mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the dose of radiation using a sensor comprising one or more detector units capable of counting the number of photon or charged particle of said radiation impinging on said sensor in or above a determined energy range, comprising the steps of - performing a calibration operation comprising the steps of (i) producing a beam k of radiation, said beam producing a known dose D k, said beam being either produced physically or simulated with a model; (ii) determining the counts N k i of said radiation beam comprised in an energy deposition range [E i,E' i], said determination being obtained either by actual measurement or by a computation based on said model; (iii) repeating step (ii) from i=1 to i=imax for a set of different energy deposition ranges [E i,E' i]; (iv) repeating steps (i), (ii) and (iii) for a range of different beams k of radiation; (v) determining factors L i by solving the coupled set of equations, for all k D k = Σ i = 1 i = imax L i • N k i, - submitting the sensor to the radiation to be measured and determining the deposition spectrum by measuring the counts N i in the energy deposition ranges [E i,E' i]; - determining the dose according to the equation D = Σ i = 1 i = imax L i • N i - performing a calibration operation comprising the steps of (i) producing a beam k of radiation, said beam producing a known dose D k, said beam being either produced physically or simulated with a model; (ii) determining the counts N k i of said radiation beam comprised in an energy deposition range [E i,E' i], said determination being obtained either by actual measurement or by a computation based on said model; (iii) repeating step (ii) from i=1 to i=imax for a set of different energy deposition ranges [E i,E' i]; (iv) repeating steps (i), (ii) and (iii) for a range of different beams k of radiation; (v) determining factors L i by solving the coupled set of equations, for all k D k = Σ i = 1 i = imax L i • N k i, (i) producing a beam k of radiation, said beam producing a known dose D k, said beam being either produced physically or simulated with a model; (ii) determining the counts N k i of said radiation beam comprised in an energy deposition range [E i,E' i], said determination being obtained either by actual measurement or by a computation based on said model; (iii) repeating step (ii) from i=1 to i=imax for a set of different energy deposition ranges [E i,E' i]; (iv) repeating steps (i), (ii) and (iii) for a range of different beams k of radiation; (v) determining factors L i by solving the coupled set of equations, for all k D k = Σ i = 1 i = imax L i • N k i, - submitting the sensor to the radiation to be measured and determining the deposition spectrum by measuring the counts N i in the energy deposition ranges [E i,E' i]; - determining the dose according to the equation D = Σ i = 1 i = imax L i • N i
A method for diagnosing stage 1 to 5 of renal disease, the method comprising: (a) determining the amount of at least one polypeptide in a canine patient sample, wherein said polypeptide(s) comprise one or more of SEQ ID NO: 1, SEQ ID NO: 2, and SEQ ID NO: 3, and (b) comparing the amount of said at least one polypeptide in the canine patient sample to a control sample, wherein increased levels of said polypeptide in the canine patient sample versus the control sample is an indication of renal disease. (a) determining the amount of at least one polypeptide in a canine patient sample, wherein said polypeptide(s) comprise one or more of SEQ ID NO: 1, SEQ ID NO: 2, and SEQ ID NO: 3, and (b) comparing the amount of said at least one polypeptide in the canine patient sample to a control sample, wherein increased levels of said polypeptide in the canine patient sample versus the control sample is an indication of renal disease.
A hexagonal boron nitride powder having: an average longer diameter of primary particles in the hexagonal boron nitride powder of 10 μm or less; an average thickness of the primary particles in the hexagonal boron nitride powder of 0.20 μm or more; a ratio of the average longer diameter to the average thickness, [L/D], of 3.0 or more and 5.0 or less; and a content of primary particles having a ratio of a longer diameter to a thickness (d), [l/d], of 3.0 or more and 5.0 or less of 25% or more by number, wherein the hexagonal boron nitride powder comprises an aggregate of two or more primary particles, and when the hexagonal boron nitride powder is put through a sieve having an opening of 106 μm, the hexagonal boron nitride powder passing through the sieve has a 50% volume cumulative particle size D 50 of 25 μm or more and 100 μm or less.
