mhurhangee/ep-ind-claims huggingface dataset:
A yieldable rock anchor, comprising: - a non-unitary elongated tendon extending longitudinally along a tendon axis from a proximal end to a distal end, the tendon including -- a substantially non-yielding rigid first anchor portion, and -- at least one plastically deformable axially yielding portion intermediate said non-yielding rigid first anchor portion and said proximal end, wherein both the first anchor portion and the at least one yielding portion are hollow bar members, characterized in that - the first anchor portion is disposed at said distal end and extends towards said proximal end, - the first anchor portion and the at least one yielding portion are integrally joined to one another in an end-to-end manner by welding or gluing to form at least part of said elongated tendon, - strength tolerance bands of any substantially non-yielding rigid anchor portion (20, 36) and the at least one plastically deformable axially yielding portion do not overlap, and - the at least one axially yielding portion has a deformation range of at least 100 mm/m, preferably of at least 120 mm/m, and most preferably of at least 150 mm/m. - a non-unitary elongated tendon extending longitudinally along a tendon axis from a proximal end to a distal end, the tendon including -- a substantially non-yielding rigid first anchor portion, and -- at least one plastically deformable axially yielding portion intermediate said non-yielding rigid first anchor portion and said proximal end, wherein both the first anchor portion and the at least one yielding portion are hollow bar members, characterized in that - the first anchor portion is disposed at said distal end and extends towards said proximal end, - the first anchor portion and the at least one yielding portion are integrally joined to one another in an end-to-end manner by welding or gluing to form at least part of said elongated tendon, - strength tolerance bands of any substantially non-yielding rigid anchor portion (20, 36) and the at least one plastically deformable axially yielding portion do not overlap, and - the at least one axially yielding portion has a deformation range of at least 100 mm/m, preferably of at least 120 mm/m, and most preferably of at least 150 mm/m. -- a substantially non-yielding rigid first anchor portion, and -- at least one plastically deformable axially yielding portion intermediate said non-yielding rigid first anchor portion and said proximal end, - the first anchor portion is disposed at said distal end and extends towards said proximal end, - the first anchor portion and the at least one yielding portion are integrally joined to one another in an end-to-end manner by welding or gluing to form at least part of said elongated tendon, - strength tolerance bands of any substantially non-yielding rigid anchor portion (20, 36) and the at least one plastically deformable axially yielding portion do not overlap, and - the at least one axially yielding portion has a deformation range of at least 100 mm/m, preferably of at least 120 mm/m, and most preferably of at least 150 mm/m.
Device for relative positioning of two parts formed by a light support (5, 5') for a semiconductor light source and a support element (3, 3') of this light support, the device comprising two pairs of interlocking reliefs, each pair comprising at least one recess (5A, 5B, 5'A, 5'B) on said part and at least one locating projection (3A, 3B, 3'A, 3'B) with a rounded form, mounted on the other said part, each projection being intended to rest, in the assembled position, each one on the bottom of the corresponding recess in a corresponding direction of insertion, said positioning device being isostatic, characterized in that at least one first recess arranged on an edge of the light support is semicircular, the second recess having a width greater than or equal to the diameter of this first recess, and said projections mounted on the support element have a semicircular shape, at least one of the projections (3A, 3B) having a diameter smaller than the corresponding semicircular recess, the device being characterized in that the first projection has the same diameter as said corresponding semicircular recess and the second projection has a smaller diameter.
An amine compound characterized in that it is represented by the formula: (wherein X is a sulfur atom or an oxygen atom, each of R 1 to R 10 which are independent of one another, is a hydrogen atom, a deuterium atom or a phenyl group, and each of Ar 1 and Ar 2 which are independent of each other, is a C 6-18 aromatic hydrocarbon group, a dibenzothienyl group or a dibenzofuranyl group, which, each independently, may have a substituent consisting of a methyl group, a methoxy group, a dibenzothienyl group, a dibenzofuranyl group or a 9-carbazolyl group.).
