mhurhangee/ep-ind-claims huggingface dataset:
A polyester fabric for an airbag having a stiffness of 12 N (1.2 kgf) or less as measured according to ASTM D 4032 method, a tensile strength T 1 of at least 37 kN/m (95 kgf/inch) as measured according to ASTM D 5034 method, and a tear strength T 2 of at least 64 N (6.5 kgf) as measured according to ASTM D 2261 TONGUE method, wherein the ratio T 1 /T 2 of the tensile strength T 1 to the tear strength T 2 is defined by the following calculation formula 1; wherein the polyester fabric has a warp edge comb resistance E 1 of at least 200 N as measured at room temperature according to ASTM D 6479 method, and a weft edge comb resistance E 2 of at least 200 N as measured at room temperature according to ASTM D 6479 method, wherein the sum of the warp edge comb resistance E 1 and the weft edge comb resistance E 2 is defined by the following calculation formula 2: 4.0 ≤ T 1 / T 2 ≤ 16.5 400 ≤ E 1 + E 2 ≤ 900 wherein T 1 is the warp tensile strength (kN/m) of the polyester fabric; and T 2 is the warp tear strength of the polyester fabric; E 1 is the warp edge comb resistance of the polyester fabric; and E 2 is the weft edge comb resistance of the polyester fabric; and wherein the polyester fabric is woven and comprises a polyester fiber having a fineness of 22.2 to 43.9 tex (200 to 395 denier), and having Young's modulus at 1% elongation in the range of 6.6 to 8.4 N/tex (75 to 95 g/de), and Young's modulus at 2% elongation in the range of 2.2 to 4.8 N/tex (25 to 55 g/de), wherein the Young's modulus is measured according to ASTM D 885 method. wherein T 1 is the warp tensile strength (kN/m) of the polyester fabric; and T 2 is the warp tear strength of the polyester fabric; E 1 is the warp edge comb resistance of the polyester fabric; and E 2 is the weft edge comb resistance of the polyester fabric; and wherein the polyester fabric is woven and comprises a polyester fiber having a fineness of 22.2 to 43.9 tex (200 to 395 denier), and having Young's modulus at 1% elongation in the range of 6.6 to 8.4 N/tex (75 to 95 g/de), and Young's modulus at 2% elongation in the range of 2.2 to 4.8 N/tex (25 to 55 g/de), wherein the Young's modulus is measured according to ASTM D 885 method.
A method of securely communicating location information from a computing device, comprising: selecting a hardware key (102, 104, 106, 108) indicating whether an attack has occurred at the computing device; transforming (326, 328) the selected hardware key (102, 104, 106, 108) into a transformed key based on a non-deterministic value received from a requesting entity; transmitting the transformed key to the requesting entity; receiving a location request from the requesting entity, wherein the location request at the requesting entity is formed if the requesting entity determines that the computing device has been attacked; acquiring location information at the computing device; forming a response based on the location information and at least a portion of the hardware key (102, 104, 106, 108); and providing the response to the requesting entity. selecting a hardware key (102, 104, 106, 108) indicating whether an attack has occurred at the computing device; transforming (326, 328) the selected hardware key (102, 104, 106, 108) into a transformed key based on a non-deterministic value received from a requesting entity; transmitting the transformed key to the requesting entity; receiving a location request from the requesting entity, wherein the location request at the requesting entity is formed if the requesting entity determines that the computing device has been attacked; acquiring location information at the computing device; forming a response based on the location information and at least a portion of the hardware key (102, 104, 106, 108); and providing the response to the requesting entity.
A signal processor (74, 84) configured to output a first output signal, a second output signal and a third output signal in response to an input of a first input signal, a second input signal and a third input signal, characterized in that the signal processer is configured: to process the first input signal by a first transfer function, process the second input signal by a second transfer function, process the third input signal by the second transfer function, and add the three results to obtain the first output signal; to process the first input signal by the second transfer function, process the second input signal by the first transfer function, process the third input signal by the second transfer function, and add the three results to obtain the second output signal; to process the first input signal by the second transfer function, process the second input signal by the second transfer function, process the third input signal by the first transfer function, and add the three results to obtain the third output signal; wherein the first transfer function and the second transfer function are expressed by: G 1 s = F s + jω 0 + F s − jω 0 3 G 2 s = − F s + jω 0 + F s − jω 0 6 where F(s) represents a transfer function expressing a predetermined process, ω 0 representing a predetermined angular frequency, and j representing an imaginary unit. to process the first input signal by a first transfer function, process the second input signal by a second transfer function, process the third input signal by the second transfer function, and add the three results to obtain the first output signal; to process the first input signal by the second transfer function, process the second input signal by the first transfer function, process the third input signal by the second transfer function, and add the three results to obtain the second output signal; to process the first input signal by the second transfer function, process the second input signal by the second transfer function, process the third input signal by the first transfer function, and add the three results to obtain the third output signal; wherein the first transfer function and the second transfer function are expressed by: G 1 s = F s + jω 0 + F s − jω 0 3 G 2 s = − F s + jω 0 + F s − jω 0 6 where F(s) represents a transfer function expressing a predetermined process, ω 0 representing a predetermined angular frequency, and j representing an imaginary unit.
