mhurhangee/ep-ind-claims huggingface dataset:
A production method for a fiber-reinforced composite material comprising: a step of stacking a prepreg plurally to obtain a prepreg-stacked body; and a step of heating the prepreg-stacked body to cure a resin, wherein the prepreg comprises: a reinforcing fiber layer including reinforcing fibers and a resin composition with which a space between fibers of the reinforcing fibers is impregnated and which contains a benzoxazine resin, an epoxy resin, and a curing agent having 2 or more phenolic hydroxy groups in a molecule; and a surface layer provided on at least one surface of the reinforcing fiber layer and containing a benzoxazine resin, an epoxy resin, a curing agent having 2 or more phenolic hydroxy groups in a molecule, and polyamide resin particles having an average particle size of 5 to 50 μm, wherein the polyamide resin particles include a first polyamide resin particle and a second polyamide resin particle having a higher melting temperature measured in a composition constituting the surface layer than the first polyamide resin particle has, and wherein the second polyamide resin particle consists of polyamide 1010 resin particles. a step of stacking a prepreg plurally to obtain a prepreg-stacked body; and a step of heating the prepreg-stacked body to cure a resin, wherein the prepreg comprises: a reinforcing fiber layer including reinforcing fibers and a resin composition with which a space between fibers of the reinforcing fibers is impregnated and which contains a benzoxazine resin, an epoxy resin, and a curing agent having 2 or more phenolic hydroxy groups in a molecule; and a surface layer provided on at least one surface of the reinforcing fiber layer and containing a benzoxazine resin, an epoxy resin, a curing agent having 2 or more phenolic hydroxy groups in a molecule, and polyamide resin particles having an average particle size of 5 to 50 μm, wherein the polyamide resin particles include a first polyamide resin particle and a second polyamide resin particle having a higher melting temperature measured in a composition constituting the surface layer than the first polyamide resin particle has, and wherein the second polyamide resin particle consists of polyamide 1010 resin particles. a reinforcing fiber layer including reinforcing fibers and a resin composition with which a space between fibers of the reinforcing fibers is impregnated and which contains a benzoxazine resin, an epoxy resin, and a curing agent having 2 or more phenolic hydroxy groups in a molecule; and a surface layer provided on at least one surface of the reinforcing fiber layer and containing a benzoxazine resin, an epoxy resin, a curing agent having 2 or more phenolic hydroxy groups in a molecule, and polyamide resin particles having an average particle size of 5 to 50 μm, wherein the polyamide resin particles include a first polyamide resin particle and a second polyamide resin particle having a higher melting temperature measured in a composition constituting the surface layer than the first polyamide resin particle has, and wherein the second polyamide resin particle consists of polyamide 1010 resin particles.
A device for inspecting workpiece surfaces and strip materials, comprising: - at least one sensor which is adapted for inspection of a special workpiece surface and/or a special strip material, - at least one sonotrode (8a, 8b) having a sound-radiating surface and which is connected in a mechanically rigid manner to the sensor to form a sensor unit, and - a movable positioning device coupled to the sensor unit, for positioning the sensor unit in a position opposite the workpiece or strip surface, wherein - the positioning device has a force-applying member which urges the sensor unit in the direction of the workpiece or strip surface, with either a predetermined urging force being produced or with gravity being used as the urging force, - the sound-radiating surface of the sonotrode (8a, 8b) generates ultrasonic vibrations such that, in the presence of a gaseous medium, an ultrasonic levitation force field acts between the workpiece or strip surface and the sound-radiating surface, which generates a counterforce against the urging force, whereby the sensor unit is held hovering at a distance from the workpiece or strip surface, the sensor being adapted to detect - aberrations in the surface structure, colour or reflection behaviour of the workpiece surface or the strip, or material inhomogeneities or defects therein, or - the strip thickness, or the thickness of applied coatings, or - the surface temperature on the surface of the workpiece or the strip. - at least one sensor which is adapted for inspection of a special workpiece surface and/or a special strip material, - at least one sonotrode (8a, 8b) having a sound-radiating surface and which is connected in a mechanically rigid manner to the sensor to form a sensor unit, and - a movable positioning device coupled to the sensor unit, for positioning the sensor unit in a position opposite the workpiece or strip surface, wherein - the positioning device has a force-applying member which urges the sensor unit in the direction of the workpiece or strip surface, with either a predetermined urging force being produced or with gravity being used as the urging force, - the sound-radiating surface of the sonotrode (8a, 8b) generates ultrasonic vibrations such that, in the presence of a gaseous medium, an ultrasonic levitation force field acts between the workpiece or strip surface and the sound-radiating surface, which generates a counterforce against the urging force, whereby the sensor unit is held hovering at a distance from the workpiece or strip surface, - aberrations in the surface structure, colour or reflection behaviour of the workpiece surface or the strip, or material inhomogeneities or defects therein, or - the strip thickness, or the thickness of applied coatings, or - the surface temperature on the surface of the workpiece or the strip.
