mhurhangee/patent-ind-claim-en huggingface dataset:
A radio-frequency (RF) sensor to measure a hydration level, comprising: a substrate ; an antenna having at least a portion disposed on a peripheral portion of the substrate ; an absorption element comprising a fluid collection media; a spacer layer attached to the peripheral portion of the substrate adjacent to the antenna to physically separate the antenna from the absorption element , the spacer layer has a thickness T , a relative permittivity k, and a figure of merit defined as the ratio of T in micrometers by k, the spacer layer has the figure of merit no less than 20 micrometers; and a sensor element disposed on the substrate , the sensor element being disposed on the absorption element and configured to measure the hydration level of the fluid collection media, the sensor element being at least partially surrounded by the antenna and electrically coupled to the antenna . a substrate ; an antenna having at least a portion disposed on a peripheral portion of the substrate ; an absorption element comprising a fluid collection media; a spacer layer attached to the peripheral portion of the substrate adjacent to the antenna to physically separate the antenna from the absorption element , the spacer layer has a thickness T , a relative permittivity k, and a figure of merit defined as the ratio of T in micrometers by k, the spacer layer has the figure of merit no less than 20 micrometers; and a sensor element disposed on the substrate , the sensor element being disposed on the absorption element and configured to measure the hydration level of the fluid collection media, the sensor element being at least partially surrounded by the antenna and electrically coupled to the antenna .
A vacuum insulation panel manufacturing device in which a vacuum insulation panel is manufactured by wrapping an insulating core member with a packaging member in which an evacuation port is provided, applying a vacuum to evacuate inside of the packaging member from the evacuation port , and sealing the evacuation port with a sealing member , the vacuum insulation panel manufacturing device comprising: a chamber with an opened bottom; a chamber evacuation hole provided in the chamber ; a window to which a quartz glass is attached, said window being provided in an upper portion of the chamber ; a holding unit which can hold the sealing member ; a lifting mechanism which raises/lowers the holding unit ; a laser welding unit provided outside of the chamber; characterized in that : it further comprises a frame member which holds and raises/lowers the chamber ; the window is provided in a middle of the upper portion of the chamber ; the holding unit is configured to hold an outer periphery of the sealing member , includes a hole for allowing laser light to pass through, and is supported by way of three support rods attached along a circumference of the holding unit , and wherein an upper end of the support rods is fixed to a lifting plate of the lifting mechanism , passing through the upper portion of the chamber , around the quartz glass . a chamber with an opened bottom; a chamber evacuation hole provided in the chamber ; a window to which a quartz glass is attached, said window being provided in an upper portion of the chamber ; a holding unit which can hold the sealing member ; a lifting mechanism which raises/lowers the holding unit ; a laser welding unit provided outside of the chamber; characterized in that : it further comprises a frame member which holds and raises/lowers the chamber ; the window is provided in a middle of the upper portion of the chamber ; the holding unit is configured to hold an outer periphery of the sealing member , includes a hole for allowing laser light to pass through, and is supported by way of three support rods attached along a circumference of the holding unit , and wherein an upper end of the support rods is fixed to a lifting plate of the lifting mechanism , passing through the upper portion of the chamber , around the quartz glass . it further comprises a frame member which holds and raises/lowers the chamber ; the window is provided in a middle of the upper portion of the chamber ; the holding unit is configured to hold an outer periphery of the sealing member , includes a hole for allowing laser light to pass through, and is supported by way of three support rods attached along a circumference of the holding unit , and wherein an upper end of the support rods is fixed to a lifting plate of the lifting mechanism , passing through the upper portion of the chamber , around the quartz glass .
A modular low-floor transport system comprising at least one drive module which comprises a drive base and a drive chassis which is connected thereto and which has at least one drive wheel which is coupled to a drive and which comprises at least one carrier module which comprises a carrier base and a carrier chassis which is connected thereto and which has at least one driveless carrier wheel, wherein the drive base and the carrier base are fixedly connected to one another with respect to a lifting direction (H) and the drive chassis is mounted on the drive base so as to be movable in the lifting direction (H). a drive base and a drive chassis which is connected thereto and which has at least one drive wheel which is coupled to a drive a carrier base and a carrier chassis which is connected thereto and which has at least one driveless carrier wheel,
A wind turbine comprising a plurality of elements including a tower , a nacelle mounted to the tower and a plurality of blades rotatable mounted to the nacelle , wherein at least one element of the tower , the nacelle and the blades is configured to exhibit electromagnetic oscillation along an axis of the at least one element with a resonance frequency (f n ) of an order n and comprises a coaxial impedance member , characterized in that the coaxial impedance member is coaxially arranged about the axis of the at least one element; and the coaxial impedance member is tuned to the resonance frequency (f n ) of the order n. the coaxial impedance member is coaxially arranged about the axis of the at least one element; and the coaxial impedance member is tuned to the resonance frequency (f n ) of the order n.