Grinding element consisting of a disk-shaped main body and blades formed as a unit therewith, wherein - in relation to a direction of rotation of the grinding element about a center axis - each blade is immediately preceded by an opening passing through the main body, and wherein each blade has a rake face having a partially cylindrical shape with a rake angle α = 0° or a partially conical shape with a rake angle α ≠ 0°, characterized in that the main body and the blades are made of sintered hard material, and the blades have a height b above the main body, wherein 0.1 mm ≤ b ≤ 10 mm.
A protective helmet, in particular a bicycle helmet, which has a helmet body having at least one ventilation opening and which has a helmet cover, wherein the helmet body comprises a storage apparatus for the helmet cover; the storage apparatus comprises a covering by means of which the storage apparatus can be closed or locked; and the helmet cover has at least one connection section which is non-releasably connected to the storage apparatus, characterised in that the storage apparatus comprises a container which is integrated into the helmet body; and in that the covering can be blocked in a closed stage, with the covering also being closable and blockable when the helmet cover is not stowed in the container, but is pulled over the helmet body; and in that the helmet cover has at least one fastening device which is releasably connected to a fastening section of the helmet body when the helmet cover is pulled over the helmet body.
Method for automatic generation of a three-dimensional terrain model for a 3D terrain representation and evaluation with the assistance of object-oriented electronic vector data, which contains position values which indicate at least the cartographic position of support points which describe the terrain and are obtained by suitable surveying of the terrain surface or of the seabed and height values which indicate their height or depth with respect to a reference level, wherein extrapolation values are extrapolated from the height values of the support points, and the extrapolation values are subject to weighted interpolation, wherein the height values of the support points are written to grid fields of a regular grid as support values associated with the cartographic position of the support points, and extrapolation and interpolation are carried out in the grid, wherein the grid is run through in rows and columns, grid field by grid field, for extrapolation and, in the first run in this case, each support value which is stored in a grid field is written as an extrapolation value to an unoccupied grid field which is adjacent in the direction of the run, and, in all the other runs, each support value which is stored in a grid field and each extrapolation value derived therefrom is written to an unoccupied grid field which is adjacent in the direction of the run, wherein all the extrapolation values are allocated a distance figure which indicates the proximity of the extrapolation value to its support value, wherein the runs are repeated until all of the grid fields which were unoccupied at the extrapolation start time are occupied with extrapolation values which represent height values, wherein, for interpolation, the grid is run through in rows and columns, grid field by grid field, wherein weighted interpolation is carried out in each case between two height values which are immediately adjacent to one another in the direction of the run, have a height difference not equal to zero and of which at least the height value which follows in the direction of the run is an extrapolation value, and the latter is overwritten with the interpolation value, wherein the runs are repeated until there are no more extrapolation values which are adjacent to a height value with a height difference not equal to zero, and wherein the distance figures of the extrapolation values are used for weighting the interpolation.
A waste-heat recovery system in an oil-cooled gas compressor including a compressor main body, an oil separator for separating oil from compressed gas delivered from the compressor main body, a gas piping for sending the compressed gas separated from the oil by the oil separator to a demanded destination, an oil piping for returning the oil separated by the oil separator to the compressor main body, and a waste-heat-recovery heat exchanger for recovering heat from at least either of the compressed gas flowing through the gas piping or the oil flowing through the oil piping, the waste-heat recovery system in the oil-cooled gas compressor comprising: a stored hot water tank for storing the heat from the waste-heat-recovery heat exchanger in a form of hot water; a circulation circuit (17, 18) for circulating a heat medium between the waste-heat-recovery heat exchanger and the stored hot water tank for moving the heat received from the waste-heat-recovery heat exchanger to the stored hot water tank; and a circulation pump provided at the circulation circuit (17, 18); characterized in that the waste-heat recovery system in the oil-cooled gas compressor further comprises: a control device for controlling to stop the circulation pump or reduce the rotational frequency thereof in a case where a temperature of the oil or the compressed gas subjected to heat exchange by the waste-heat-recovery heat exchanger is equal to or lower than a temperature of the hot water in the stored hot water tank. a stored hot water tank for storing the heat from the waste-heat-recovery heat exchanger in a form of hot water; a circulation circuit (17, 18) for circulating a heat medium between the waste-heat-recovery heat exchanger and the stored hot water tank for moving the heat received from the waste-heat-recovery heat exchanger to the stored hot water tank; and a circulation pump provided at the circulation circuit (17, 18); characterized in that the waste-heat recovery system in the oil-cooled gas compressor further comprises: a control device for controlling to stop the circulation pump or reduce the rotational frequency thereof in a case where a temperature of the oil or the compressed gas subjected to heat exchange by the waste-heat-recovery heat exchanger is equal to or lower than a temperature of the hot water in the stored hot water tank.
