mhurhangee/ep-ind-claims huggingface dataset:
A method of policy negotiation over a network, the method comprising the following steps performed by a provider node (10, 12): a. transmitting a plurality of policy alternatives to a client node (14, 16); b. receiving a selection of at least one policy from the plurality of policy alternatives from the client node (14, 16); and c. verifying the selection of at least one policy based on the plurality of policy alternatives; characterized in that the provider node (10, 12) initiates a policy negotiation with the client node (14, 16) if the policy alternative selected by the client node (14, 16) cannot be determined based on a protocol-level manifestation of the policy alternative. a. transmitting a plurality of policy alternatives to a client node (14, 16); b. receiving a selection of at least one policy from the plurality of policy alternatives from the client node (14, 16); and c. verifying the selection of at least one policy based on the plurality of policy alternatives;
An agricultural machine with a NIR sensor which is configured to detect NIR spectra of plant material and to output as raw data, an evaluation unit for deriving at least one parameter of the plant material in real time from the raw data, and an interface for data communication with at least one data processing unit externally of the machine, characterized in that the interface is configured to transmit the raw data comprising the NIR spectra to the data processing unit.
A method of fabricating a gas turbine component having active cooling, comprising the following steps in order: providing a component including at least one aperture disposed on a surface of the component and fluidly connected to at least one fluid flow passage, the at least one aperture comprising a floor extending from the at least one fluid flow passage to the surface of the component, and a ceiling facing the floor, wherein the ceiling includes a surface that extends opposite the floor and forms an exposed hood with the surface of the component; applying a thermal barrier coating over at least a portion of the surface; removing a portion of the thermal barrier coating covering the at least one aperture; forming with an additive manufacturing process an individual sharp-edged hood for the or each of the at least one aperture providing a component including at least one aperture disposed on a surface of the component and fluidly connected to at least one fluid flow passage, the at least one aperture comprising a floor extending from the at least one fluid flow passage to the surface of the component, and a ceiling facing the floor, wherein the ceiling includes a surface that extends opposite the floor and forms an exposed hood with the surface of the component; applying a thermal barrier coating over at least a portion of the surface; removing a portion of the thermal barrier coating covering the at least one aperture; forming with an additive manufacturing process an individual sharp-edged hood for the or each of the at least one aperture
A seal structure for a tank comprising: a core formed from a lamination of a large number of flat tubes where a cross section of an outer periphery at an end part is formed into a rectangular shape; a casing fitted onto the outer periphery of the core, having a rectangular opening at the end part; a tank receiver positioned in alignment with an inner periphery of the open end part of the casing, formed in a planar frame shape and crank-like in cross section; an annular groove formed between the tank receiver and the casing; and a tank having an end part press fitted inside the annular groove with a seal material, having an outer periphery swaged and thereby secured characterized in that: open end parts of each of the flat tubes are expanded in a thickness direction to form expanded parts (lb); and the expanded parts of adjacent flat tubes are in contact with each other and laminated to form the core. a core formed from a lamination of a large number of flat tubes where a cross section of an outer periphery at an end part is formed into a rectangular shape; a casing fitted onto the outer periphery of the core, having a rectangular opening at the end part; a tank receiver positioned in alignment with an inner periphery of the open end part of the casing, formed in a planar frame shape and crank-like in cross section; an annular groove formed between the tank receiver and the casing; and a tank having an end part press fitted inside the annular groove with a seal material, having an outer periphery swaged and thereby secured characterized in that: open end parts of each of the flat tubes are expanded in a thickness direction to form expanded parts (lb); and the expanded parts of adjacent flat tubes are in contact with each other and laminated to form the core. open end parts of each of the flat tubes are expanded in a thickness direction to form expanded parts (lb); and the expanded parts of adjacent flat tubes are in contact with each other and laminated to form the core.
A PD-L1 binding antagonist for use in treating a patient suffering from a non-small cell lung cancer, wherein a tumor sample obtained from the patient has been determined to have a detectable expression level of PD-L1 in 50% or more of the tumor cells in the tumor sample, and wherein the PD-L1 binding antagonist is an antibody.