Sweetening composition comprising a mixture of intense sweeteners consisting of: - Cyclamate or an edible salt thereof in a percentage ranging from 35 to 65%; - Saccharin or an edible salt thereof in a percentage ranging from 10 to 35%; - Sucralose in a percentage ranging from 2.8 to 55%. wherein the percentages are calculated by weight of the total weight of the intensive sweeteners alone. - Cyclamate or an edible salt thereof in a percentage ranging from 35 to 65%; - Saccharin or an edible salt thereof in a percentage ranging from 10 to 35%; - Sucralose in a percentage ranging from 2.8 to 55%.
A method of receiving, by a user equipment, UE , a physical downlink shared channel, PDSCH, in a wireless communication system, the method comprising: receiving (S2401), from a base station, BS , a higher layer signal comprising first information for an uplink, UL-downlink, DL, configuration; repeatedly receiving (S2403), from the BS , a first transport block, TB, via the PDSCH based on the first information for the UL-DL configuration; receiving (S2402), from the BS , a first control channel comprising second information for the UL-DL configuration; and discarding, by the UE , a second control channel scheduling a PDSCH repetition of a second TB in a transmission time unit based on i) the first information for the UL-DL configuration indicating the transmission time unit as an uplink, and ii) the second information for the UL-DL configuration indicating the transmission time unit as a downlink. receiving (S2401), from a base station, BS , a higher layer signal comprising first information for an uplink, UL-downlink, DL, configuration; repeatedly receiving (S2403), from the BS , a first transport block, TB, via the PDSCH based on the first information for the UL-DL configuration; receiving (S2402), from the BS , a first control channel comprising second information for the UL-DL configuration; and discarding, by the UE , a second control channel scheduling a PDSCH repetition of a second TB in a transmission time unit based on i) the first information for the UL-DL configuration indicating the transmission time unit as an uplink, and ii) the second information for the UL-DL configuration indicating the transmission time unit as a downlink.
A biological fluid separation device adapted to receive a multi-component blood sample , the biological fluid separation device comprising: a housing having an inlet port , a flow channel , and an outlet port , the inlet port and the outlet port in fluid communication via the flow channel ; a filter ; a first reservoir defined within the flow channel between the inlet port and the filter ; and a second reservoir defined within the flow channel between the filter and the outlet port , wherein the filter is disposed between the first reservoir and the second reservoir and is adapted to trap a first portion of the multi-component blood sample within the first reservoir and to allow a second portion of the multi-component blood sample to pass through the filter and into the second reservoir , characterized in that the flow channel comprises a loop such that the first portion of the multi-component blood sample is recirculated through the flow channel . a housing having an inlet port , a flow channel , and an outlet port , the inlet port and the outlet port in fluid communication via the flow channel ; a filter ; a first reservoir defined within the flow channel between the inlet port and the filter ; and a second reservoir defined within the flow channel between the filter and the outlet port , wherein the filter is disposed between the first reservoir and the second reservoir and is adapted to trap a first portion of the multi-component blood sample within the first reservoir and to allow a second portion of the multi-component blood sample to pass through the filter and into the second reservoir , characterized in that the flow channel comprises a loop such that the first portion of the multi-component blood sample is recirculated through the flow channel .
A textile comprising: a knit or woven construction formed using at least one space-treated yarn ; characterized in that : prior to forming the textile, the yarn has been space-treated with functional finishes so as to have at least a first yarn segment having a durable water-repellent, DWR, finish applied thereto and at least a second yarn segment contiguous with the first yarn segment along the length of the yarn , wherein the second yarn segment has a hydrophilic finish applied thereto.