A paging method, for paging a UE through a plurality of small cells, wherein the method comprises: identifying a first small cell where the UE is currently registered; obtaining a physical neighbor list according to the first small cell, wherein the physical neighbor list comprises part of the plurality of small cells which are spatially neighboring the first small cell; obtaining an activity neighbor list according to the first small cell, wherein the activity neighbor list comprises part of the plurality of small cells which have UE activity trajectories connected to the first small cell; and paging the UE according to the physical neighbor list and the activity neighbor list; wherein the step of paging the UE according to the physical neighbor list and the activity neighbor list comprises: setting a threshold value according to a paging count for the UE; determining a paging cell list according to the threshold value; and paging the UE according to the paging cell list, wherein the activity neighbor list further comprises an activity value corresponding to each small cell, wherein the activity value represents a respective UE activity frequency from the first small cell to each small cell, and the step of determining the paging cell list comprises: selecting part of the plurality of small cells in descending order of the activity value to be a plurality of candidate activity neighbor cells, wherein a ratio of a first sum to a second sum is greater than or equal to the threshold value, the first sum being a sum of the activity values corresponding to the plurality of candidate activity neighbor cells, the second sum being a sum of the activity values corresponding to all small cells in the activity neighbor list. identifying a first small cell where the UE is currently registered; obtaining a physical neighbor list according to the first small cell, wherein the physical neighbor list comprises part of the plurality of small cells which are spatially neighboring the first small cell; obtaining an activity neighbor list according to the first small cell, wherein the activity neighbor list comprises part of the plurality of small cells which have UE activity trajectories connected to the first small cell; and paging the UE according to the physical neighbor list and the activity neighbor list; setting a threshold value according to a paging count for the UE; determining a paging cell list according to the threshold value; and paging the UE according to the paging cell list,
A device comprising: a wireless communications module to enable a peer-to-peer wireless connection with one or more other devices, to send willingness requests over the peer-to-peer wireless connection, and to receive responses to the willingness requests; a ranking module to rank the responses to the willingness requests, to select a group owner for the peer-to-peer wireless connection, and to select one or more subsequent group owners for the peer-to-peer wireless connection based at least in part on the ranking; and a transition module to assume a group owner role for the peer-to-peer wireless connection based on the selection of the one or more subsequent group owners if the device detects that a group owner device is disconnected from the peer-to-peer wireless connection; wherein detecting that the group owner device is disconnected from the peer-to-peer wireless connection is based at least in part on the device not receiving the group owner beacon within a delivery time window. a wireless communications module to enable a peer-to-peer wireless connection with one or more other devices, to send willingness requests over the peer-to-peer wireless connection, and to receive responses to the willingness requests; a ranking module to rank the responses to the willingness requests, to select a group owner for the peer-to-peer wireless connection, and to select one or more subsequent group owners for the peer-to-peer wireless connection based at least in part on the ranking; and a transition module to assume a group owner role for the peer-to-peer wireless connection based on the selection of the one or more subsequent group owners if the device detects that a group owner device is disconnected from the peer-to-peer wireless connection; wherein detecting that the group owner device is disconnected from the peer-to-peer wireless connection is based at least in part on the device not receiving the group owner beacon within a delivery time window.
