mhurhangee/patent-ind-claim-en huggingface dataset:
A hardware security module, HSM comprising: a key storage configured to store a plurality of cryptographic key/token pairs during use, wherein at least a first key/token pair of the plurality of cryptographic key/token pairs is assigned to a first entity and includes a first private token, and wherein a plurality of entities are associated with the first entity; and a cryptographic engine coupled to the key storage, the cryptographic engine configured to respond to a private token usage request for the first private token received from a second entity of the plurality of entities with a cryptographically-signed object signed using the first private token responsive to determining, in the cryptographic engine, that one or more approvals from one or more third entities of the plurality of entities have been received by the cryptographic engine, wherein the approvals are indicated via approval tokens corresponding to the third entities from one or more verified sources. a key storage configured to store a plurality of cryptographic key/token pairs during use, wherein at least a first key/token pair of the plurality of cryptographic key/token pairs is assigned to a first entity and includes a first private token, and wherein a plurality of entities are associated with the first entity; and a cryptographic engine coupled to the key storage, the cryptographic engine configured to respond to a private token usage request for the first private token received from a second entity of the plurality of entities with a cryptographically-signed object signed using the first private token responsive to determining, in the cryptographic engine, that one or more approvals from one or more third entities of the plurality of entities have been received by the cryptographic engine, wherein the approvals are indicated via approval tokens corresponding to the third entities from one or more verified sources.
A high-strength steel sheet having a composition containing C: 0.09% to 0.17%, Si: 0.6% to 1.7%, Mn: 2.5% to 3.5%, P: 0.03% or less, S: 0.005% or less, Al: 0.08% or less, N: 0.006% or less, Ti: 0.005% to 0.05%, and B: 0.0002% to 0.0030% on a mass basis, optionally one or more selected from V: 0.01% to 0.1%, Mo: 0.01% to 0.2%, REM, Sn, Sb, Mg, and Ca totaling 0.1% or less, on a mass basis, the remainder being Fe and inevitable impurities, and a steel sheet microstructure containing less than 20% (including 0%) of a ferrite phase, 75% or more (including 100%) of a tempered martensite phase, 10% or less (including 0%) of an untempered martensite phase, and less than 5% (including 0%) of a retained austenite phase in terms of area fraction, wherein the tempered martensite phase has a Vickers hardness of 280 to 340 and the high-strength steel sheet has a tensile strength of 950 MPa to 1,120 MPa.
A method for processing a network address, comprising: acquiring, by a trusted Wireless Local Area Network, WLAN, access network, a flow routing policy of a User Equipment, UE (S402); allocating, by the trusted WLAN access network, at least one network address for the UE according to the flow routing policy of the UE (S404); characterized by in a case where the flow routing policy of the UE is empty, allocating, by the trusted WLAN access network, the at least one network address for the UE according to the flow routing policy of the UE (S404) comprises: allocating, by the trusted WLAN access network, an IP address and/or IP address prefix from an Evolved Packet Core, EPC, as well as a local IP address and/or IP address prefix of the trusted WLAN access network for the UE. acquiring, by a trusted Wireless Local Area Network, WLAN, access network, a flow routing policy of a User Equipment, UE (S402); allocating, by the trusted WLAN access network, at least one network address for the UE according to the flow routing policy of the UE (S404); characterized by in a case where the flow routing policy of the UE is empty, allocating, by the trusted WLAN access network, the at least one network address for the UE according to the flow routing policy of the UE (S404) comprises: allocating, by the trusted WLAN access network, an IP address and/or IP address prefix from an Evolved Packet Core, EPC, as well as a local IP address and/or IP address prefix of the trusted WLAN access network for the UE.
Storage device for the anti-theft storage of objects, in particular for sporting equipment, which is designed and intended to be mounted on a ceiling or wall and has a lifting device with at least one flexible pulling means , wherein the lifting device has a drive motor and wherein there is a wireless remote control, in particular a radio remote control or a smartphone, by means of which the drive motor can be controlled, characterized in that the storage device has an electrical plug connector for outputting electrical energy to the object to be stored.