A computer-implemented method for forwarding packets (600, 700) comprising: receiving, by an intermediate node (102, 104, 112, 114), a packet that corresponds to a fragment of a content object message (130, 300) that is fragmented into a plurality of fragments (130.1-130.x, 210, 220, 310-350), wherein the received fragment indicates an intermediate state (224, 324) which is based on a hash function performed on an intermediate state (214, 314) from a previous fragment (210, 310) and data included in the received fragment; characterised in that: one or more fragments of the plurality of fragments (130.1-130.x, 210, 220, 310-350) indicate a unique name (211, 221) that is a hierarchically structured variable-length identifier that comprises contiguous name components ordered from a most general level to a most specific level; the method further comprises, in response to determining that the received fragment is a first fragment (130.1, 210, 310), identifying a first entry in a pending interest table for an interest with a name that is based on a hash of a content object and that corresponds to the first fragment (130.1, 210, 310). receiving, by an intermediate node (102, 104, 112, 114), a packet that corresponds to a fragment of a content object message (130, 300) that is fragmented into a plurality of fragments (130.1-130.x, 210, 220, 310-350), wherein the received fragment indicates an intermediate state (224, 324) which is based on a hash function performed on an intermediate state (214, 314) from a previous fragment (210, 310) and data included in the received fragment; characterised in that: one or more fragments of the plurality of fragments (130.1-130.x, 210, 220, 310-350) indicate a unique name (211, 221) that is a hierarchically structured variable-length identifier that comprises contiguous name components ordered from a most general level to a most specific level; the method further comprises, in response to determining that the received fragment is a first fragment (130.1, 210, 310), identifying a first entry in a pending interest table for an interest with a name that is based on a hash of a content object and that corresponds to the first fragment (130.1, 210, 310). one or more fragments of the plurality of fragments (130.1-130.x, 210, 220, 310-350) indicate a unique name (211, 221) that is a hierarchically structured variable-length identifier that comprises contiguous name components ordered from a most general level to a most specific level; the method further comprises, in response to determining that the received fragment is a first fragment (130.1, 210, 310), identifying a first entry in a pending interest table for an interest with a name that is based on a hash of a content object and that corresponds to the first fragment (130.1, 210, 310).
Sensor unit for detecting the elongation of a flexible, web- or strip-shaped material layer, wherein the sensor unit comprises - a measuring magnet, wherein the measuring magnet has a fastening means with which the measuring magnet can be fastened to the material layer at a predetermined position, and - a sensor plate, wherein the sensor plate has a measuring device for detecting a parameter representing the magnetic flux density of a magnetic field of the measuring magnet, wherein the sensor plate further has a fastening means with which the sensor plate can be fastened to the material layer at a predetermined position, and - an evaluation unit for determining the elongation of the material layer on the basis of the parameter detected by the sensor plate, wherein the measuring device and the measuring magnet are arranged at a distance from each other at which the magnetic flux density of the magnetic field of the measuring magnet can be detected by the measuring device, wherein the measuring device and the measuring magnet are movable relative to each other in a material layer plane due to the elongation of the material layer in the direction of the web or strip, so that a distance between the measuring magnet and the measuring device depends on the elongation of the material layer in the direction of the web or strip, wherein the parameter detected by the measuring device depends on the distance between the measuring device and the measuring magnet and thus on the elongation of the material layer in the direction of the web or strip. - a measuring magnet, wherein the measuring magnet has a fastening means with which the measuring magnet can be fastened to the material layer at a predetermined position, and - a sensor plate, wherein the sensor plate has a measuring device for detecting a parameter representing the magnetic flux density of a magnetic field of the measuring magnet, wherein the sensor plate further has a fastening means with which the sensor plate can be fastened to the material layer at a predetermined position, and - an evaluation unit for determining the elongation of the material layer on the basis of the parameter detected by the sensor plate,
An audio signal coding method, comprising: dividing a frequency band of an audio signal into a plurality of sub-bands, and quantizing a sub-band normalization factor for each sub-band; determining a signal bandwidth for bit allocation according to the quantized sub-band normalization factors, or according to the quantized sub-band normalization factors and bit rate information; allocating bits for at least one sub-band of the plurality of sub-bands, wherein the at least one sub-band is within the determined signal bandwidth; and coding a spectrum coefficient of the audio signal according to the bits allocated for each sub-band for which bits have been allocated. dividing a frequency band of an audio signal into a plurality of sub-bands, and quantizing a sub-band normalization factor for each sub-band; determining a signal bandwidth for bit allocation according to the quantized sub-band normalization factors, or according to the quantized sub-band normalization factors and bit rate information; allocating bits for at least one sub-band of the plurality of sub-bands, wherein the at least one sub-band is within the determined signal bandwidth; and coding a spectrum coefficient of the audio signal according to the bits allocated for each sub-band for which bits have been allocated.
