mhurhangee/ep-ind-claims huggingface dataset:
A foldable stirrup (10, 110, 210) for mounting animals comprising: a support arm (22, 122, 222) for engagement with a strap, the support arm (22, 122, 222) having a first end (26, 126, 226) for connection to the strap; and a base (24, 124, 224) comprising a generally flat upper surface (46, 146, 246) for supporting a rider's foot while mounting when the stirrup is in an open configuration, wherein - the support arm (22, 122, 222) is suitable to support the base (24, 124, 224) in an orientation generally parallel to the ground, and - the base (24, 124, 224) is pivotally coupled to a second end (34, 134, 234) of the support arm (22, 122, 222) by a revolute joint (36, 136, 236), and the base (24, 124, 224) and the support arm (22, 122, 222) are inwardly foldable together to a folded configuration in which a minimum angle that can be defined between the second end (34, 134, 234) of the support arm (22, 122, 222) and the generally flat upper surface (46, 146, 246) of the base (24, 124, 224) about the revolute joint (36, 136, 236) is between 10° and 30°, or is able to be reduced to 0°. a support arm (22, 122, 222) for engagement with a strap, the support arm (22, 122, 222) having a first end (26, 126, 226) for connection to the strap; and a base (24, 124, 224) comprising a generally flat upper surface (46, 146, 246) for supporting a rider's foot while mounting when the stirrup is in an open configuration, wherein - the support arm (22, 122, 222) is suitable to support the base (24, 124, 224) in an orientation generally parallel to the ground, and - the base (24, 124, 224) is pivotally coupled to a second end (34, 134, 234) of the support arm (22, 122, 222) by a revolute joint (36, 136, 236), and the base (24, 124, 224) and the support arm (22, 122, 222) are inwardly foldable together to a folded configuration in which a minimum angle that can be defined between the second end (34, 134, 234) of the support arm (22, 122, 222) and the generally flat upper surface (46, 146, 246) of the base (24, 124, 224) about the revolute joint (36, 136, 236) is between 10° and 30°, or is able to be reduced to 0°. - the support arm (22, 122, 222) is suitable to support the base (24, 124, 224) in an orientation generally parallel to the ground, and - the base (24, 124, 224) is pivotally coupled to a second end (34, 134, 234) of the support arm (22, 122, 222) by a revolute joint (36, 136, 236), and the base (24, 124, 224) and the support arm (22, 122, 222) are inwardly foldable together to a folded configuration in which a minimum angle that can be defined between the second end (34, 134, 234) of the support arm (22, 122, 222) and the generally flat upper surface (46, 146, 246) of the base (24, 124, 224) about the revolute joint (36, 136, 236) is between 10° and 30°, or is able to be reduced to 0°.
Austenitic alloy based on nickel and with a high chromium content, intended to be used at a given operating temperature between 900°C and 1150°C, the alloy comprising the following compounds by mass percentage: - chromium between 40% and 45%, - iron between 10% and 14%, - carbon between 0.4% and 0.6%, - titanium between 0.05 and 0.2%, - niobium between 0.5% and 1.5%, - at least one reactive element, selected from rare earths or hafnium, between 0.002% and 0.1%, - silicon between 0 and 1%, - manganese between 0 and 0.5%, - molybdenum or copper content of less than 0.5% - trace impurities such as phosphorus, sulfur, lead, tin, zirconium or tungsten; the content of which is less than one hundred particles per million (ppm), - nickel to make up the balance of the alloy compounds, and the alloy having a molar fraction of niobium- and/or titanium-rich secondary carbo-nitrides greater than 0.1%, after the operating temperature has been applied thereto, measured using a scanning or transmission electron microscope. - chromium between 40% and 45%, - iron between 10% and 14%, - carbon between 0.4% and 0.6%, - titanium between 0.05 and 0.2%, - niobium between 0.5% and 1.5%, - at least one reactive element, selected from rare earths or hafnium, between 0.002% and 0.1%, - silicon between 0 and 1%, - manganese between 0 and 0.5%, - molybdenum or copper content of less than 0.5% - trace impurities such as phosphorus, sulfur, lead, tin, zirconium or tungsten; the content of which is less than one hundred particles per million (ppm), - nickel to make up the balance of the alloy compounds, and the alloy having a molar fraction of niobium- and/or titanium-rich secondary carbo-nitrides greater than 0.1%, after the operating temperature has been applied thereto, measured using a scanning or transmission electron microscope.