An apparatus for a photon or neutron beam spectrum and intensity profile characterization, the apparatus comprises: - a diffractive element capable of diffracting the beam into spectral components ; characterized in that , the device further comprises - a beam block attached to the diffractive element , wherein the beam block blocks a portion of the direct beam that would otherwise reach a fixed detector in a spectrometric mode; - a reflective element configured to receive the spectral components diffracted from the diffractive element ; - said fixed detector positioned on an axis of the beam and configured to receive reflected spectral components from the reflective element ; and - a device for translation of the beam block and the diffractive element ; wherein the device is capable of translation in orthogonal direction (A) with respect to the beam to block or unblock the beam . - a diffractive element capable of diffracting the beam into spectral components ; characterized in that , the device further comprises - a beam block attached to the diffractive element , wherein the beam block blocks a portion of the direct beam that would otherwise reach a fixed detector in a spectrometric mode; - a reflective element configured to receive the spectral components diffracted from the diffractive element ; - said fixed detector positioned on an axis of the beam and configured to receive reflected spectral components from the reflective element ; and - a device for translation of the beam block and the diffractive element ; wherein the device is capable of translation in orthogonal direction (A) with respect to the beam to block or unblock the beam .
Household refrigerator with a carcass and a closing element arranged movably between a closed position and an opened position for closing a bearing compartment located in the carcass and with a line arranged both on the carcass and also on the closing element , and with a line housing , in which, in the closed position of the closing element , at least one line segment is arranged, wherein a length of the line segment in the opened position of the closing element is smaller than a length of the line segment in the closed position of the closing element , the household refrigerator further comprising a decorative element fastened to the closing element , characterised in that the decorative element is formed by a furniture plate and in the height direction (Z) and/or in the width direction (X) projects across end segments of the closing element and at least in the closed position of the closing element the line housing covers forwards so that the line housing is not visible to a user standing in front of the household refrigerator .
A 6-axis positioning system , comprising a base , a movable unit and six variable-length actuators (5.1, 5.2, 5.3; 7.1, 7.2, 7.3), one end of each actuator being connected to the base and the other end of each actuator being connected to the movable unit , wherein the six actuators (5.1, 5.2, 5.3; 7.1, 7.2, 7.3) are divided into two groups each having three actuators (5.1, 5.2, 5.3; 7.1, 7.2, 7.3), and the actuators (5.1, 5.2, 5.3) of the first group are arranged on the base within a region bounded by the actuators (7.1, 7.2, 7.3) of the second group , and the actuators (5.1, 5.2, 5.3) of the first group are arranged on the movable unit within a region bounded by the actuators (7.1, 7.2, 7.3) of the second group ; wherein the lower end and the upper end of each of the three actuators (7.1, 7.2, 7.3) of the second group are connected to the base and to the movable unit , respectively, by means of respective pivot fastening systems; wherein the upper end of each of the three actuators (5.1, 5.2, 5.3) of the first group is connected to the movable unit by means of a pivot fastening system, and wherein the lower end of each of the three actuators (5.1, 5.2, 5.3) of the first group is connected to the base by means of a pivot fastening system that can be pivoted during adjustment operation of the 6-axis positioning system , characterized in that the three actuators (5.1, 5.2, 5.3) of the first group are variable in length and pivotably connected to the base and the movable unit in such a way that each of the three actuators (5.1, 5.2, 5.3) of the first group is movably arranged in an angular range of max. ± 30°, preferably max. ± 15° relative to a vertical or perpendicular to a plane spanned by the base , and the three actuators (7.1, 7.2 and 7.3) of the second group are variable in length and pivotably connected to the base and the movable unit in such a way that each of the three actuators (7.1, 7.2 and 7.3) of the second group is arranged to be movable in an angular range of ≥ 0 to max. 45°, preferably ≥ 0 to max. 30° relative to a horizontal or parallel (P) to a plane spanned by the base .
Actuator unit for a vehicle gearbox, with a baseplate , a plurality of actuators which are mounted on the baseplate, a plurality of sensors which are assigned at least to some of the actuators , a flexible printed circuit board on which the sensors are mounted, characterized in that a temperature sensor is arranged on the flexible printed circuit board and in that the temperature sensor is arranged in the vicinity of the sensors with which the position of the actuators is sensed.