A FBMC transmission method for at least a first and a second blocks of symbols ( X 0 , X 1 ), each block of symbols comprising a time sequence of L real vectors of predetermined size N , said method having a first and a second FBMC modulation pathways, each FBMC modulation pathway being associated with an antenna, wherein - during a first use of the transmission channel, the vectors of the first block and vectors of the second block are provided to the first FBMC modulation pathway and to the second FBMC modulation pathway, respectively, in the order of said time sequence; said method being characterised in that : - the first block is transformed by multiplying the vectors of this block by a factory j L -1 where L is an even number and by inverting the time order of the sequence of vectors thus obtained, and the second block is transformed by multiplying the vectors of this block by a factor -j L -1 and by inverting the time order of the sequence of vectors thus obtained; - during a second use of the transmission channel, the vectors of the first and second blocks thus transformed are provided to the second modulation pathway and to the first FBMC modulation pathway, respectively. - during a first use of the transmission channel, the vectors of the first block and vectors of the second block are provided to the first FBMC modulation pathway and to the second FBMC modulation pathway, respectively, in the order of said time sequence; - the first block is transformed by multiplying the vectors of this block by a factory j L -1 where L is an even number and by inverting the time order of the sequence of vectors thus obtained, and the second block is transformed by multiplying the vectors of this block by a factor -j L -1 and by inverting the time order of the sequence of vectors thus obtained; - during a second use of the transmission channel, the vectors of the first and second blocks thus transformed are provided to the second modulation pathway and to the first FBMC modulation pathway, respectively.
A method for balancing load of a multiprocessor system, characterized by comprising: determining a local Central Processing Unit, CPU, and a target CPU in the multiprocessor system; calculating execution time of respective processes in the queue of the local CPU; estimating the size of memory space occupied by a process based on the execution time of said process, wherein the shorter the execution time of a process is, the less the memory space a process occupies is; sequencing the migration priorities by comparing the execution time of the respective processes, wherein the shorter the execution time of a process is, the higher the migration priority of the process is; and migrating , a process whose migration priority is the highest among the processes in the queue of the local CPU, other than a process being performed in the queue of the local CPU, into the target CPU, wherein the method further comprises: calculating waiting time of at least two processes having the same execution time in the case that the queue of the local CPU contains the at least two processes having the same execution time; and sequencing the migration priorities by comparing the waiting time of the at least two processes having the same execution time, wherein the longer the waiting time of a process is, the higher the migration priority of the process is. determining a local Central Processing Unit, CPU, and a target CPU in the multiprocessor system; calculating execution time of respective processes in the queue of the local CPU; estimating the size of memory space occupied by a process based on the execution time of said process, wherein the shorter the execution time of a process is, the less the memory space a process occupies is; sequencing the migration priorities by comparing the execution time of the respective processes, wherein the shorter the execution time of a process is, the higher the migration priority of the process is; and migrating , a process whose migration priority is the highest among the processes in the queue of the local CPU, other than a process being performed in the queue of the local CPU, into the target CPU, wherein the method further comprises: calculating waiting time of at least two processes having the same execution time in the case that the queue of the local CPU contains the at least two processes having the same execution time; and sequencing the migration priorities by comparing the waiting time of the at least two processes having the same execution time, wherein the longer the waiting time of a process is, the higher the migration priority of the process is. calculating waiting time of at least two processes having the same execution time in the case that the queue of the local CPU contains the at least two processes having the same execution time; and sequencing the migration priorities by comparing the waiting time of the at least two processes having the same execution time, wherein the longer the waiting time of a process is, the higher the migration priority of the process is.
Method for controlling gear shifting of a working machine , wherein the working machine is provided with a set of drive units, each drive unit comprising at least one drive wheel and a drive motor capable of applying a torque to the drive wheel that results in a traction force of the drive wheel , and wherein at least a first drive unit comprises a gearbox providing at least two forward gears for the at least one drive wheel, characterized in that the method comprises the steps of: - determining (S103) a representation of a first total tractive force of the working machine for the entire set of drive units, - initiating (S105) a procedure for redistributing the tractive force while maintaining the first total tractive force, comprising - decreasing, at least partly down towards a level suitable for shifting gear, the torque and tractive force of at least the first drive unit, and - increasing, in a compensational manner, the torque and tractive force of at least one of the other drive units not subject to gear shifting, - monitoring (S107), during the redistribution procedure, a representation of a second total tractive force of the working machine for the other drive units not subject to gear shifting, and, provided that the second total tractive force exceeds a threshold limit that forms a function of the first total tractive force: - decreasing (S111) the torque and tractive force of at least the first drive unit down to the level suitable for shifting gear and performing gear shifting for at least the first drive unit. - determining (S103) a representation of a first total tractive force of the working machine for the entire set of drive units, - initiating (S105) a procedure for redistributing the tractive force while maintaining the first total tractive force, comprising - decreasing, at least partly down towards a level suitable for shifting gear, the torque and tractive force of at least the first drive unit, and - increasing, in a compensational manner, the torque and tractive force of at least one of the other drive units not subject to gear shifting, - decreasing, at least partly down towards a level suitable for shifting gear, the torque and tractive force of at least the first drive unit, and - increasing, in a compensational manner, the torque and tractive force of at least one of the other drive units not subject to gear shifting, - monitoring (S107), during the redistribution procedure, a representation of a second total tractive force of the working machine for the other drive units not subject to gear shifting, and, - decreasing (S111) the torque and tractive force of at least the first drive unit down to the level suitable for shifting gear and performing gear shifting for at least the first drive unit.