A chip device, comprising a main unit and a plurality of basic units, the main unit being a hardware chip unit, and the plurality of basic units being also hardware chip units, wherein the main unit is configured to perform each continuous operation in a neural network and to transmit data with the basic units; and the basic units are configured to perform parallel acceleration operations in the neural network according to the data transmitted by the main unit, and to transmit operation results to the main unit; wherein the main unit is configured to: obtain a data block to-be-calculated and an operation instruction; divide the data block to-be-calculated into a distribution data block and a broadcast data block according to the operation instruction; obtain a plurality of basic data blocks by splitting the distribution data block; and distribute the plurality of basic data blocks to the basic units and broadcast the broadcast data block to the basic units; the basic units are configured to: obtain operation results by performing inner-product operations for the basic data blocks and the broadcast data block; and send the operation results to the main unit; and the main unit is further configured to obtain an instruction result corresponding to the data block to-be-calculated and the operation instruction by processing the operation results. the main unit is configured to perform each continuous operation in a neural network and to transmit data with the basic units; and the basic units are configured to perform parallel acceleration operations in the neural network according to the data transmitted by the main unit, and to transmit operation results to the main unit; wherein the main unit is configured to: obtain a data block to-be-calculated and an operation instruction; divide the data block to-be-calculated into a distribution data block and a broadcast data block according to the operation instruction; obtain a plurality of basic data blocks by splitting the distribution data block; and distribute the plurality of basic data blocks to the basic units and broadcast the broadcast data block to the basic units; the basic units are configured to: obtain operation results by performing inner-product operations for the basic data blocks and the broadcast data block; and send the operation results to the main unit; and the main unit is further configured to obtain an instruction result corresponding to the data block to-be-calculated and the operation instruction by processing the operation results.
Device for the generation and detection of magnetisation of a sample by means of magnetic resonance at least comprising means for providing a static magnetic field of predetermined direction and strength at a sample location, an emitting device for providing an additional magnetic field at the sample location, a receiving device for detecting magnetisation of the sample wherein the emitting or receiving device is formed by an LC oscillator, the oscillation frequency of which depends on the value of an inductive element of the LC oscillator, means for controlling the emitting device, wherein the emitting device and the means for controlling are sufficient for producing a magnetic field which can deflect magnetisation of the sample from a state of equilibrium and, downstream of the receiving device, demodulation means, analogue-digital converters (710, 810, 811) as well as means for digital data processing, wherein means for determining the magnetisation of the sample and the thereby to be determined spin concentration of individual spectral components and means for outputting the magnetisation to the means for digital data processing are provided, and wherein the sample location is in the near field of the emitting device in which no wave is yet present, characterised in that • an arrangement of at least two LC oscillators, the oscillation frequency of which depends on the value of an inductive element of the LC oscillators and which, via an interconnection configured as a coupling network, are frequency-synchronised and through a control voltage have the same enforced oscillation frequency, forms both the receiving device and also the emitting device, as well as simultaneously being usable as an emitting and receiving device, and • one of the LC oscillators of the arrangement is designed as a voltage-controlled oscillator and the device is incorporated into a phase locked loop so that all LC oscillators in the arrangement follow a reference frequency. • an arrangement of at least two LC oscillators, the oscillation frequency of which depends on the value of an inductive element of the LC oscillators and which, via an interconnection configured as a coupling network, are frequency-synchronised and through a control voltage have the same enforced oscillation frequency, forms both the receiving device and also the emitting device, as well as simultaneously being usable as an emitting and receiving device, and • one of the LC oscillators of the arrangement is designed as a voltage-controlled oscillator and the device is incorporated into a phase locked loop so that all LC oscillators in the arrangement follow a reference frequency.