Method for designing a cannula for a patient, wherein a processing unit is configured to implement following steps: a) generating a 2D or 3D numerical representation of the trachea of the patient in at least one position of the patient, b) identifying a set of anatomical landmarks of the patient, c) considering a 2D or 3D numerical representation of a cannula based at least on said landmarks, d) numerically simulating, based on said 2D or 3D numerical representation of the trachea and said 2D or 3D numerical representation of the cannula, all or a part of an insertion of the cannula into the trachea, e) estimating at least one reciprocal conflict metric between the cannula and the trachea during the insertion, f) changing the cannula when the estimated conflict metric does not meet predetermined conflict criterion, and iterating the preceding steps c) to e) until a cannula is found for which said estimated conflict metric meets the predetermined conflict criterion, g) generating data for producing said cannula for which the estimated conflict metric meets the predetermined conflict criterion. a) generating a 2D or 3D numerical representation of the trachea of the patient in at least one position of the patient, b) identifying a set of anatomical landmarks of the patient, c) considering a 2D or 3D numerical representation of a cannula based at least on said landmarks, d) numerically simulating, based on said 2D or 3D numerical representation of the trachea and said 2D or 3D numerical representation of the cannula, all or a part of an insertion of the cannula into the trachea, e) estimating at least one reciprocal conflict metric between the cannula and the trachea during the insertion, f) changing the cannula when the estimated conflict metric does not meet predetermined conflict criterion, and iterating the preceding steps c) to e) until a cannula is found for which said estimated conflict metric meets the predetermined conflict criterion, g) generating data for producing said cannula for which the estimated conflict metric meets the predetermined conflict criterion.
Storage container for liquid material, in particular for use on a spray gun, having a paint cup which has preferably at least one transparent or translucent side wall, provided preferably with at least one mixing scale, and a base which has preferably a ventilating mechanism and preferably a supporting edge, having a closure lid which is able to be placed on the paint cup and on which at least one cap element is releasably attached preferably via at least one film hinge, and which has a preferably tubular extension for direct or indirect attachment to the spray gun body, wherein an air feed into the storage container is provided in the region of the extension, to which end, a plug or the like is provided in the extension, said plug or the like having at least one material cutout, wherein the extension is configured in a tubular manner and the plug is configured in a substantially hollow-cylindrical manner, characterized in that the plug is configured with an outside diameter which is designed to match the inside diameter of the tubular extension such that the plug can bear against the inner wall of the extension at least regionally, virtually along its entire length, and in that the at least one material cutout is configured as a recess or hole in the plug.
A first composition comprising a first liposome comprising a therapeutic agent, and a second composition comprising a lipid nanoparticle comprising a non-ionic triggering agent, for sequential or concurrent use in delivering a therapeutic agent to a subject; wherein the non-ionic triggering agent is selected from the group consisting of: D-α-tocopheryl polyethylene glycol succinate (TPGS), polyoxyethylene 40 stearate, polyethylene glycol p-(1,1,3,3-tetramethylbutyl)-phenyl ether, polyoxyethylene isooctylphenyl ether, polyoxyethylene dinonylphenyl ether, dodecanoic acid 2,3-dihydroxypropyl ester, polyoxyethylene sorbitan monolaurate, polyoxyethylene sorbitan monopalmitate, polyoxyethylene sorbitan monostearate, and polyoxyethylene sorbitan monooleate; whereby release of the therapeutic agent from the liposome following use of the lipid nanoparticle is increased, relative to the release of the therapeutic agent from the liposome without use of the lipid nanoparticle.
A use of a bovine recombinant FSH (rFSH) analog or a composition comprising a bovine recombinant rFSH analog to increase reproductive performance in a bovine, wherein said bovine recombinant rFSH analog comprises an amino acid sequence represented by SEQ ID NO 3 and said rFSH analog is administered to said bovine after follicle synchronization, in one single administration at a dose of 50 μg.
