mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a main body ; a storage compartment formed inside the main body ; and a cold air supplier to supply cold air to the storage compartment, the cold air supplier including a compressor compressing a refrigerant, a condenser condensing the compressed refrigerant, a decompressor expanding the condensed refrigerant, an evaporator disposed at a rear of the storage compartment to evaporate the expanded refrigerant, and a refrigerant moving tube configured to connect the evaporator to the compressor and through which the evaporated refrigerant is moved to the compressor so that the refrigerant is recirculated, wherein the evaporator includes: a case coupled to a rear wall of the storage compartment ; a plate forming a side of the case that faces the storage compartment ; a refrigerant tube disposed inside the case such that the refrigerant introduced into the evaporator flows therethrough, characterized in that the refrigerant tube is coupled to the refrigerant moving tube inside of the case ; and a heat insulating material arranged to fill the inside of the case to cover where the refrigerant tube and the refrigerant moving tube are coupled to each other, wherein the refrigerant tube and the refrigerant moving tube are coupled to each other on an inner surface of the plate , and wherein an outer surface of the plate is exposed to the inside of the storage compartment through an opening in the rear wall of the storage compartment . a main body ; a storage compartment formed inside the main body ; and a cold air supplier to supply cold air to the storage compartment, the cold air supplier including a compressor compressing a refrigerant, a condenser condensing the compressed refrigerant, a decompressor expanding the condensed refrigerant, an evaporator disposed at a rear of the storage compartment to evaporate the expanded refrigerant, and a refrigerant moving tube configured to connect the evaporator to the compressor and through which the evaporated refrigerant is moved to the compressor so that the refrigerant is recirculated, wherein the evaporator includes: a case coupled to a rear wall of the storage compartment ; a plate forming a side of the case that faces the storage compartment ; a refrigerant tube disposed inside the case such that the refrigerant introduced into the evaporator flows therethrough, a case coupled to a rear wall of the storage compartment ; a plate forming a side of the case that faces the storage compartment ; a refrigerant tube disposed inside the case such that the refrigerant introduced into the evaporator flows therethrough, characterized in that the refrigerant tube is coupled to the refrigerant moving tube inside of the case ; and a heat insulating material arranged to fill the inside of the case to cover where the refrigerant tube and the refrigerant moving tube are coupled to each other, wherein the refrigerant tube and the refrigerant moving tube are coupled to each other on an inner surface of the plate , and wherein an outer surface of the plate is exposed to the inside of the storage compartment through an opening in the rear wall of the storage compartment .
A construction comprising a partition or wall lining, said partition or wall lining comprising a gypsum board fixed to two or more parallel support members, wherein said gypsum board comprising: - a gypsum core having a bulk density of at least 1100 kg/m 3 and comprising glass fibers in an amount of at least 3200 g/m 3 ; and - two faces, said faces being provided with a liner; wherein said support members have an axis to axis interdistance of at least 90 cm, preferably at least 100 cm, more preferably at least 110 cm and advantageously about 120 cm. - a gypsum core having a bulk density of at least 1100 kg/m 3 and comprising glass fibers in an amount of at least 3200 g/m 3 ; and - two faces, said faces being provided with a liner;
A measuring device for detecting positional changes of persons in a bed, wherein said bed comprises a lying surface carried by a carrying device and a mattress positioned thereon, wherein at least one longitudinal bridge , which is able to be arranged in a center region between a head region and a foot region of the bed in order to support the mattress, has a narrow width in the range of 5 cm to 40 cm and is designed to transmit the load supported by the bridge to the carrying device, wherein said bridge comprises at least one longitudinal panel having at least one portion that has bent-over longitudinal edges and/or reinforcing ribs extending in the longitudinal direction of the panel as structures or elements for increasing the flexural rigidity, and wherein, in the force transmission path of the load supported by the bridge , at least one sensor for recording a measured variable is arranged, said measured variable being capable of being influenced by the load distribution of the load supported by the bridge , wherein the measuring device comprises a controller , to which the sensor(s) is/are connected, wherein said controller is arranged entirely or in part in a housing that is able to be placed independently of the bridge or entirely or in part on the bridge , and wherein said controller comprises means for detecting and analyzing the measured variables from the sensors , characterized in that the means for detecting and analyzing the measured variables from the sensors are designed as means for detecting the center of gravity or changes in the center of gravity of the weight distribution bearing on the bridge and means for optically and/or acoustically and/or electrically displaying movement activity for assessing the risk of decubitus.