A method of designing a multivariate optical element device, comprising: generating a plurality of MOE device models with a design suite stored on a non-transitory, computer-readable medium, each MOE device model comprising one or more layers (102, 104) and being configured to detect a characteristic of interest of a sample substance; determining at least one transmission spectrum for each MOE device model for different distributions of incident light angles; determining at least one performance criteria for each MOE device model for each distribution of incident light angles; ranking each MOE device model based on the at least one performance criteria of each MOE device model at each distribution of incident light angles; and selecting for fabrication one or more of the plurality of MOE device models based on angular distribution robustness, wherein the selection includes selecting for fabrication one or more of the plurality of MOE device models having a higher mark in the ranking, and wherein the performance criteria comprises criteria selected from a group consisting of minimum prediction error, standard error of calibration, standard error of prediction, sensitivity, slope of a calibration curve, signal-to-noise ratio, and mean transmission value as tested against a known value for the characteristic of interest. generating a plurality of MOE device models with a design suite stored on a non-transitory, computer-readable medium, each MOE device model comprising one or more layers (102, 104) and being configured to detect a characteristic of interest of a sample substance; determining at least one transmission spectrum for each MOE device model for different distributions of incident light angles; determining at least one performance criteria for each MOE device model for each distribution of incident light angles; ranking each MOE device model based on the at least one performance criteria of each MOE device model at each distribution of incident light angles; and selecting for fabrication one or more of the plurality of MOE device models based on angular distribution robustness, wherein the selection includes selecting for fabrication one or more of the plurality of MOE device models having a higher mark in the ranking, and wherein the performance criteria comprises criteria selected from a group consisting of minimum prediction error, standard error of calibration, standard error of prediction, sensitivity, slope of a calibration curve, signal-to-noise ratio, and mean transmission value as tested against a known value for the characteristic of interest.
A biocompatible, resorbable composite for osteosynthesis, the composite comprising: osteoconductive particles dispersed within a porous polymer matrix, the polymer matrix comprising a plurality of fluid passageways that expose at least a portion of a plurality of the osteoconductive particles to an exterior of the polymer matrix, wherein the polymer matrix comprises polymer particles affixed to an external surface of the osteoconductive particles and a portion of the external surface of the osteoconductive particles is not covered by the polymer particles, wherein the polymer particles are smaller in broadest dimension than the osteoconductive particles, and wherein the osteoconductive particles and the polymer particles are aggregated to form the composite; and a chemical additive incorporated within the polymer matrix, the chemical additive configured to modify one or more of acidity, degradation rate, melting point, hydrophilicity, and hydrophobicity of the polymer matrix. osteoconductive particles dispersed within a porous polymer matrix, the polymer matrix comprising a plurality of fluid passageways that expose at least a portion of a plurality of the osteoconductive particles to an exterior of the polymer matrix, wherein the polymer matrix comprises polymer particles affixed to an external surface of the osteoconductive particles and a portion of the external surface of the osteoconductive particles is not covered by the polymer particles, wherein the polymer particles are smaller in broadest dimension than the osteoconductive particles, and wherein the osteoconductive particles and the polymer particles are aggregated to form the composite; and a chemical additive incorporated within the polymer matrix, the chemical additive configured to modify one or more of acidity, degradation rate, melting point, hydrophilicity, and hydrophobicity of the polymer matrix.
A self-locking structure for a toilet seat bumper, comprising a fixed seat fixedly arranged on a toilet and a cover plate rotatably arranged on the fixed seat, wherein a mounting hole is arranged on the cover plate, and a seat hinge assembly configured to hinge the fixed seat and the cover plate is installed in the mounting hole; the cover plate is provided with an arc-shaped hole communicated with the mounting hole in a radial direction; the seat hinge assembly comprises a hinge shaft, characterized in that the the seat hinge assembly further comprises an annular elastic buckle sleeved on an outer circumference of the hinge shaft; the annular elastic buckle comprises an annular portion and a raised portion arranged on an end face of the annular portion and outwardly protruding toward the radial direction of the annular portion; the outer circumference of the hinge shaft is provided with an annular groove in which the annular portion is sleeved, and the outer circumference of the hinge shaft is further provided with an avoidance slot communicated with the annular groove, and the avoidance slot is configured for accommodating the raised portion entirely; when the annular portion of the annular elastic buckle is sleeved on a periphery of the annular groove of the hinge shaft, a top of the raised portion is higher than a peripheral surface of the hinge shaft, so that during the assembly process, the raised portion of the annular elastic buckle is clamped in the arc-shaped hole from outside to inside through the mounting hole along an axis direction of the mounting hole, so as to realize an axial fixation of the seat hinge assembly in the mounting hole.
