most 90 mole %, based on the total number of moles of the diamine component (a), of at least one aliphatic diamine having at most 6 carbon atoms, and - a dicarboxylic acid component (b) comprising more than 50 mole %, based on the total number of moles of the dicarboxylic acid component (b), of terephthalic acid, wherein said melting point is measured by Differential Scanning Calorimetry, wherein after preliminarily checking that the calorimeter is well-calibrated by means of a calibration sample, the polyamide is submitted to the following heating/cooling cycle: 1 st heating from room temperature up to 375°C at a rate of 10°C/min, followed by cooling from 375°C down to room temperature at a rate of 20°C/min, followed by 2 nd heating from room temperature up to 375°C at a rate of 10°C/min, and the melting point is measured during 2 nd heating, wherein melting is an endothermic first-order transition that appears as a negative peak on the DSC scan. - a diamine component (a) comprising at least 10 mole % and at most 28 mole %, based on the total number of moles of the diamine component (a), of at least one aliphatic diamine having more than 6 carbon atoms, which is a mix of 1,9-nonanediamine and 2-methyl-1,8-octanediamine (MODA), and at least 72 mole % and at most 90 mole %, based on the total number of moles of the diamine component (a), of at least one aliphatic diamine having at most 6 carbon atoms, and - a dicarboxylic acid component (b) comprising more than 50 mole %, based on the total number of moles of the dicarboxylic acid component (b), of terephthalic acid,
A wind turbine rotor blade with an electrical heating element, which has a first heatable surface section with a first edge and a second edge, which lie opposite each other and between which the first surface section has a surface sectional length, characterized in that at least one first bundle of electrically conductive fibers is arranged in the first surface section, which forms a current path with a current path length between the first edge and the second edge, wherein the current path length is at least twice as large as the surface section length.
Device for loading hams on storage frames and unloading the hams therefrom, said storage frames being provided with removable supporting bars provided with hooking means to which the hams can be suspended, said device comprising gripping means (11; 27) suitable for engaging in said removable supporting bars, characterised in that it further comprises spacer means suitable for spacing apart from one another two rows (F1; F2) of hams hanging on opposite sides of a removable supporting bar.
A method for controlling an uplink noise figure and gain in a distributed antenna system network comprising at least one intermediate radio unit (2 1) and one or more remote radio heads (3 1, 3 2) connected via a respective link (4 1, 4 2) to the at least one intermediate radio unit (2 1), the method comprising: - establishing a target noise figure, and - adjusting, for each link (4 1, 4 2) between the one or more remote radio heads (3 1, 3 2) and the intermediate radio unit (2 1), attenuation such as to obtain the target noise figure for each remote radio head (3 1, 3 2) connected to the at least one intermediate radio unit (2 1), wherein the establishing the target noise figure comprises: - measuring a respective cable attenuation, - establishing, in the intermediate radio unit (2 1), the highest cable attenuation, and - establishing the target noise figure to be equal to a noise figure corresponding to the noise figure of the link (4 1, 4 2) having the highest cable attenuation characterized in that the respective cable attenuation: either is measured in the intermediate radio unit and the highest cable attenuation is established among the measured cable attenuations, or is measured in each radio head and reported to the intermediate unit, and the highest attenuation is established among the received reports about measured cable attenuations. - establishing a target noise figure, and - adjusting, for each link (4 1, 4 2) between the one or more remote radio heads (3 1, 3 2) and the intermediate radio unit (2 1), attenuation such as to obtain the target noise figure for each remote radio head (3 1, 3 2) connected to the at least one intermediate radio unit (2 1), - measuring a respective cable attenuation, - establishing, in the intermediate radio unit (2 1), the highest cable attenuation, and - establishing the target noise figure to be equal to a noise figure corresponding to the noise figure of the link (4 1, 4 2) having the highest cable attenuation either is measured in the intermediate radio unit and the highest cable attenuation is established among the measured cable attenuations, or is measured in each radio head and reported to the intermediate unit, and the highest attenuation is established among the received reports about measured cable attenuations.
Recipient made of plastic material comprising a panel with at least one radius of curvature greater than 100 mm, the panel having reinforcing means, characterized in that the reinforcing means include: - a peripheral slot defining a reinforcing contour, - a plurality of inner slots (161; 162) arranged inside the reinforcing contour, each inner slot (161; 162) having two ends (161a; 161b; 162a; 162b), each end opening into the peripheral slot, or at least one end (162a; 162b) opening out into another inner slot. - a peripheral slot defining a reinforcing contour, - a plurality of inner slots (161; 162) arranged inside the reinforcing contour, each inner slot (161; 162) having two ends (161a; 161b; 162a; 162b), each end opening into the peripheral slot, or at least one end (162a; 162b) opening out into another inner slot.
A method of generating power, the method comprising: passing a CO 2 containing stream from a primary combustor through a turbine to expand the CO 2 containing stream, generate power, and form a turbine exhaust stream comprising CO 2; cooling the turbine exhaust stream comprising CO 2 in a heat exchanger to form a cooled turbine exhaust stream; pressurizing CO 2 from the cooled turbine exhaust stream to form a pressurized CO 2 containing stream; heating the pressurized CO 2 containing stream in the heat exchanger; further heating the pressurized CO 2 containing stream with a solar heater; and passing the pressurized and solar heated CO 2 containing stream to the primary combustor. passing a CO 2 containing stream from a primary combustor through a turbine to expand the CO 2 containing stream, generate power, and form a turbine exhaust stream comprising CO 2; cooling the turbine exhaust stream comprising CO 2 in a heat exchanger to form a cooled turbine exhaust stream; pressurizing CO 2 from the cooled turbine exhaust stream to form a pressurized CO 2 containing stream; heating the pressurized CO 2 containing stream in the heat exchanger; further heating the pressurized CO 2 containing stream with a solar heater; and passing the pressurized and solar heated CO 2 containing stream to the primary combustor.