A method for producing a molded filter body having a layer of graphene as a filter medium, comprising the following steps performed in the order described: forming a layer of a support on a surface of graphite , wherein the support is a resist layer; forming support water passage holes in the layer of the support ; peeling the layer of the support from the graphite in a state of attaching a layer of graphene on the surface of the graphite to the layer of the support ; and holding the layer of graphene by heating at a low temperature for a predetermined time in the air containing oxygen at 160°C to 250°C and forming graphene water passage holes. forming a layer of a support on a surface of graphite , wherein the support is a resist layer; forming support water passage holes in the layer of the support ; peeling the layer of the support from the graphite in a state of attaching a layer of graphene on the surface of the graphite to the layer of the support ; and holding the layer of graphene by heating at a low temperature for a predetermined time in the air containing oxygen at 160°C to 250°C and forming graphene water passage holes.
A gaseous-fueled engine comprising: an intake air channel forming an air channel through which air flows; first and second intake pipes in which the intake air channel is branched at a branching portion , the first and second intake pipes are located downstream in a gas flow direction with respect to the branching portion and are open to a cylinder in a downstream end; and fuel injecting means for injecting gaseous fuel into the intake air channel , wherein the first and second intake pipe are designed so that, in the intake air channel , an air flow directed toward the first intake pipe is faster than an air flow directed toward the second intake pipe ; the fuel injecting means is disposed upstream of the branching portion in the gas flow direction, and is designed to inject different amounts of the fuel into the first and second intake pipes , and an amount of the fuel injected into the first intake pipe is designed to be larger than an amount of the fuel injected into the second intake pipe , so that a concentration of mixed gas of air and fuel supplied to the cylinder via the first intake pipe and a concentration of mixed gas of air and fuel supplied to the cylinder via the second intake pipe are made uniform. an intake air channel forming an air channel through which air flows; first and second intake pipes in which the intake air channel is branched at a branching portion , the first and second intake pipes are located downstream in a gas flow direction with respect to the branching portion and are open to a cylinder in a downstream end; and fuel injecting means for injecting gaseous fuel into the intake air channel , wherein the first and second intake pipe are designed so that, in the intake air channel , an air flow directed toward the first intake pipe is faster than an air flow directed toward the second intake pipe ; the fuel injecting means is disposed upstream of the branching portion in the gas flow direction, and is designed to inject different amounts of the fuel into the first and second intake pipes , and an amount of the fuel injected into the first intake pipe is designed to be larger than an amount of the fuel injected into the second intake pipe , so that a concentration of mixed gas of air and fuel supplied to the cylinder via the first intake pipe and a concentration of mixed gas of air and fuel supplied to the cylinder via the second intake pipe are made uniform.
A circular tool assembly comprising: an anvil assembly and a staple cartridge , the anvil assembly being movable in relation to the staple cartridge between spaced and clamped positions, the anvil assembly including a housing defining an outer annular recess and a locking material positioned within the outer annular recess, the staple cartridge including a body defining a plurality of staple receiving slots , each of the staple receiving slots supporting a staple , the staple receiving slots being aligned with the outer annular recess when the anvil assembly and the staple cartridge are in the clamped position such that the staples are ejected and penetrate into the locking material when the tool assembly is fired, each of the plurality of staples including a backspan and a leg extending from each end of the backspan , at least one of the legs including locking structure that is configured to engage the locking material of the anvil assembly upon penetration of the locking material by at least one leg of the staples to obstruct withdrawal of the legs from the locking material, characterised in that the locking material includes a mesh material.