A resin composition comprising: an ethylene-vinyl alcohol copolymer in which an ethylene unit content is from 10 to 60 mol %; a hindered amine-based compound having a 2,2,6,6-tetraalkylpiperidine ring structure and having an alkoxy group bonded to a nitrogen atom in the structure; and a hindered phenol-based compound having an ester bond or an amide bond, wherein the resin composition contains 0.1 to 5 parts by mass of the hindered amine-based compound and 0.2 to 5 parts by mass of the hindered phenol-based compound with respect to 100 parts by mass of the ethylene-vinyl alcohol copolymer, and a mass ratio / is from 0.2 to 3.6. an ethylene-vinyl alcohol copolymer in which an ethylene unit content is from 10 to 60 mol %; a hindered amine-based compound having a 2,2,6,6-tetraalkylpiperidine ring structure and having an alkoxy group bonded to a nitrogen atom in the structure; and a hindered phenol-based compound having an ester bond or an amide bond, wherein the resin composition contains 0.1 to 5 parts by mass of the hindered amine-based compound and 0.2 to 5 parts by mass of the hindered phenol-based compound with respect to 100 parts by mass of the ethylene-vinyl alcohol copolymer, and a mass ratio / is from 0.2 to 3.6.
Vehicle, in particular military vehicle, having an armored vehicle wall and a secondary splinter protection for protecting a vehicle interior from secondary splinters arranged on the inside of the vehicle wall, the secondary splinter protection having a metal plate and a plastic plate which bears flat against the metal plate, the thickness (Dk) of the plastic plate being greater than the thickness (Dm) of the metal plate, characterized by a technical compartment arranged between the secondary splinter protection and the vehicle wall, in which technical compartment vehicle components, in particular fluid lines and/or electrical lines, are arranged.
An on-load tap changer comprising a static unit comprising fixed contacts (4a-4e, 5a-5e) for connection to taps at a transformer winding, a dynamic unit comprising at least one movable contact (8, 9) for selectively contacting one of the fixed contacts (4a-4e, 5a-5e) during operation of the transformer, and comprising a rotational positioning device for adjusting the rotational position of the dynamic unit relative to the static unit during at least one of assembly or disassembly of the tap changer to engage or disengage the movable contacts (4a-4e, 5a-5e) to or from the fixed contacts (8, 9), characterized in that the dynamic unit comprises first teeth and the static unit comprises a spur wheel comprising second teeth, the first teeth and the second teeth interacting with each other, wherein the rotational positioning device comprises an adjustment member operable by a user for rotating the spur wheel, wherein the rotational positioning device comprises a first stop position, in which further rotational adjustment in one rotational direction is prevented, wherein in the first stop position the movable contacts (8, 9) are fully engaged with the fixed contacts (4a-4e, 5a-5e) and wherein the rotational positioning device comprises a second stop position, in which further rotational adjustment in a second rotational direction is prevented, the second rotational direction being opposite to the first rotational direction, wherein in the second stop position the movable contacts (8, 9) are fully disengaged from the fixed contacts (4a-4e, 5a-5e). a static unit comprising fixed contacts (4a-4e, 5a-5e) for connection to taps at a transformer winding, a dynamic unit comprising at least one movable contact (8, 9) for selectively contacting one of the fixed contacts (4a-4e, 5a-5e) during operation of the transformer, and comprising a rotational positioning device for adjusting the rotational position of the dynamic unit relative to the static unit during at least one of assembly or disassembly of the tap changer to engage or disengage the movable contacts (4a-4e, 5a-5e) to or from the fixed contacts (8, 9), characterized in that the dynamic unit comprises first teeth and the static unit comprises a spur wheel comprising second teeth, the first teeth and the second teeth interacting with each other, wherein the rotational positioning device comprises an adjustment member operable by a user for rotating the spur wheel, wherein the rotational positioning device comprises a first stop position, in which further rotational adjustment in one rotational direction is prevented, wherein in the first stop position the movable contacts (8, 9) are fully engaged with the fixed contacts (4a-4e, 5a-5e) and wherein the rotational positioning device comprises a second stop position, in which further rotational adjustment in a second rotational direction is prevented, the second rotational direction being opposite to the first rotational direction, wherein in the second stop position the movable contacts (8, 9) are fully disengaged from the fixed contacts (4a-4e, 5a-5e).
