mhurhangee/patent-ind-claim-en huggingface dataset:
An extra-oral imaging system , the extra-oral system comprising: a support base adjustable in at least one dimension; a cephalometric module coupled to the support base and configured to position a cephalometric imaging sensor about a first imaging area formed with an x-ray source , where x-rays from the x-ray source impinge the cephalometric sensor after radiating the first imaging area; a cephalometric patient positioning unit positioned operatively near the first imaging area; and an integral cephalometric collimator characterised in that the collimator comprises an elongated metallic plate surrounding a fixed slot aperture and encased on at least a portion of all exterior sides by a unitary body in substantially continuous contact with an outer surface of the elongated metallic plate . a support base adjustable in at least one dimension; a cephalometric module coupled to the support base and configured to position a cephalometric imaging sensor about a first imaging area formed with an x-ray source , where x-rays from the x-ray source impinge the cephalometric sensor after radiating the first imaging area; a cephalometric patient positioning unit positioned operatively near the first imaging area; and an integral cephalometric collimator characterised in that the collimator comprises an elongated metallic plate surrounding a fixed slot aperture and encased on at least a portion of all exterior sides by a unitary body in substantially continuous contact with an outer surface of the elongated metallic plate .
A method of data transmission, comprising: receiving , by user equipment, UE, a transmission of service data sent by a base station, wherein scheduling control data on the transmission of the service data carries scheduling information of service data for which a transmission resource is preempted, comprising: receiving two transmissions of first service data sent by the base station, wherein scheduling control data on the latter transmission of the two transmissions of the first service data carries scheduling information indicating a transmission resource location of the first service data which is preempted by second service data in the former transmission of the two transmissions of the first service data and the first service data corresponding to the transmission resource location, and the scheduling control data is carried on physical downlink control channel; wherein the scheduling information carried by the scheduling control data on the latter transmission of the two transmissions of the first service data is sent by the base station when the base station cannot predict that a transmission resource for the first service data in the former transmission is preempted by the second service data in the former transmission, and scheduling for the second service data is semi-persistent scheduling or grant free; and receiving , by the UE, the service data for which the transmission resource is preempted according to the scheduling information by receiving the first service data corresponding to the transmission resource location according to the scheduling information. receiving two transmissions of first service data sent by the base station, wherein scheduling control data on the latter transmission of the two transmissions of the first service data carries scheduling information indicating a transmission resource location of the first service data which is preempted by second service data in the former transmission of the two transmissions of the first service data and the first service data corresponding to the transmission resource location, and the scheduling control data is carried on physical downlink control channel; wherein the scheduling information carried by the scheduling control data on the latter transmission of the two transmissions of the first service data is sent by the base station when the base station cannot predict that a transmission resource for the first service data in the former transmission is preempted by the second service data in the former transmission, and scheduling for the second service data is semi-persistent scheduling or grant free; and receiving , by the UE, the service data for which the transmission resource is preempted according to the scheduling information by receiving the first service data corresponding to the transmission resource location according to the scheduling information.
A method for determining an authenticity of a microparticle mark having one or more microparticles , comprising: acquiring at least a first set and a second set of information from the microparticle mark, each set of information being acquired under differing conditions and comprising an image of the microparticles which have one or more characteristics that are usable in verifying that the mark includes at least one three-dimensional microparticle; using a processing system to perform an automatic analysis of at least the first set and the second set of information to confirm that the microparticle mark includes at least one three-dimensional microparticle by detecting a difference between the first set and the second set of information arising from at least one characteristic of a microparticle in the first set and the same characteristic in the second set, the difference being producible only by a three-dimensional microparticle; and providing a tangible indication of an authentication of the microparticle mark in response to the automatic analysis confirming the existence of at least one three-dimensional microparticle in the microparticle mark. acquiring at least a first set and a second set of information from the microparticle mark, each set of information being acquired under differing conditions and comprising an image of the microparticles which have one or more characteristics that are usable in verifying that the mark includes at least one three-dimensional microparticle; using a processing system to perform an automatic analysis of at least the first set and the second set of information to confirm that the microparticle mark includes at least one three-dimensional microparticle by detecting a difference between the first set and the second set of information arising from at least one characteristic of a microparticle in the first set and the same characteristic in the second set, the difference being producible only by a three-dimensional microparticle; and providing a tangible indication of an authentication of the microparticle mark in response to the automatic analysis confirming the existence of at least one three-dimensional microparticle in the microparticle mark.