A controllable knob follower for a door lock, including a follower centre member, at which catch elements are disposed to be rotatable about a follower axis, and connecting levers associated to the catch elements are articulately disposed at the follower centre member, wherein the connecting levers can be brought into an engaging position for engagement in the catch elements, in which position a rotary transmission from the catch elements into the follower centre member via the connecting levers is enabled, and wherein the connecting levers can be brought into a release position, in which a rotary transmission from the catch elements onto the follower centre member is interrupted, characterized in that blocking disks associated to the connecting levers are provided, which disks are accommodated at the knob follower to be rotatable about the follower axis and are rotatable into a first position, in which the blocking disk brings the associated connecting lever into the engaging position, and wherein disks are rotatable into a second position, in which the blocking disk brings the associated connecting lever into the release position.
A compound of formula wherein: - X is Cl, Br, I, or a group -OSO 2 R 5; - Z is R 1 C=CR 2 or C ≡ C; - R 1, R 2 are each independently H, C 1 -C 6 alkyl, C 6 -C 10 aryl, wherein said alkyl or aryl groups are optionally substituted by one to three R 6 groups; - R 3 is H or C 1 -C 6 alkyl, wherein said alkyl group is optionally substituted by one to three R 6 groups; - p is 1, 2 or 3; - R 4 is/are independently H, Cl, Br, I, F, or C 1 -C 6 alkyl, wherein said alkyl group is/are optionally substituted by one to three R 6 groups; - R 5 is a C 1 -C 6 alkyl, said alkyl being optionally mono-, poly- or perhalogenated, a C 3 -C 8 cycloalkyl or a C 6 -C 12 aryl, wherein said alkyl, cycloalkyl and aryl are optionally substituted by one to three C 1 -C 4 alkyl groups or F, Cl, Br, NO 2, or CN; - R 6 is OH, F, Cl, Br, phenyl or methyl, - m is 1, 2, 3 or 4, and - n is 1, 2, 3 or 4, and its stereoisomeric forms, mixtures of stereoisomeric forms, and salt forms thereof. - X is Cl, Br, I, or a group -OSO 2 R 5; - Z is R 1 C=CR 2 or C ≡ C; - R 1, R 2 are each independently H, C 1 -C 6 alkyl, C 6 -C 10 aryl, wherein said alkyl or aryl groups are optionally substituted by one to three R 6 groups; - R 3 is H or C 1 -C 6 alkyl, wherein said alkyl group is optionally substituted by one to three R 6 groups; - p is 1, 2 or 3; - R 4 is/are independently H, Cl, Br, I, F, or C 1 -C 6 alkyl, wherein said alkyl group is/are optionally substituted by one to three R 6 groups; - R 5 is a C 1 -C 6 alkyl, said alkyl being optionally mono-, poly- or perhalogenated, a C 3 -C 8 cycloalkyl or a C 6 -C 12 aryl, wherein said alkyl, cycloalkyl and aryl are optionally substituted by one to three C 1 -C 4 alkyl groups or F, Cl, Br, NO 2, or CN; - R 6 is OH, F, Cl, Br, phenyl or methyl, - m is 1, 2, 3 or 4, and - n is 1, 2, 3 or 4,
A process for making a fluidized catalytic cracking catalyst, the process comprising (a) combining peptized alumina, yttrium compound, and zeolite by adding a solution of a soluble yttrium salt to a combination of zeolite and peptized alumina, said solution having an yttrium concentration in the range of 1 to 40% by weight, measured as oxide, and (b) forming an alumina-containing catalyst by spray drying the combination in (a); wherein the zeolite is zeolite Y or zeolite USY; the catalyst contains no more than 0.5% by weight divalent metal, measured as an oxide, based on the zeolite; yttrium is present in the catalyst in an amount ranging from about 0.5 to about 15% by weight, measured as an oxide, of the zeolite; the yttrium compound further comprises rare earth having an atomic number from 57 to 71 in a ratio by weight of rare earth oxide to yttrium oxide in the range of 0.01 to 0.5; and rare earth is present in the catalyst in an amount of no more than 5% by weight, measured as an oxide, based on the zeolite. (a) combining peptized alumina, yttrium compound, and zeolite by adding a solution of a soluble yttrium salt to a combination of zeolite and peptized alumina, said solution having an yttrium concentration in the range of 1 to 40% by weight, measured as oxide, and (b) forming an alumina-containing catalyst by spray drying the combination in (a); the zeolite is zeolite Y or zeolite USY; the catalyst contains no more than 0.5% by weight divalent metal, measured as an oxide, based on the zeolite; yttrium is present in the catalyst in an amount ranging from about 0.5 to about 15% by weight, measured as an oxide, of the zeolite; the yttrium compound further comprises rare earth having an atomic number from 57 to 71 in a ratio by weight of rare earth oxide to yttrium oxide in the range of 0.01 to 0.5; and rare earth is present in the catalyst in an amount of no more than 5% by weight, measured as an oxide, based on the zeolite.