A composition comprising an effective amount of a compstatin analog for use in treating an eye disorder characterized by macular degeneration, choroidal neovascularization, or a combination of these in a subject at risk of or suffering from the eye disorder, wherein the compstatin analog is a compound that comprises a cyclic peptide having a sequence: Xaa1 - Cys - Val - Xaa2 - Gln - Asp - Xaa2* - Gly - Xaa3 - His - Arg - Cys - Xaa4 (SEQ ID NO: 6); wherein: Xaa1 is Ile, Val, Leu, B 1 -Ile, B 1 -Val, B 1 -Leu or a dipeptide comprising Gly-Ile or B 1 - Gly -Ile, and B 1 represents a first blocking moiety; Xaa2 is 1-methyltryptophan, Xaa2* is Trp or analogs of Trp; Xaa3 is His, Ala or an analog of Ala, Phe, Trp or an analog of Trp; Xaa4 is L-Thr, D-Thr, Ile, Val, Gly, a dipeptide selected from Thr-Ala and Thr-Asn, or a tripeptide comprising Thr-Ala-Asn, wherein a carboxy terminal -OH of any of the L-Thr, D-Thr, Ile, Val, Gly, Ala, or Asn is optionally replaced by a second blocking moiety B 2; and the two Cys residues are joined by a disulfide bond, wherein the analogs of Trp are selected from amino acids comprising two or more substituted or unsubstituted aromatic rings. Xaa1 - Cys - Val - Xaa2 - Gln - Asp - Xaa2* - Gly - Xaa3 - His - Arg - Cys - Xaa4 (SEQ ID NO: 6); wherein: Xaa1 is Ile, Val, Leu, B 1 -Ile, B 1 -Val, B 1 -Leu or a dipeptide comprising Gly-Ile or B 1 - Gly -Ile, and B 1 represents a first blocking moiety; Xaa2 is 1-methyltryptophan, Xaa2* is Trp or analogs of Trp; Xaa3 is His, Ala or an analog of Ala, Phe, Trp or an analog of Trp; Xaa4 is L-Thr, D-Thr, Ile, Val, Gly, a dipeptide selected from Thr-Ala and Thr-Asn, or a tripeptide comprising Thr-Ala-Asn, wherein a carboxy terminal -OH of any of the L-Thr, D-Thr, Ile, Val, Gly, Ala, or Asn is optionally replaced by a second blocking moiety B 2; and the two Cys residues are joined by a disulfide bond, wherein the analogs of Trp are selected from amino acids comprising two or more substituted or unsubstituted aromatic rings. Xaa1 is Ile, Val, Leu, B 1 -Ile, B 1 -Val, B 1 -Leu or a dipeptide comprising Gly-Ile or B 1 - Gly -Ile, and B 1 represents a first blocking moiety; Xaa2 is 1-methyltryptophan, Xaa2* is Trp or analogs of Trp; Xaa3 is His, Ala or an analog of Ala, Phe, Trp or an analog of Trp; Xaa4 is L-Thr, D-Thr, Ile, Val, Gly, a dipeptide selected from Thr-Ala and Thr-Asn, or a tripeptide comprising Thr-Ala-Asn, wherein a carboxy terminal -OH of any of the L-Thr, D-Thr, Ile, Val, Gly, Ala, or Asn is optionally replaced by a second blocking moiety B 2; and the two Cys residues are joined by a disulfide bond, wherein the analogs of Trp are selected from amino acids comprising two or more substituted or unsubstituted aromatic rings.