A communication method implemented by a first communication gateway (GTW1) interfacing between a local area network (R1) and a communication network (NT1), comprising the following steps: - identifying a data stream (ST1) to be transmitted to the local area network (R1); - detecting that a second communication gateway (GTW2) is receiving the data stream (ST1) coming from the communication network (NT1); - sending an access request (RQ4) to the second communication gateway (GTW2) to establish a wireless connection between the first communication gateway (GTW1) acting as a client and the second communication gateway (GTW2) acting as an access point for the communication network (NT1); and - receiving, via said wireless connection, at least part of said data stream transmitted by the second communication gateway (GTW2). - identifying a data stream (ST1) to be transmitted to the local area network (R1); - detecting that a second communication gateway (GTW2) is receiving the data stream (ST1) coming from the communication network (NT1); - sending an access request (RQ4) to the second communication gateway (GTW2) to establish a wireless connection between the first communication gateway (GTW1) acting as a client and the second communication gateway (GTW2) acting as an access point for the communication network (NT1); and - receiving, via said wireless connection, at least part of said data stream transmitted by the second communication gateway (GTW2).
Method for welding components by means of a laser beam , in which the laser beam is moved along a joining zone of the components , wherein the material of the components , which consist in particular of metallic material, is melted in the region of the joining zone , wherein the melt is solidified in a trailing region of the laser beam , at a distance from the laser beam , to form a weld seam , wherein the melt is heated in the trailing region of the laser beam at least indirectly by means of a heat source , and wherein the heat source generates a trailing region of the melt , said trailing region being enlarged in terms of its length (l) and volume, and wherein the trailing region is heated indirectly by action of the heat source in that the heat source acts on at least one zone of at least one component , said zone being arranged adjacent to the trailing region , characterized in that , in the region of its active zone, in addition to a movement in a feed direction of the laser beam , the heat source is moved relative to the laser beam in a plane perpendicular to the laser beam .
A variable orientation guide vane (12; 112) for a gas turbine engine , the variable orientation guide vane (12; 112) comprising: an airfoil (38A; 38B; 138) for interacting with a fluid (F) in a gas path of the gas turbine engine , the airfoil (38A; 38B; 138) having a leading edge (42A; 42B) and a trailing edge (44A; 44B); and a button (40A; 40B; 140), the airfoil (38A; 38B; 138) being mounted to the button (40A; 40B; 140) and rotatable with the button (40B; 40B; 140) about an axis (VA; VB) during use, the button (40A; 40B; 140) having a leading end at an angular position corresponding to an angular position of the leading edge (42A; 42B) of the airfoil (38A; 38B; 138) relative to the axis (VA; VB), the button (40A; 40B; 140) including a platform surface (46A; 46B; 146) for facing the gas path and defining part of the gas path during use, characterized in that the platform surface (46A; 46B; 146) includes a depression (48A; 48B) for receiving therein part of an adjacent variable orientation guide vane (12; 112), the depression (48A; 48B) defining a sunken portion of the platform surface (46A; 46B; 146) that is lower than a leading end portion of the platform surface (46A; 46B; 146) at or adjacent the leading end of the button (40A; 40B; 140). an airfoil (38A; 38B; 138) for interacting with a fluid (F) in a gas path of the gas turbine engine , the airfoil (38A; 38B; 138) having a leading edge (42A; 42B) and a trailing edge (44A; 44B); and a button (40A; 40B; 140), the airfoil (38A; 38B; 138) being mounted to the button (40A; 40B; 140) and rotatable with the button (40B; 40B; 140) about an axis (VA; VB) during use, the button (40A; 40B; 140) having a leading end at an angular position corresponding to an angular position of the leading edge (42A; 42B) of the airfoil (38A; 38B; 138) relative to the axis (VA; VB), the button (40A; 40B; 140) including a platform surface (46A; 46B; 146) for facing the gas path and defining part of the gas path during use, characterized in that the platform surface (46A; 46B; 146) includes a depression (48A; 48B) for receiving therein part of an adjacent variable orientation guide vane (12; 112), the depression (48A; 48B) defining a sunken portion of the platform surface (46A; 46B; 146) that is lower than a leading end portion of the platform surface (46A; 46B; 146) at or adjacent the leading end of the button (40A; 40B; 140).