A furniture module (3; 31; 33; 41; 51; 53; 59; 61; 66; 82) for a kitchen and/or a bathroom comprising: - a pedestal body, - a telescopic box, - an extension body and - a lifting unit (9; 76), - wherein the pedestal body is designed as a cuboid component of the furniture module (3; 31; 33; 41; 51; 53; 59; 61; 66; 82), which has an interior space, - wherein the extension body is designed as a cuboid component of the furniture module (3; 31; 33; 41; 51;53; 59; 61; 66; 82), which has an interior space, - wherein the lifting unit (9; 76) is arranged between the pedestal body and the extension body, - wherein the lifting unit (9; 76) passes through the telescopic box at least in part, - wherein the lifting unit (9; 76) moves the extension body relative to the pedestal body upwards and downwards, - wherein the furniture module (3; 31; 33; 41; 51; 53; 59; 61; 66; 82) comprises a fitting unit, - wherein the fitting unit is arranged between the lifting unit (9; 76) and the extension body (8; 77), - wherein the extension body (8; 77) can be moved by the fitting unit relative to the lifting unit (9; 76) in a horizontal plane and/or - wherein the extension body (8; 77) is pivotable by the fitting unit irelative to the lifting unit (9; 76) about at least one, preferably two and in particular three spatial axes (Dx, Dy, Dz) that are orthogonal to each other. - a pedestal body, - a telescopic box, - an extension body and - a lifting unit (9; 76), - wherein the pedestal body is designed as a cuboid component of the furniture module (3; 31; 33; 41; 51; 53; 59; 61; 66; 82), which has an interior space, - wherein the extension body is designed as a cuboid component of the furniture module (3; 31; 33; 41; 51;53; 59; 61; 66; 82), which has an interior space, - wherein the lifting unit (9; 76) is arranged between the pedestal body and the extension body, - wherein the lifting unit (9; 76) passes through the telescopic box at least in part, - wherein the lifting unit (9; 76) moves the extension body relative to the pedestal body upwards and downwards, - wherein the furniture module (3; 31; 33; 41; 51; 53; 59; 61; 66; 82) comprises a fitting unit, - wherein the fitting unit is arranged between the lifting unit (9; 76) and the extension body (8; 77), - wherein the extension body (8; 77) can be moved by the fitting unit relative to the lifting unit (9; 76) in a horizontal plane and/or - wherein the extension body (8; 77) is pivotable by the fitting unit irelative to the lifting unit (9; 76) about at least one, preferably two and in particular three spatial axes (Dx, Dy, Dz) that are orthogonal to each other.
A wireless power transmission apparatus for induction heating and for wirelessly transmitting power to a target object comprising: a working coil configured to induction-heat the target object and to wirelessly transmit power to the target object depending on a selected mode; an inverter configured to be operated based on an operation frequency for providing power to the working coil (12, 150); and a controller configured to change the mode depending on a selection of a user and to control the operation frequency depending on the mode, wherein the controller is configured to determine whether a foreign object is positioned on the working coil in a preparation period prior to wireless power transfer when the user selects a wireless power transmission mode, wherein, when the user selects the mode at a user input unit, the controller is configured to read an input current and/or a resonance current and to determine whether the foreign object is present while entering a first foreign object detection mode and to drive the inverter with a start frequency and an operation frequency, and wherein the controller is configured to read the resonance current and/or the input current a plurality of times for a predetermined time period, perform integration on each of the resonance current and/or the input current, and determine whether the foreign object is present based on an integrated value. a working coil configured to induction-heat the target object and to wirelessly transmit power to the target object depending on a selected mode; an inverter configured to be operated based on an operation frequency for providing power to the working coil (12, 150); and a controller configured to change the mode depending on a selection of a user and to control the operation frequency depending on the mode, wherein the controller is configured to determine whether a foreign object is positioned on the working coil in a preparation period prior to wireless power transfer when the user selects a wireless power transmission mode, wherein, when the user selects the mode at a user input unit, the controller is configured to read an input current and/or a resonance current and to determine whether the foreign object is present while entering a first foreign object detection mode and to drive the inverter with a start frequency and an operation frequency, and wherein the controller is configured to read the resonance current and/or the input current a plurality of times for a predetermined time period, perform integration on each of the resonance current and/or the input current, and determine whether the foreign object is present based on an integrated value.