An adhesive composition comprising: A. i) a photo- and/or heat-curable polyolefin-based oligomer, said oligomer not possessing moisture curable groups; and, ii) a moisture-curable polyolefin-based oligomer; B. a curative package to trigger and/or accelerate cure of the oligomer(s) under appropriate cure conditions; and C. at least one polyolefin-based polyurethane that is not reactive under the cure conditions with the photo- and/or heat-curable polyolefin-based oligomer or the moisture-curable polyolefin-based oligomer. A. i) a photo- and/or heat-curable polyolefin-based oligomer, said oligomer not possessing moisture curable groups; and, ii) a moisture-curable polyolefin-based oligomer; i) a photo- and/or heat-curable polyolefin-based oligomer, said oligomer not possessing moisture curable groups; and, ii) a moisture-curable polyolefin-based oligomer; B. a curative package to trigger and/or accelerate cure of the oligomer(s) under appropriate cure conditions; and C. at least one polyolefin-based polyurethane that is not reactive under the cure conditions with the photo- and/or heat-curable polyolefin-based oligomer or the moisture-curable polyolefin-based oligomer.
A method for determining the position of a first sensor node (RX 1 ) relative to a second sensor node (RX2), wherein the first and the second sensor nodes are communicatively connected to one another and are a constituent part of a sensor network, having the method steps: receiving signal segments of OFDM-modulated transmitted signals from at least two transmitters (TX SoO1 , TX SoO2 ) by the first and the second sensor nodes, beginning at a time t 1 for a time period t RX ; determining the angle of incidence of the transmitted signals to at least one of the sensor nodes; determining the distance between the sensor nodes from the propagation time differences of the transmitted signals of the at least two transmitters received at the first and second sensor nodes; determining the position of the first sensor node (RX 1 ) relative to the second sensor node (RX 2 ) from the distance between the sensor nodes and the angle of incidence of the transmitted signals, wherein the sensor nodes determine the time t 1 and time period t RX relative to a reference frequency that is derived from the OFDM-modulated transmitted signal of at least one of the transmitters (TX SoO1 , TX SoO2 ) received by the respective sensor node, wherein the sensor nodes determine the reference frequency by means of a correction signal obtained from the OFDM-modulated transmitted signal and wherein that the position of the first sensor node is determined in the first sensor node, and the second sensor node transmits the signal segments of the transmitted signals it received and the angle of incidence of the transmitted signals to the first sensor node. receiving signal segments of OFDM-modulated transmitted signals from at least two transmitters (TX SoO1 , TX SoO2 ) by the first and the second sensor nodes, beginning at a time t 1 for a time period t RX ; determining the angle of incidence of the transmitted signals to at least one of the sensor nodes; determining the distance between the sensor nodes from the propagation time differences of the transmitted signals of the at least two transmitters received at the first and second sensor nodes; determining the position of the first sensor node (RX 1 ) relative to the second sensor node (RX 2 ) from the distance between the sensor nodes and the angle of incidence of the transmitted signals, wherein the sensor nodes determine the time t 1 and time period t RX relative to a reference frequency that is derived from the OFDM-modulated transmitted signal of at least one of the transmitters (TX SoO1 , TX SoO2 ) received by the respective sensor node, wherein the sensor nodes determine the reference frequency by means of a correction signal obtained from the OFDM-modulated transmitted signal and wherein that the position of the first sensor node is determined in the first sensor node, and the second sensor node transmits the signal segments of the transmitted signals it received and the angle of incidence of the transmitted signals to the first sensor node.