A method for operating a terminal in a communication system, wherein the terminal is in an idle mode, the method comprising: receiving, from a base station during a listening interval of the idle mode, a paging message comprising information indicating a reception of multicast data for a group of terminals to which the terminal belongs; and receiving, from the base station during the listening interval of the idle mode, the multicast data based on the information. receiving, from a base station during a listening interval of the idle mode, a paging message comprising information indicating a reception of multicast data for a group of terminals to which the terminal belongs; and receiving, from the base station during the listening interval of the idle mode, the multicast data based on the information.
A sizing agent coated carbon fiber comprising a carbon fiber coated with a sizing agent, the carbon fiber being configured such that when a carbon fiber cross-section is detected by energy-dispersive X-ray spectroscopy according to the method of the description, a layer wherein the proportion of oxygen relative to all the elements is 4% or more is present in a thickness of 10 nm or more on a carbon fiber surface, the sizing agent containing to in a total amount of 80 mass% or more relative to the total amount of the sizing agent; wherein the sizing agent components to is used alone, or two or more of them is used; and the sizing agent may contain two or more kinds of each component, the sizing agent coated carbon fiber being configured such that when the sizing agent coated carbon fiber is subjected to a 10-minute ultrasonic treatment in an acetone solvent three times according to the method of the description, the amount of non-eluted sizing agent remaining on the carbon fiber is 0.1 part by mass or more and 0.25 parts by mass or less per 100 parts by mass of the sizing agent coated carbon fiber: at least one member selected from the group consisting of polyimide, polyetherimide, and polysulfone, a compound having a terminal unsaturated group and a polar group in a molecule, wherein the compound is selected from a phenyl glycidyl ether acrylate hexamethylene diisocyanate compound, a phenyl glycidyl ether acrylate tolylene diisocyanate compound, a pentaerythritol acrylate hexamethylene diisocyanate compound,a phenyl glycidyl ether triacrylate isophorone diisocyanate compound, a glycerol dimethacrylate tolylene diisocyanate compound, a glycerol dimethacrylate isophorone diisocyanate compound, a pentaerythritol triacrylate tolylene diisocyanate compound, a pentaerythritol triacrylate isophorone diisocyanate, and a triallyl isocyanurate compound; a polyether-type aliphatic epoxy compound and/or polyol-type aliphatic epoxy compound having an epoxy equivalent of 250 g/eq. or less and having two or more epoxy groups in a molecule. at least one member selected from the group consisting of polyimide, polyetherimide, and polysulfone, a compound having a terminal unsaturated group and a polar group in a molecule, wherein the compound is selected from a phenyl glycidyl ether acrylate hexamethylene diisocyanate compound, a phenyl glycidyl ether acrylate tolylene diisocyanate compound, a pentaerythritol acrylate hexamethylene diisocyanate compound,a phenyl glycidyl ether triacrylate isophorone diisocyanate compound, a glycerol dimethacrylate tolylene diisocyanate compound, a glycerol dimethacrylate isophorone diisocyanate compound, a pentaerythritol triacrylate tolylene diisocyanate compound, a pentaerythritol triacrylate isophorone diisocyanate, and a triallyl isocyanurate compound; a polyether-type aliphatic epoxy compound and/or polyol-type aliphatic epoxy compound having an epoxy equivalent of 250 g/eq. or less and having two or more epoxy groups in a molecule.
A method of continuous monitoring corrosion of a working electrode, wherein said method comprises: applying a low frequency, low amplitude, sinusoidal voltage perturbation signal between said working electrode and a reference electrode; monitoring a current response returned from said working electrode; and analyzing said current response for periodic components in phase and 90° out of phase with said applied sinusoidal voltage perturbation signal and determining the degree of correlation of the current signal with itself wherein the amplitude of the in phase component of the current response is used for indicating general corrosion, and the degree of correlation of the current response with itself is used for indicating localized corrosion. applying a low frequency, low amplitude, sinusoidal voltage perturbation signal between said working electrode and a reference electrode; monitoring a current response returned from said working electrode; and analyzing said current response for periodic components in phase and 90° out of phase with said applied sinusoidal voltage perturbation signal and determining the degree of correlation of the current signal with itself wherein the amplitude of the in phase component of the current response is used for indicating general corrosion, and the degree of correlation of the current response with itself is used for indicating localized corrosion.