An Fe-Ni alloy seamless pipe stock, having a chemical composition consisting of, by mass %, • C: not more than 0.04%, • Si: not more than 0.50%, • Mn: 0.01 to 6.0%, • P: not more than 0.03%, • S: not more than 0.01 %, • Cr: 20 to 30%, • Ni 30 to 45 %, • Mo: 0 to 10 %, • W: 0 to 20%, • Cu: 0.01 to 1.5%, • Al: not more than 0.10%, • N: 0.0005 to 0.20%, and optionally one or more elements selected from among • V: 0.001 to 0.3%, • Nb: 0.001 to 0.3%, • Ta 0.001 to 1.0%, • Ti: 0.001 to 1.0%, • Zr: 0.001 to 1.0%, • Hf: 0.001 to 1.0%, • B: 0.0001 to 0.015%, • Co: 0.3 to 5.0%, • Mg: 0.0001 to 0.010%, • Ca: 0.0001 to 0.010%, • La: 0.0001 to 0.20%, • Ce: 0.0001 to 0.20%, • Y: 0.0001 to 0.40%, • Sm: 0.0001 to 0.40%, • Pr: 0.0001 to 0.40% and • Nd: 0.0001 to 0.50%; the balance being Fe and imparities, with Mo(%) + 0.5W(%): more than 1.5% to not more than 10%, and with values of T GBm, P sr and P σ represented by the following equations to being not less than 1300, not more than 90 and not less than 0, respectively, and moreover being subjected to piercing and rolling by a Mannesmann piercing and rolling mill: T GBm = 1440 - 6000 ⁢ P - 100 ⁢ S - 2000 ⁢ C P sr = Ni + 10 ⁢ Mo + 0.5 ⁢ W + 100 ⁢ N P σ = Ni - 35 + 10 ⁢ N - 0.1 - 2 ⁢ Cr - 25 - 5 ⁢ Mo + 0.5 ⁢ W - 3 + 8 wherein each element symbol in the equations to represents the content by mass% of the element concerned. • C: not more than 0.04%, • Si: not more than 0.50%, • Mn: 0.01 to 6.0%, • P: not more than 0.03%, • S: not more than 0.01 %, • Cr: 20 to 30%, • Ni 30 to 45 %, • Mo: 0 to 10 %, • W: 0 to 20%, • Cu: 0.01 to 1.5%, • Al: not more than 0.10%, • N: 0.0005 to 0.20%, • V: 0.001 to 0.3%, • Nb: 0.001 to 0.3%, • Ta 0.001 to 1.0%, • Ti: 0.001 to 1.0%, • Zr: 0.001 to 1.0%, • Hf: 0.001 to 1.0%, • B: 0.0001 to 0.015%, • Co: 0.3 to 5.0%, • Mg: 0.0001 to 0.010%, • Ca: 0.0001 to 0.010%, • La: 0.0001 to 0.20%, • Ce: 0.0001 to 0.20%, • Y: 0.0001 to 0.40%, • Sm: 0.0001 to 0.40%, • Pr: 0.0001 to 0.40% and • Nd: 0.0001 to 0.50%;
A method of operating a wind turbine comprising a power generator, a machine side converter connected to the power generator, a line side converter connected to a power grid through the power components, and a DC-link connected between the machine side converter and the line side converter, the method comprising: - monitoring the power grid for overvoltage events, - if an overvoltage event is detected, - disabling active operation of the machine side converter and of the line side converter, - enabling an AC load dump connected between the machine side converter and the power generator in order to dissipate power output from the power generator into the AC load dump, characterised in that there is a - waiting for a waiting period, and - enabling active operation of the line side converter and the machine side converter if the overvoltage event ends within the waiting period. - monitoring the power grid for overvoltage events, - if an overvoltage event is detected, - disabling active operation of the machine side converter and of the line side converter, - enabling an AC load dump connected between the machine side converter and the power generator in order to dissipate power output from the power generator into the AC load dump, characterised in that there is a - waiting for a waiting period, and - enabling active operation of the line side converter and the machine side converter if the overvoltage event ends within the waiting period. - waiting for a waiting period, and - enabling active operation of the line side converter and the machine side converter if the overvoltage event ends within the waiting period.
A core for a composite structure, the core comprising: a first core layer; a second core layer; and a ground plane between the first and second core layers; wherein a plurality of slits is provided in the core, characterized in that each slit extends through one of the first or second core layers and through the ground plane.