A cooling device comprising at least one fresh food compartment where foodstuffs and beverages are stored; at least one freezing compartment wherein foodstuffs are stored by freezing; at least one compressor which carries out a cooling cycle; at least one fresh food compartment evaporator which cools down the interior of the fresh food compartment during the cooling cycle; at least one freezing compartment evaporator which cools down the interior of the freezing compartment during the cooling cycle; at least one first temperature sensor which detects the temperature of the interior of the fresh food compartment ; at least one second temperature sensor which detects the temperature of the interior of the freezing compartment ; and at least one defrost unit which is connected both to the fresh food compartment evaporator and the freezing compartment evaporator and which carries out a defrost process by removing the frost accumulated on the fresh food compartment evaporator and the freezing compartment evaporator ; and at least one control unit which controls the cooling cycle and the defrost cycle, characterized by the control unit which is configured to calculate a cooling capacity depending on the decrease in temperature in the fresh food compartment after the compressor is operated for a certain period of time and compare the cooling capacity in the fresh food compartment with a predetermined threshold cooling capacity at certain intervals, to compare the temperature detected by the second temperature sensor with a lower temperature value determined for the freezing compartment by the producer to stop the compressor if the cooling capacity in the fresh food compartment is detected to be lower than the threshold cooling capacity as a result of the comparison and at least to activate the defrost unit to start the defrost process if it is detected that the temperature value detected by the second temperature sensor is lower than the lower temperature value determined by the producer for the freezing compartment as a result of the comparison.
Module for modularly constructed clean-room facilities with a housing's interior space , in which a storage unit and a handling unit are arranged, which comprises a drive part for a gripper arm , wherein the drive part and the gripper arm are arranged in spatial parts of the housing's interior space divided by a membrane-like partition wall and the drive part and the gripper arm are coupled via a supported skid that can be adjusted in a driven manner with relation to the drive part and a runner arranged in a torque-proof manner with relation to the gripper arm , wherein the skid and the runner lying opposite with relation to the partition wall are provided with support structures corresponding to one another, which comprise roller supports with support rollers lying opposite to one another and magnetic pairings associated with the support structures , wherein the drive part and the gripper arm are magnetically motion-coupled to the partition wall in a bridging and contact-free manner by a centring magnetic pairings of the magnetic pairings associated with the support structures and wherein supporting magnetic pairings of the magnetic pairings associated with the support structures support the drive part belonging to the gripper arm according to the support via the support rollers, characterized in that the roller supports formed by the support rollers lying opposite to the partition wall are consolidated into a support roller group with at least two support rollers , which are arranged in an offset manner on the corner points of a polygon, in particular of a triangle, in such a way that, in the case of a side of the partition wall and support rollers lying on the same perimeter to the rotational axis of the rotary support , the opposite-lying third support roller is arranged in an adjacent position to this on a deviating perimeter , thereby being smaller in particular.
Mixture comprising: (A) at least a first aliphatic-aromatic biodegradable polyester (A) of the diacid-diol type obtainable by a mixture comprising: a) at least one acid component having the following composition: al) 51 - 95% by moles of aliphatic dicarboxylic acids, composed for at least 50% by moles of aliphatic dicarboxylic acids with a number of C atoms in the main chain from 7 to 22, of renewable origin; a2) 5 - 49% by moles of polyfunctional aromatic acids; b) at least one diol; (B) at least a second biodegradable aliphatic-aromatic polyester (B) obtainable starting from a mixture comprising adipic acid, terephthalic acid and at least one aliphatic diol; (C) at least one polymer of natural origin (C); wherein the concentration of (A) varies, with respect to (A+B) in the interval between 5 and 95% by weight, wherein (C) is present in a quantity lower than 50 % by weight with respect to (A+B+C), said mixture having a Melt Flow Index of 1,5-10 g/10 min. measured at 160°C and 5kg according to ASTM 1238-89 "Standard Test Method for Melt Flow rates of Thermoplatics by Extrusion Plastometer", wherein said mixture further comprises at least one rigid polymer with a modulus greater than 1,500 MPa measured according to ASTM D-882-88, traction at 23°C, 55% Relative Humidity, Vo = 50 mm/min, wherein said rigid polymer is selected from polyhydroxyalkanoates; said mixture being biodegradable according to EN13432. (A) at least a first aliphatic-aromatic biodegradable polyester (A) of the diacid-diol type obtainable by a mixture comprising: a) at least one acid component having the following composition: al) 51 - 95% by moles of aliphatic dicarboxylic acids, composed for at least 50% by moles of aliphatic dicarboxylic acids with a number of C atoms in the main chain from 7 to 22, of renewable origin; a2) 5 - 49% by moles of polyfunctional aromatic acids; b) at least one diol; a) at least one acid component having the following composition: al) 51 - 95% by moles of aliphatic dicarboxylic acids, composed for at least 50% by moles of aliphatic dicarboxylic acids with a number of C atoms in the main chain from 7 to 22, of renewable origin; a2) 5 - 49% by moles of polyfunctional aromatic acids; al) 51 - 95% by moles of aliphatic dicarboxylic acids, composed for at least 50% by moles of aliphatic dicarboxylic acids with a number of C atoms in the main chain from 7 to 22, of renewable origin; a2) 5 - 49% by moles of polyfunctional aromatic acids; b) at least one diol; (B) at least a second biodegradable aliphatic-aromatic polyester (B) obtainable starting from a mixture comprising adipic acid, terephthalic acid and at least one aliphatic diol; (C) at least one polymer of natural origin (C);