A hinge for door leaves of furniture and the like, which comprises a fixed part that can be connected to a body of a piece of furniture and a movable part that can be connected to a door leaf of the piece of furniture, the fixed part and the movable part being mutually connected in an oscillating manner by way of an articulation system that comprises at least one articulation axis and a rocker , the hinge comprising elastic means (17; 23) for opening the hinge which are functionally connected to said at least one rocker, characterized in that said fixed part of the hinge is shaped so that it can be inserted into a seat defined within the thickness of an upper or lower wall of a piece of furniture, said fixed part and said at least one rocker extending along a plane that is perpendicular to said at least one articulation axis , and in that it comprises a movable element (15; 21) for transmission between said elastic opening means (17; 23) and said at least one rocker , said transmission element extending and being movable along said perpendicular plane and having a thrust surface (19; 24) that is shaped and arranged in order to act against a lateral contact surface (20; 25) of said rocker the fixed part having a flat shape structure that extends along and parallel to plane perpendicular to the articulation axes the articulation system, said at least one rocker also having a flat shape structure that extends along and parallel to a plane perpendicular to the articulation axes so as to be accomodatable in said flat fixed part . in that it comprises a movable element (15; 21) for transmission between said elastic opening means (17; 23) and said at least one rocker , said transmission element extending and being movable along said perpendicular plane and having a thrust surface (19; 24) that is shaped and arranged in order to act against a lateral contact surface (20; 25) of said rocker the fixed part having a flat shape structure that extends along and parallel to plane perpendicular to the articulation axes the articulation system, said at least one rocker also having a flat shape structure that extends along and parallel to a plane perpendicular to the articulation axes so as to be accomodatable in said flat fixed part .
A method of producing a melt comprising: directly contacting a first heating element with an inside of a solid-liquid mixture layer including a batch raw material of glass and a mixture of solid and liquid phases denatured from the batch raw material to apply thermal energy to the solid-liquid mixture layer by heat transfer from the first heating element; wherein a thermal diffusivity of the solid-liquid mixture layer is 3 mm 2 /second or less, and wherein the first heating element has an electric resistance heating element or a heat exchanger tube, supplying the batch raw material from above the solid-liquid mixture layer; and continuously producing a liquid phase melt having a bulk density greater than that of the solid-liquid mixture layer in a lower layer in contact with the solid-liquid mixture layer, wherein the thermal diffusivity is measured by the method described in Glass Technology: European Journal of Glass Science and Technology Part A, June 2018, Volume 59 Number 3, Pages 92-104. directly contacting a first heating element with an inside of a solid-liquid mixture layer including a batch raw material of glass and a mixture of solid and liquid phases denatured from the batch raw material to apply thermal energy to the solid-liquid mixture layer by heat transfer from the first heating element; wherein a thermal diffusivity of the solid-liquid mixture layer is 3 mm 2 /second or less, and wherein the first heating element has an electric resistance heating element or a heat exchanger tube, supplying the batch raw material from above the solid-liquid mixture layer; and continuously producing a liquid phase melt having a bulk density greater than that of the solid-liquid mixture layer in a lower layer in contact with the solid-liquid mixture layer, wherein the thermal diffusivity is measured by the method described in Glass Technology: European Journal of Glass Science and Technology Part A, June 2018, Volume 59 Number 3, Pages 92-104.
Structural element for mounting on an opening of a building, having an outer frame in which a panel element is held indirectly or directly, the outer frame being formed from at least one composite profile having an inner shell made of metal or wood, an outer shell made of an extruded aluminum profile and an insulating section connecting the inner shell and the outer shell , characterized in that the outer shell comprises an angle profile with a first leg , which is fixed to the insulating section and extends substantially parallel to the panel element , and a second leg , which projects on the side facing away from the insulating section and to which at least one holding device is fixed, the holding device comprising a strip-shaped profile to which the second leg is fixed, the holding device being provided for a fall protection device .