An irradiation module for use in a device for irradiation with medical-cosmetic radiation, comprising a plurality of LEDs (42; 43) arranged on a carrier, a first group of first LEDs, which emit radiation in the UVA spectrum, and a second group of second LEDs, which emit radiation in the UVB spectrum, being arranged on the carrier, and the first LEDs making up between 50% and 90% of the total from the first and second LEDs, and the second LEDs making up between 50% and 10% of the total from the first and second LEDs, characterized in that the carrier is connected to a heat-transfer plate, and in that a reflector is assigned to each LED (42; 43), which reflector is connected to the carrier, in that the reflectors extending from the LEDs (42; 43) in a tapering manner are arranged as a field in a common modular unit, and in that the modular unit, the carrier, and the heat-transfer plate are interconnected. a first group of first LEDs, which emit radiation in the UVA spectrum, and a second group of second LEDs, which emit radiation in the UVB spectrum, being arranged on the carrier, and the first LEDs making up between 50% and 90% of the total from the first and second LEDs, and the second LEDs making up between 50% and 10% of the total from the first and second LEDs, characterized in that the carrier is connected to a heat-transfer plate, and in that a reflector is assigned to each LED (42; 43), which reflector is connected to the carrier, in that the reflectors extending from the LEDs (42; 43) in a tapering manner are arranged as a field in a common modular unit, and in that the modular unit, the carrier, and the heat-transfer plate are interconnected.
An optical sensor having at least one transmitter, at least one receiver and a data evaluation unit, it being checked in the data evaluation unit, on the basis of received signals present at the output of the receiver, whether a sequence, forming a coding, of light pulses emitted by the transmitter is registered in the receiver and a binary switching signal is generated as a function thereof, characterised in that a synchronisation unit is provided, by means of which said at least one transmitter and said at least one receiver are activated synchronously in time within predetermined cycles, wherein within a cycle said or a transmitter emits a sequence of light pulses, in that the light pulses emitted by the transmitter are inverted relative to one another and/or shifted in time in different cycles, and in that an extraneous light evaluation unit is provided which, in order to detect extraneous light within a cycle, evaluates the received signals of the receiver only in the time intervals in which no light pulses are emitted by the transmitter.
A method of manufacturing a wind turbine blade, comprising: performing spar cap formation which includes: forming a first-type spar cap (151, 251) by stacking support plates (161, 362) including reinforcing fibers on a mold (177, 377) and injecting a resin into the mold (177, 377) to bond the support plates (161, 362) by a resin bonding layer, and forming a second-type spar cap (152, 252) by stacking reinforcing fiber sheets on a mold (174, 177, 377) and injecting a resin in a state in which the reinforcing fiber sheets are wrapped with a cover; performing shell formation in which a pressure side shell and a suction side shell are formed by injecting a resin in a state in which the first-type spar cap (151, 251), the second-type spar cap (152, 252), and a core panel are disposed between an inner skin and an outer skin, the inner skin and the outer skin being made of fiber-reinforced plastic; and performing shell assembly in which the pressure side shell is joined to the suction side shell. performing spar cap formation which includes: forming a first-type spar cap (151, 251) by stacking support plates (161, 362) including reinforcing fibers on a mold (177, 377) and injecting a resin into the mold (177, 377) to bond the support plates (161, 362) by a resin bonding layer, and forming a second-type spar cap (152, 252) by stacking reinforcing fiber sheets on a mold (174, 177, 377) and injecting a resin in a state in which the reinforcing fiber sheets are wrapped with a cover; forming a first-type spar cap (151, 251) by stacking support plates (161, 362) including reinforcing fibers on a mold (177, 377) and injecting a resin into the mold (177, 377) to bond the support plates (161, 362) by a resin bonding layer, and forming a second-type spar cap (152, 252) by stacking reinforcing fiber sheets on a mold (174, 177, 377) and injecting a resin in a state in which the reinforcing fiber sheets are wrapped with a cover; performing shell formation in which a pressure side shell and a suction side shell are formed by injecting a resin in a state in which the first-type spar cap (151, 251), the second-type spar cap (152, 252), and a core panel are disposed between an inner skin and an outer skin, the inner skin and the outer skin being made of fiber-reinforced plastic; and performing shell assembly in which the pressure side shell is joined to the suction side shell.