A method of controlling an uplink transmission power for Sounding Reference Signal, SRS, transmission at a user equipment, UE, in a wireless communication system , the method comprising: receiving a first power offset value for a periodic SRS transmission and a second power offset value for an aperiodic SRS transmission from a base station, BS, ; receiving a downlink control information, DCI, format including an indicator, the indicator triggering the aperiodic SRS transmission; and when the periodic SRS transmission overlaps the aperiodic SRS transmission in a subframe, while cancelling the periodic SRS transmission, transmitting the aperiodic SRS in the subframe according to the indicator to the BS. receiving a first power offset value for a periodic SRS transmission and a second power offset value for an aperiodic SRS transmission from a base station, BS, ; receiving a downlink control information, DCI, format including an indicator, the indicator triggering the aperiodic SRS transmission; and when the periodic SRS transmission overlaps the aperiodic SRS transmission in a subframe, while cancelling the periodic SRS transmission, transmitting the aperiodic SRS in the subframe according to the indicator to the BS.
A method for connecting a plurality of individual objects to a carrier structure , wherein connecting means are passed through an opening in an object and an opening in the carrier structure , respectively, wherein openings on the objects and/or openings on the carrier structure have different sizes, wherein blind rivet nuts are used having a rivet shaft and an internal thread and by activating a pulling device, which has a threaded spindle that is screwed into the internal thread of the respective blind rivet nut , a closing head is formed, whereby at least two blind rivet nuts have different external sizes and the external size of the blind rivet nut is selected according to the size of the respective openings, characterized in that the blind rivet nuts have internal threads of the same size, independently of their external size, and in that the blind rivet nuts have the same setting force or the same setting path, independently of their external size.
A method of operation of a wireless device comprising a receiver which comprises a mixer for downconverting a received signal, a controlled oscillator adapted to provide a local oscillator, LO, signal to the mixer and a radio frequency phase locked loop, RF PLL, adapted to control the controlled oscillator dependent on a carrier frequency of a desired receive signal; wherein the wireless device further comprises a first reference crystal oscillator (26-1) that operates at a first reference frequency and a second reference crystal oscillator (26-2) that operates at a second reference frequency that is greater than the first reference frequency, the method comprising the steps of: making a decision as to whether to configure the receiver of the wireless device to use the first reference crystal oscillator (26-1) or the second reference crystal oscillator (26-2) based on a carrier frequency of a signal to be received by the receiver of the wireless device ; and configuring (104 or 114) the receiver of the wireless device to use the first reference crystal oscillator (26-1) or the second reference crystal oscillator (26-2) in accordance with the decision, by providing either a first reference frequency, provided by the first reference crystal oscillator (26-1), or a second reference frequency, provided by the second reference crystal oscillator (26-2), to the RF PLL . making a decision as to whether to configure the receiver of the wireless device to use the first reference crystal oscillator (26-1) or the second reference crystal oscillator (26-2) based on a carrier frequency of a signal to be received by the receiver of the wireless device ; and configuring (104 or 114) the receiver of the wireless device to use the first reference crystal oscillator (26-1) or the second reference crystal oscillator (26-2) in accordance with the decision, by providing either a first reference frequency, provided by the first reference crystal oscillator (26-1), or a second reference frequency, provided by the second reference crystal oscillator (26-2), to the RF PLL .
A filter sensor comprising: an antenna; a controller electrically coupled to the antenna and configured to drive an electric signal through the antenna to generate an electromagnetic signal, wherein the antenna is electromagnetically coupled to a filter media via near-field coupling, wherein the controller is configured to detect a characteristic of the antenna, wherein the characteristic of the antenna varies in response to a change of the filter media, and wherein the controller is further configured to determine an indicator indicative of a remaining filter capacity of the filter media based on the characteristic of the antenna. an antenna; a controller electrically coupled to the antenna and configured to drive an electric signal through the antenna to generate an electromagnetic signal, wherein the antenna is electromagnetically coupled to a filter media via near-field coupling, wherein the controller is configured to detect a characteristic of the antenna, wherein the characteristic of the antenna varies in response to a change of the filter media, and wherein the controller is further configured to determine an indicator indicative of a remaining filter capacity of the filter media based on the characteristic of the antenna.