A method, comprising: receiving, at a wireless device, a frame comprising a physical, PHY, header; determining a first color value from a basic service set, BSS, color field in the PHY header; determining whether an association rule for the wireless device is satisfied based on the first color value and a BSS color assigned to the wireless device, wherein the association rule lists at least one of either: a color value of one or more other wireless devices that the wireless device can share a channel with, or a color value of one or more other wireless devices that the wireless device cannot share a channel with, wherein the at least one color value is different than the BSS color assigned to the wireless device; receiving at the wireless device a second frame comprising a second PHY header; determining that the BSS color field in the second PHY header contains metadata associated with an access point, AP; and comparing the metadata to the association rule, wherein the association rule further indicates whether the wireless device should at least one of: move to a different channel or change its BSS color based on a value of the metadata and the first color value. receiving, at a wireless device, a frame comprising a physical, PHY, header; determining a first color value from a basic service set, BSS, color field in the PHY header; determining whether an association rule for the wireless device is satisfied based on the first color value and a BSS color assigned to the wireless device, wherein the association rule lists at least one of either: a color value of one or more other wireless devices that the wireless device can share a channel with, or a color value of one or more other wireless devices that the wireless device cannot share a channel with, wherein the at least one color value is different than the BSS color assigned to the wireless device; receiving at the wireless device a second frame comprising a second PHY header; determining that the BSS color field in the second PHY header contains metadata associated with an access point, AP; and comparing the metadata to the association rule, wherein the association rule further indicates whether the wireless device should at least one of: move to a different channel or change its BSS color based on a value of the metadata and the first color value. a color value of one or more other wireless devices that the wireless device can share a channel with, or a color value of one or more other wireless devices that the wireless device cannot share a channel with, wherein the at least one color value is different than the BSS color assigned to the wireless device; receiving at the wireless device a second frame comprising a second PHY header; determining that the BSS color field in the second PHY header contains metadata associated with an access point, AP; and comparing the metadata to the association rule, wherein the association rule further indicates whether the wireless device should at least one of: move to a different channel or change its BSS color based on a value of the metadata and the first color value.
Valve arrangement for a switching valve for regulating a mass flow in a cooling or heating circuit, having a valve housing which has a feed opening and a discharge opening , - with a valve piston which has a valve closing member which, in a closed position , bears against a valve seat on a through bore between the feed opening and the discharge opening and closes the through bore , wherein - the valve seat has a stop surface and a sealing surface which are aligned adjacent to one another, - the valve closing member has a support surface and a sealing surface which are aligned adjacent to one another, - an elastic sealing element is provided on the valve seat or the valve closing member , on which the sealing surface or the sealing surface is formed, - a sealing projection is provided on the sealing surface or the sealing surface , which is aligned with the opposite sealing surface or sealing surface , - the support surface of the valve closing member and the stop surface of the valve seat bear against one another in the closed position and form a path limitation between the valve closing member and the valve seat , and the sealing projection is at least partially pressed into the sealing element , and - the valve piston has a sealing sleeve and a valve body at least partially surrounded by the sealing sleeve , and the sealing element is accommodated between the sealing sleeve and the valve body , characterized in that - in that the sealing sleeve and the valve body are firmly connected to the valve body by a latching connection or by a beading of an edge of the sealing sleeve to form a gap between the valve body and the beading of the sealing sleeve . - with a valve piston which has a valve closing member which, in a closed position , bears against a valve seat on a through bore between the feed opening and the discharge opening and closes the through bore , wherein - the valve seat has a stop surface and a sealing surface which are aligned adjacent to one another, - the valve closing member has a support surface and a sealing surface which are aligned adjacent to one another, - an elastic sealing element is provided on the valve seat or the valve closing member , on which the sealing surface or the sealing surface is formed, - a sealing projection is provided on the sealing surface or the sealing surface , which is aligned with the opposite sealing surface or sealing surface , - the support surface of the valve closing member and the stop surface of the valve seat bear against one another in the closed position and form a path limitation between the valve closing member and the valve seat , and the sealing projection is at least partially pressed into the sealing element , and - the valve piston has a sealing sleeve and a valve body at least partially surrounded by the sealing sleeve , and the sealing element is accommodated between the sealing sleeve and the valve body , characterized in that - in that the sealing sleeve and the valve body are firmly connected to the valve body by a latching connection or by a beading of an edge of the sealing sleeve to form a gap between the valve body and the beading of the sealing sleeve .