Chassis for a road vehicle having an electrical energy store , comprising - two longitudinal beams which extend in the longitudinal direction, are spaced apart from one another over the entire length thereof, and have a front portion (1.1), a middle portion (1.2), and a rear portion (1.3), the longitudinal beams each being formed by a one-piece element that is continuous in the longitudinal direction from the front portion (1.1) to the rear portion (1.3) and the longitudinal beams running at least predominantly parallel to one another in the front portion (1.1) and/or in the rear portion (1.3), and - a plurality of transverse beams (3-7) which extend in the transverse direction and connect the longitudinal beams , the chassis having, in the middle portion (1.2) between the longitudinal beams , a mounting space for the energy store in which the energy store is arranged in the assembled state, characterized in that, in the middle portion (1.2), the longitudinal beams bulge outward in the transverse direction relative to the front portion (1.1) and the rear portion (1.3), a buffer region being formed between the mounting space and the relevant longitudinal beam in the transverse direction. - two longitudinal beams which extend in the longitudinal direction, are spaced apart from one another over the entire length thereof, and have a front portion (1.1), a middle portion (1.2), and a rear portion (1.3), the longitudinal beams each being formed by a one-piece element that is continuous in the longitudinal direction from the front portion (1.1) to the rear portion (1.3) and the longitudinal beams running at least predominantly parallel to one another in the front portion (1.1) and/or in the rear portion (1.3), and - a plurality of transverse beams (3-7) which extend in the transverse direction and connect the longitudinal beams , the chassis having, in the middle portion (1.2) between the longitudinal beams , a mounting space for the energy store in which the energy store is arranged in the assembled state,
A computer-implemented method for processing 3D image data using a neural network architecture , the computer-implemented method comprising: obtaining input 3D image data ; performing a modified 3D image data generation process comprising: for each of a plurality of 3D sub-volumes of the input 3D image data, processing the 3D sub-volume using a first neural network to produce first modified 3D image data ; and for each 2D image slice along a first dimension of the input 3D image data, processing the 2D image slice using a second neural network to produce second modified 3D image data ; wherein the method further comprises processing the input 3D image data , together with at least the first modified 3D image data and the second modified 3D image data , using an outputting neural network to produce an output of the neural network architecture. obtaining input 3D image data ; performing a modified 3D image data generation process comprising: for each of a plurality of 3D sub-volumes of the input 3D image data, processing the 3D sub-volume using a first neural network to produce first modified 3D image data ; and for each 2D image slice along a first dimension of the input 3D image data, processing the 2D image slice using a second neural network to produce second modified 3D image data ; wherein the method further comprises processing the input 3D image data , together with at least the first modified 3D image data and the second modified 3D image data , using an outputting neural network to produce an output of the neural network architecture. for each of a plurality of 3D sub-volumes of the input 3D image data, processing the 3D sub-volume using a first neural network to produce first modified 3D image data ; and for each 2D image slice along a first dimension of the input 3D image data, processing the 2D image slice using a second neural network to produce second modified 3D image data ; wherein the method further comprises processing the input 3D image data , together with at least the first modified 3D image data and the second modified 3D image data , using an outputting neural network to produce an output of the neural network architecture.
A method performed by a user equipment, UE , the method comprising: the UE receiving (s402) a first scheduling message regarding a first scheduled downlink transmission for the UE, wherein the first scheduling message comprises pointer information pointing to an object configured in the UE; and as a result of receiving the first scheduling message: the UE obtaining (s404) the pointer information from the first scheduling message; the UE determining (s406) a preferred receiver configuration that is currently associated with the obtained pointer information; and the UE using (s408) the determined preferred receiver configuration to receive the first scheduled downlink transmission, wherein the configured object is a Radio Resource Control, RRC, configured object, the RRC configured object is a reference signal, RS, measurement object, and the object contains multiple reference signals wherein the preferred receiver configuration is an analog receive, RX, beam, wherein the first scheduling message is Downlink Control Information, DCI. the UE receiving (s402) a first scheduling message regarding a first scheduled downlink transmission for the UE, wherein the first scheduling message comprises pointer information pointing to an object configured in the UE; and as a result of receiving the first scheduling message: the UE obtaining (s404) the pointer information from the first scheduling message; the UE determining (s406) a preferred receiver configuration that is currently associated with the obtained pointer information; and the UE using (s408) the determined preferred receiver configuration to receive the first scheduled downlink transmission, wherein the configured object is a Radio Resource Control, RRC, configured object, the RRC configured object is a reference signal, RS, measurement object, and the object contains multiple reference signals wherein the preferred receiver configuration is an analog receive, RX, beam, wherein the first scheduling message is Downlink Control Information, DCI. the UE obtaining (s404) the pointer information from the first scheduling message; the UE determining (s406) a preferred receiver configuration that is currently associated with the obtained pointer information; and the UE using (s408) the determined preferred receiver configuration to receive the first scheduled downlink transmission, wherein the configured object is a Radio Resource Control, RRC, configured object, the RRC configured object is a reference signal, RS, measurement object, and the object contains multiple reference signals wherein the preferred receiver configuration is an analog receive, RX, beam, wherein the first scheduling message is Downlink Control Information, DCI.