A communication partner correspondence relationship collecting device comprising: a communication partner specifying unit that specifies a subject communication partner that is a communication partner corresponding to IP addresses to be collected; a DNS query transmission controller that controls a DNS client such that the DNS client transmits a DNS query to the subject communication partner in a given cycle and collects IP addresses corresponding to the subject communication partner from responses to the DNS queries, wherein the DNS query transmission controller searches for a cycle in which the IP address corresponding to the subject communication partner changes and sets a cycle in which each of the IP addresses are collected such that the cycle is shorter than the searched cycle; and a correspondence relationship log information creator that creates log information from the IP addresses corresponding to the subject communication partner, which are the IP addresses collected by the DNS query transmission controller, and at least one of a set of dates and a set of times at which responses are made to the DNS queries. a communication partner specifying unit that specifies a subject communication partner that is a communication partner corresponding to IP addresses to be collected; a DNS query transmission controller that controls a DNS client such that the DNS client transmits a DNS query to the subject communication partner in a given cycle and collects IP addresses corresponding to the subject communication partner from responses to the DNS queries, wherein the DNS query transmission controller searches for a cycle in which the IP address corresponding to the subject communication partner changes and sets a cycle in which each of the IP addresses are collected such that the cycle is shorter than the searched cycle; and a correspondence relationship log information creator that creates log information from the IP addresses corresponding to the subject communication partner, which are the IP addresses collected by the DNS query transmission controller, and at least one of a set of dates and a set of times at which responses are made to the DNS queries.
A method comprising: receiving, by a receiver via a broadcast channel, information for audible and/or optical presentation to a user, the information comprising one or more information sections (I, M, W, N); simultaneously receiving, by a transceiver via a data transmission channel which is physically independent of the broadcast channel, additional information associated with the one or more respective information sections (I, M, W, N); temporarily storing the received additional information in a buffer such that the additional information associated with each information section (I, M, W, N) overwrites the additional information associated with the preceding information section (I, M, W, N); and saving the temporarily stored additional information from the buffer in a memory on request from the user. receiving, by a receiver via a broadcast channel, information for audible and/or optical presentation to a user, the information comprising one or more information sections (I, M, W, N); simultaneously receiving, by a transceiver via a data transmission channel which is physically independent of the broadcast channel, additional information associated with the one or more respective information sections (I, M, W, N); temporarily storing the received additional information in a buffer such that the additional information associated with each information section (I, M, W, N) overwrites the additional information associated with the preceding information section (I, M, W, N); and saving the temporarily stored additional information from the buffer in a memory on request from the user.
A method for use in a wireless transmit/receive unit, WTRU, using coverage enhancement in Time Division Duplex, TDD, the method comprising: receiving, by the WTRU, TDD uplink, UL/downlink, DL, subframe configuration information; receiving, by the WTRU, indication information, wherein the indication information includes an indication of UL subframe restriction information; determining, by the WTRU, based on both the received TDD UL/DL subframe configuration information and the received indication information, one or more subframes to use for receiving DL repetitions and one or more subframes to use for transmitting UL repetitions; receiving, by the WTRU, DL repetitions of a DL signal only in the determined one or more subframes to use for receiving DL repetitions; and transmitting, by the WTRU, UL repetitions of a UL signal only in the determined one or more subframes to use for transmitting UL repetitions. receiving, by the WTRU, TDD uplink, UL/downlink, DL, subframe configuration information; receiving, by the WTRU, indication information, wherein the indication information includes an indication of UL subframe restriction information; determining, by the WTRU, based on both the received TDD UL/DL subframe configuration information and the received indication information, one or more subframes to use for receiving DL repetitions and one or more subframes to use for transmitting UL repetitions; receiving, by the WTRU, DL repetitions of a DL signal only in the determined one or more subframes to use for receiving DL repetitions; and transmitting, by the WTRU, UL repetitions of a UL signal only in the determined one or more subframes to use for transmitting UL repetitions.