A display device comprising: at least one light emitting device on a substrate; an encapsulation layer on the at least one light emitting device; an insulating layer between the substrate and the encapsulation layer; a touch sensor on the encapsulation layer, the touch sensor having a touch sensing line and a touch driving line intersecting each other, wherein the touch sensing line and the touch driving line are formed on the encapsulation layer during the manufacturing of the display device; a touch pad electrically connected to the touch sensor and in contact with the insulating layer; and a routing line electrically connecting the touch pad to the touch sensor, wherein the routing line covers a side surface of the encapsulation layer. at least one light emitting device on a substrate; an encapsulation layer on the at least one light emitting device; an insulating layer between the substrate and the encapsulation layer; a touch sensor on the encapsulation layer, the touch sensor having a touch sensing line and a touch driving line intersecting each other, wherein the touch sensing line and the touch driving line are formed on the encapsulation layer during the manufacturing of the display device; a touch pad electrically connected to the touch sensor and in contact with the insulating layer; and a routing line electrically connecting the touch pad to the touch sensor, wherein the routing line covers a side surface of the encapsulation layer.
System for sealingly holding cables through an opening, the system comprising: ▪ a holder substantially in the form of a plate having a central portion with a first thickness between a first side and a second side of the plate and a peripheral portion with a second thickness which is smaller than the first thickness, the holder having in the central portion a plurality of conduits extending in the thickness direction of the plate, each conduit being suitable for having one or more cables extending there-through; ▪ at least one multi-part sealing plug of an elastic material for sealing an annular space between an inner wall of one of the conduits and a cable extending there through, ▪ a gasket, of an elastic material and of a shape for placement against the peripheral portion so as to provide a sealing in a circumferential direction of the plate; wherein the plug has at least one circumferentially extending outer rib and at least one circumferentially extending inner rib, wherein in uninserted state the following conditions apply: - the outer rib has a sawtooth shape for easy insertion, the sawtooth is provided with an angled inward bend for facilitating flexing of the sawtooth in a transverse direction; - the inner rib has a top surface extending in circumferential and longitudinal direction L for facilitating sliding along the cable; characterised in that when an imaginary straight line is drawn in a transverse direction coinciding with a pivotal point of the angled bend it intersects the top surface of the inner rib. ▪ a holder substantially in the form of a plate having a central portion with a first thickness between a first side and a second side of the plate and a peripheral portion with a second thickness which is smaller than the first thickness, the holder having in the central portion a plurality of conduits extending in the thickness direction of the plate, each conduit being suitable for having one or more cables extending there-through; ▪ at least one multi-part sealing plug of an elastic material for sealing an annular space between an inner wall of one of the conduits and a cable extending there through, ▪ a gasket, of an elastic material and of a shape for placement against the peripheral portion so as to provide a sealing in a circumferential direction of the plate; - the outer rib has a sawtooth shape for easy insertion, the sawtooth is provided with an angled inward bend for facilitating flexing of the sawtooth in a transverse direction; - the inner rib has a top surface extending in circumferential and longitudinal direction L for facilitating sliding along the cable;
A method for processing a burst by a receiver in a wireless communication system, the method comprising the steps of: checking if an N th protocol data unit, PDU, header included in a received burst has an error; if the N th PDU header has an error, estimating an address of an N+1 th PDU header; checking if an estimated N+1 th PDU header corresponding to the estimated address has an error; if the estimated N+1 th PDU header does not have an error, decoding the estimated N+1 th PDU header, and processing the estimated N+1 th PDU by using decoded information of the estimated N+1 th PDU header; and if the estimated N+1 th PDU header has an error, detecting the N+1 th PDU header by checking if data corresponding to a PDU header length and starting at each of addresses after the N th PDU header has an error, wherein the address of the N+1 th PDU header is estimated by adding a length field value included in the N th PDU header to an address of the N th PDU header. checking if an N th protocol data unit, PDU, header included in a received burst has an error; if the N th PDU header has an error, estimating an address of an N+1 th PDU header; checking if an estimated N+1 th PDU header corresponding to the estimated address has an error; if the estimated N+1 th PDU header does not have an error, decoding the estimated N+1 th PDU header, and processing the estimated N+1 th PDU by using decoded information of the estimated N+1 th PDU header; and if the estimated N+1 th PDU header has an error, detecting the N+1 th PDU header by checking if data corresponding to a PDU header length and starting at each of addresses after the N th PDU header has an error, wherein the address of the N+1 th PDU header is estimated by adding a length field value included in the N th PDU header to an address of the N th PDU header.