A sulfur storage catalyst for use in an exhaust gas stream for storing a sulfur component of an exhaust gas as sulfur oxide, when placed on an upstream side of a NO x storage-and-reduction type catalyst, where the sulfur storage catalyst comprises: a support substrate; a coating layer comprising a porous oxide, formed on a surface of the support substrate; a noble metal supported on the coating layer; and an SO x storage material selected from the group consisting of alkali metals and alkaline-earth metals, and being supported on the coating layer; and wherein the sulfur storage catalyst has: an upstream-side catalyst portion in which the noble metal and no SO x storage material selected from Mg, K, Na, Sr and Ca is supported on an exhaust-gas upstream side of the coating layer; and a downstream-side catalyst portion in which an SO x storage material selected from Mg, Na, Sr and Ca is supported on the coating layer on an exhaust-gas downstream side of the upstream-side catalytic portion. a support substrate; a coating layer comprising a porous oxide, formed on a surface of the support substrate; a noble metal supported on the coating layer; and an SO x storage material selected from the group consisting of alkali metals and alkaline-earth metals, and being supported on the coating layer; and wherein the sulfur storage catalyst has: an upstream-side catalyst portion in which the noble metal and no SO x storage material selected from Mg, K, Na, Sr and Ca is supported on an exhaust-gas upstream side of the coating layer; and a downstream-side catalyst portion in which an SO x storage material selected from Mg, Na, Sr and Ca is supported on the coating layer on an exhaust-gas downstream side of the upstream-side catalytic portion. an upstream-side catalyst portion in which the noble metal and no SO x storage material selected from Mg, K, Na, Sr and Ca is supported on an exhaust-gas upstream side of the coating layer; and a downstream-side catalyst portion in which an SO x storage material selected from Mg, Na, Sr and Ca is supported on the coating layer on an exhaust-gas downstream side of the upstream-side catalytic portion.
A networked battle system comprising: a communication network; a first rifle; a rail; an accessory holding device coupled to the first rifle; a display device disposed in the accessory holding device in operative communication with a sensor pack, the display device including a communication element; a sensor pack directly attached to the accessory holding device that includes a first sensor for determining a bearing of the first rifle, an accelerometer and a rate gyroscope; wherein the display device includes the communication element and receives the sensor information from the sensor pack and provides it to the communication network; and a battle management system in communication with the first rifle through the communication network that receives the sensor information from the sensor pack updates a battle plan based on the sensor information to form an updated battle plan. a communication network; a first rifle; a rail; an accessory holding device coupled to the first rifle; a display device disposed in the accessory holding device in operative communication with a sensor pack, the display device including a communication element; a sensor pack directly attached to the accessory holding device that includes a first sensor for determining a bearing of the first rifle, an accelerometer and a rate gyroscope; wherein the display device includes the communication element and receives the sensor information from the sensor pack and provides it to the communication network; and a battle management system in communication with the first rifle through the communication network that receives the sensor information from the sensor pack updates a battle plan based on the sensor information to form an updated battle plan.
A method comprising: receiving a first configuration for grantless uplink subframes from a network node via radio resource control signaling as a bitmap indicating for one or more subframes whether or not grantless uplink transmissions is allowed; receiving a second configuration for determining additional restrictions for grantless uplink subframes; and determining from the received second configuration when grantless uplink transmission is not allowed for at least one grantless uplink subframe, wherein the second configuration indicates that the grantless uplink transmission is not allowed in at least one of the following: in a same subframe as a scheduled uplink transmission; in a previous and the same subframe as the scheduled uplink transmission; in m subframes following a scheduled uplink transmission; and in m subframes following a correctly received scheduled uplink transmission, where value of m is either a predetermined or a configurable variable. receiving a first configuration for grantless uplink subframes from a network node via radio resource control signaling as a bitmap indicating for one or more subframes whether or not grantless uplink transmissions is allowed; receiving a second configuration for determining additional restrictions for grantless uplink subframes; and determining from the received second configuration when grantless uplink transmission is not allowed for at least one grantless uplink subframe, wherein the second configuration indicates that the grantless uplink transmission is not allowed in at least one of the following: in a same subframe as a scheduled uplink transmission; in a previous and the same subframe as the scheduled uplink transmission; in m subframes following a scheduled uplink transmission; and in m subframes following a correctly received scheduled uplink transmission, where value of m is either a predetermined or a configurable variable.
Packaging for timepiece appliques, said appliques comprising, on either side of a bearing surface, at least one foot, and an applique body extending over an applique height above said bearing surface, said packaging comprising at least one pallet designed for the receipt, holding, storage and transport of said appliques of the same said applique height, said pallet comprising a series of bores for receiving said feet according to a constant pitch, each said bore being adjacent to a housing arranged so as to house one said applique body bearing on an upper pallet surface opposite a lower pallet surface, characterised in that each said pallet comprises position indexing means and comprises at least one spacer extending in a vertical direction and arranged such that it engages, by bearing thereon, with one said lower pallet surface of another said pallet or with a lower skid surface forming part of a skid comprised in said packaging and of planar overall dimensions that are identical to a said pallet, each said spacer extending, from said upper pallet surface, over a pallet height that is greater than said applique height by the value of a predefined functional clearance.