An optical connector comprising: a ferrule comprising a first surface and a plurality of bores extending from the first surface; a waveguide support coupled to the ferrule, the waveguide support comprising a chip coupling surface (112, 118); a plurality of first waveguides disposed within the plurality of bores of the ferrule and each having a first end and a second end opposite the first end, wherein the first ends of the plurality of first waveguides are exposed at the first surface of the ferrule and define a first pitch; and a plurality of second waveguides at least partially supported by the waveguide support, the plurality of second waveguides each having a first end and a second end opposite the first end, wherein the second ends of the plurality of second waveguides are optically coupled to the second ends of the plurality of first waveguides, wherein the first ends of the plurality of second waveguides are exposed at the chip coupling surface of the waveguide support and define a second pitch that is the same as or smaller than the first pitch. a ferrule comprising a first surface and a plurality of bores extending from the first surface; a waveguide support coupled to the ferrule, the waveguide support comprising a chip coupling surface (112, 118); a plurality of first waveguides disposed within the plurality of bores of the ferrule and each having a first end and a second end opposite the first end, wherein the first ends of the plurality of first waveguides are exposed at the first surface of the ferrule and define a first pitch; and a plurality of second waveguides at least partially supported by the waveguide support, the plurality of second waveguides each having a first end and a second end opposite the first end, wherein the second ends of the plurality of second waveguides are optically coupled to the second ends of the plurality of first waveguides, wherein the first ends of the plurality of second waveguides are exposed at the chip coupling surface of the waveguide support and define a second pitch that is the same as or smaller than the first pitch.
A watercraft propulsion system comprising: a first propulsion device (EMs, EMp) configured to be attachable to a hull of a watercraft in a steerable manner; a second propulsion device (EMp, EMs) configured to be attachable to the hull in a steerable manner; a first steering device configured to steer the first propulsion device (EMs, EMp); a second steering device configured to steer the second propulsion device (EMp, EMs); and Z r charactered in that it further comprises a controller configured or programmed to control the first propulsion device (EMs, EMp), the second propulsion device (EMp, EMs), the first steering device, and the second steering device, and configured or programmed to determine whether or not a predetermined load torque increase condition is satisfied in which a steering load torque of the second propulsion device (EMp, EMs) is likely to be increased by a water jet generated by the first propulsion device (EMs, EMp), and to perform a propulsive force restricting control to restrict a propulsive force of the first propulsion device (EMs, EMp) and a propulsive force of the second propulsion device (EMp, EMs) if it is determined that the predetermined load torque increase condition is satisfied. a first propulsion device (EMs, EMp) configured to be attachable to a hull of a watercraft in a steerable manner; a second propulsion device (EMp, EMs) configured to be attachable to the hull in a steerable manner; a first steering device configured to steer the first propulsion device (EMs, EMp); a second steering device configured to steer the second propulsion device (EMp, EMs); and Z r charactered in that it further comprises a controller configured or programmed to control the first propulsion device (EMs, EMp), the second propulsion device (EMp, EMs), the first steering device, and the second steering device, and configured or programmed to determine whether or not a predetermined load torque increase condition is satisfied in which a steering load torque of the second propulsion device (EMp, EMs) is likely to be increased by a water jet generated by the first propulsion device (EMs, EMp), and to perform a propulsive force restricting control to restrict a propulsive force of the first propulsion device (EMs, EMp) and a propulsive force of the second propulsion device (EMp, EMs) if it is determined that the predetermined load torque increase condition is satisfied.
Electrical circuit arrangement inserted in a signal path from a component with a lower voltage level to a component with a higher voltage level in a multi-voltage onboard electrical system with at least two different voltage levels and at least one signal path between components of the electrical system characterized in, that the circuit arrangement comprises: a second switch, third and fourth resistors (R3,R4), a second and a third current-mirror-circuit (CM2, CM3), and a second diode, whereby the second switch is arranged between a first contact of the third resistor and the positive pole of the higher voltage system control voltage (BN48 +SV) and its control input is connected with the input of the circuit arrangement, whereby a second contact of the third resistor is connected with a control input of the second current-mirror-circuit, which is arranged between the ground of the high voltage system (BN48 GND) and the negative pole of a second diode which is connected with its positive pole to the control input of the third current-mirror-circuit, which is arranged between the positive pole of a control voltage of the low voltage system (BN12 +SV) and a first contact of a fourth resistor, which is connected with its second contact to the ground of the lower voltage system (BN12 GND), the first contact of the fourth resistor is also connected to the output of the circuit arrangement.