Nacelle for an aircraft propulsion assembly, comprising a front part (P1) and a main part (P2), said front part (P1) having a front end forming an air intake into the nacelle and a rear end comprising a stiffening frame that is annular about an axis of revolution, said stiffening frame comprising an outer peripheral edge connected to an outer panel of the nacelle and an inner peripheral edge , said front part further comprising a connecting part connecting said inner peripheral edge of the stiffening frame to an internal structure of the nacelle and a joining flange connected on one hand to said inner peripheral edge of the stiffening frame and on the other hand to an engine flange of the main part , such that the joining flange comprises a plurality of deformable damping elements distributed along said inner peripheral edge of the stiffening frame , remote from the internal structure of the nacelle.
A transmitter comprising: a baseband, BB, component ; a radio frequency, RF, chain component ; a power amplifier, PA, component ; a controller configured to: determine, based on a number of transmitting antennas included in the transmitter , an operation point at which an energy efficiency, EE, reaches a target energy efficiency given performance constraints like allowable power consumption or required data rate, wherein the operation point corresponds to the power consumption of at least one of the BB component , the RF chain component , and the PA component , and wherein the number of transmitting antennas included in the transmitter is greater than a number of the terminals receiving a service from the transmitter according to at least a predetermined ratio to increase the EE; control, based on the operation point, a power consumption of at least one of the BB component , the RF chain component , and the PA component . a baseband, BB, component ; a radio frequency, RF, chain component ; a power amplifier, PA, component ; a controller configured to: determine, based on a number of transmitting antennas included in the transmitter , an operation point at which an energy efficiency, EE, reaches a target energy efficiency given performance constraints like allowable power consumption or required data rate, wherein the operation point corresponds to the power consumption of at least one of the BB component , the RF chain component , and the PA component , and wherein the number of transmitting antennas included in the transmitter is greater than a number of the terminals receiving a service from the transmitter according to at least a predetermined ratio to increase the EE; control, based on the operation point, a power consumption of at least one of the BB component , the RF chain component , and the PA component . determine, based on a number of transmitting antennas included in the transmitter , an operation point at which an energy efficiency, EE, reaches a target energy efficiency given performance constraints like allowable power consumption or required data rate, wherein the operation point corresponds to the power consumption of at least one of the BB component , the RF chain component , and the PA component , and wherein the number of transmitting antennas included in the transmitter is greater than a number of the terminals receiving a service from the transmitter according to at least a predetermined ratio to increase the EE; control, based on the operation point, a power consumption of at least one of the BB component , the RF chain component , and the PA component .
A method of manufacturing a curable petroleum resin according to claim 9, the method comprising: a process of thermally polymerizing, in the absence of an initiator, a composition for polymerization which includes (a) monomers, including cyclic olefins having at least one ethylenically unsaturated group selected from among C5 fractions, C9 fractions, and dicyclopentadiene of naphtha cracking, and (b) one or more silanes represented by the following Chemical Formula 1: Chemical Formula 1 CH 2 =CR-(COO) x (C n H 2n ) y SiR' 3 where R is a hydrogen atom or a methyl group; x and y are 0 or 1, provided that y is 1 when x is 1; n is an integer of 1 to 12; and R' s are each independently an alkoxy group having 1 to 12 carbon atoms, an aryloxy group, an araloxy group, an aliphatic acyloxy group having 1 to 12 carbon atoms, an amino or substituted amino group, or a lower alkyl group having 1 to 6 carbon atoms, provided that two or less of the three R' groups are alkyl groups.
A method for separating a rod-like or tubular object made of a brittle material, especially of glass, in which at first at least one circumferential notch is made on the surface of the object at a predetermined point, whereupon a force impulse or impulses is/are applied to the fixed object, characterized in that in order to separate a section of the object to be separated, at least the surface area of the circumferential notch is placed with a radial clearance between the ends of the sonotrodes arranged around the entire circumference of the notch , whereby the ends of the sonotrodes and the circumference of the notch are in contact with the working liquid, whereupon acoustic waves are transmitted to the notch region from each sonotrode , by which means the separated object is in this region loaded by a tensile stress greater than the limit tensile strength of the material of the object to be separated.