A system for detecting hardware Trojans in a computerized device, the system comprising: a digital circuit comprising switching components operating pursuant to at least one clock frequency, the digital circuit positioned within an interrogation range of an incident carrier wave; a backscatter response reflected from the digital circuit upon arrival of the incident carrier wave, wherein the backscatter response is a modulated backscatter response in the presence of the switching operations; a detection device positioned to receive the backscatter response; and a computer connected to the detection device, the computer identifying characteristics of the backscatter response indicating a presence or an absence of a hardware Trojan within or connected to the digital circuit; and wherein the presence of a hardware Trojan is indicated by the computer comparing the characteristics of the received backscatter response to a reference backscatter response that corresponds to a baseline circuit free of hardware Trojans. a digital circuit comprising switching components operating pursuant to at least one clock frequency, the digital circuit positioned within an interrogation range of an incident carrier wave; a backscatter response reflected from the digital circuit upon arrival of the incident carrier wave, wherein the backscatter response is a modulated backscatter response in the presence of the switching operations; a detection device positioned to receive the backscatter response; and a computer connected to the detection device, the computer identifying characteristics of the backscatter response indicating a presence or an absence of a hardware Trojan within or connected to the digital circuit; and
A wavelength conversion member which is a molding of a resin material comprising a thermoplastic resin and a complex fluoride phosphor dispersed therein, wherein the thermoplastic resin is one or more resins selected from the group consisting of polyolefins, polystyrene, styrene copolymers, fluoro-resins, acrylic resins, nylon, polyester resins, polycarbonate resins, vinyl chloride resins and polyether resins, provided that the thermoplastic resin comprises at least 40% by weight of polypropylene; the complex fluoride phosphor is represented by the formula: A 2 (M 1-x Mn x)F 6 wherein M is one or more tetravalent elements selected from Si, Ti, Zr, Hf, Ge, and Sn, A is one or more alkali metals selected from Li, Na, K, Rb, and Cs and containing at least Na and/or K, and x is a number of 0.001 to 0.3, and has a particle size distribution as measured by dry laser diffraction scattering method in which the volume basis 50% cumulative particle diameter D50 is from 2 to 200 μm, the complex fluoride phosphor is dispersed in the thermoplastic resin in an amount of up to 30% by weight.
Assembly for processing materials at risk of contamination, comprising a closed housing, in the interior of which a processing device for the materials at risk of contamination is located, and handling devices, wherein the housing has an access door, wherein the assembly comprises an independent, mobile manipulation unit, which is separate from the housing and has a sub-chamber, wherein at least a part of the handling device is located in the sub-chamber, and wherein sealing means are provided for docking the manipulation unit to the housing, which sealing means tightly encompass the access door in the docked state and seal the interior of the housing together with the sub-chamber of the manipulation unit against the environment when the access door is open, wherein the handling devices comprise at least one glove port, a flush water supply, a compressed air supply and/or an extraction, characterised in that, in the sub-chamber of the separate manipulation unit, the handling devices for user access to the interior and the processing device are arranged in such a way that the user can clean the interior by means of the at least one glove port, the flush water supply, the compressed air supply and/or the extraction.
Connection device for a wiper arm and a wiper blade comprising a first connection part on the wiper blade side and a second connection part on the wiper arm side, which are arranged adjacent to one another in the operating position and are pivotably connected via a hinge element about a hinge axis, and at least partially engage in one another by a securing means and the first connection part having a receiver for receiving the securing means, characterized in that the first connection part, in particular the receiver, has a first identification means and the second connection part, in particular the securing means, has a second identification means corresponding to the first identification means, wherein the first identification means is of complementary shape to the second identification means, wherein the identification means (101, 102) fix an assignment of the wiper blade to a wiper arm of the driver's side or the front passenger's side, in order to prevent mounting of a wiper blade on a wiper arm which does not belong to it.
An aluminum alloy material, comprising: Si: less than 0.2 mass%, Fe: 0.1 to 0.3 mass%, Cu: 1.0 to 2.5 mass%, Mn: 1.0 to 1.6 mass%, and Mg: 0.1 to 1.0 mass%, and optionally comprising one or more of Ti: 0.05 to 0.2 mass%, Zr: 0.05 to 0.2 mass%, V: 0.05 to 0.2 mass%, Cr: 0.05 to 0.2 mass%, and B and other incidental impurities: not more than 0.05 mass%, the balance being Al and incidental impurities, wherein a number density of Al-Mn compound having a circle equivalent diameter of not less than 0.1 μm is not less than 1.0 × 10 5 mm -2, and a number density of Al 2 Cu having a circle equivalent diameter of not less than 0.1 μm is not more than 1.0 × 10 5 mm -2.