A lighting device comprising: an elongated extrusion comprising a first surface and a second surface proximate said first surface, said first surface being angled with respect to said second surface, said second surface being substantially reflective; an integrated reflector on said second surface comprising a movable portion that is separate from the elongated extrusion; and one or more light emitting devices mounted at said first surface of said extrusion and configured such that at least a portion of said light emitted from said one or more light emitting devices is directed towards said second surface, the angle of said integrated reflector with respect to said first surface being customizable to either focus or broaden the spectrum of the light emitted from said light emitting devices; whereby the lighting device further comprises one or more end caps (30, 31) for sealing ends of the elongated extrusion, said elongated extrusion comprising second flanges and second indentations that correspond to first flanges and first indentations formed in said one or more end caps (30, 31), and whereby said one or more end caps (30, 31) further comprise an angle adjustment portion configured to customize the angle of said integrated reflector with respect to said first surface. an elongated extrusion comprising a first surface and a second surface proximate said first surface, said first surface being angled with respect to said second surface, said second surface being substantially reflective; an integrated reflector on said second surface comprising a movable portion that is separate from the elongated extrusion; and one or more light emitting devices mounted at said first surface of said extrusion and configured such that at least a portion of said light emitted from said one or more light emitting devices is directed towards said second surface, the angle of said integrated reflector with respect to said first surface being customizable to either focus or broaden the spectrum of the light emitted from said light emitting devices; whereby the lighting device further comprises one or more end caps (30, 31) for sealing ends of the elongated extrusion, said elongated extrusion comprising second flanges and second indentations that correspond to first flanges and first indentations formed in said one or more end caps (30, 31), and whereby said one or more end caps (30, 31) further comprise an angle adjustment portion configured to customize the angle of said integrated reflector with respect to said first surface.
A system for CO 2 capturing in a gas turbine based power generation system 1, the system comprising a combined cycle power plant 2 and a carbonate looping unit 3 wherein the carbonate looping unit 3 comprises: a first reactor 20 comprising solid material able to capture the CO 2 present in the flue gas, such that a metal carbonate is formed; and a second reactor 30 arranged to release CO 2 by decarbonation of the metal carbonate at elevated temperature, wherein a part of the CO 2 stream from the second reactor 30 is recycled, optionally after cooling, to the inlet of the combined cycle power plant 2. a first reactor 20 comprising solid material able to capture the CO 2 present in the flue gas, such that a metal carbonate is formed; and a second reactor 30 arranged to release CO 2 by decarbonation of the metal carbonate at elevated temperature, wherein a part of the CO 2 stream from the second reactor 30 is recycled, optionally after cooling, to the inlet of the combined cycle power plant 2.
A method of forming a visible flexible facing layer for creating a visible appearance of a facing wall-surface of a walled structure, the method comprising the steps of: a] providing a flexible porous support substrate on a support; b] creating a wet mixture using a powdered aggregate formed at least in part from solid particulate material and mixed with a binding agent; c] applying the wet mixture to the flexible support substrate using a control template to form a plurality of spaced-apart wall-tile slips which at least in part permeate the flexible porous support substrate; and characterised by the steps of: d] curing the wall-tile slips to the flexible porous support substrate to form a tile sheet of the visible flexible facing layer having flexible wall-tile slips, wherein the wall-tile slips remain flexible once set; and e] folding, rolling or furling the visible flexible facing layer for storage and/or transportation. a] providing a flexible porous support substrate on a support; b] creating a wet mixture using a powdered aggregate formed at least in part from solid particulate material and mixed with a binding agent; c] applying the wet mixture to the flexible support substrate using a control template to form a plurality of spaced-apart wall-tile slips which at least in part permeate the flexible porous support substrate; and characterised by the steps of: d] curing the wall-tile slips to the flexible porous support substrate to form a tile sheet of the visible flexible facing layer having flexible wall-tile slips, wherein the wall-tile slips remain flexible once set; and e] folding, rolling or furling the visible flexible facing layer for storage and/or transportation.
A method for communicating performed by a base station, BS, in a wireless communication system, the method comprising: transmitting, to a user equipment, UE, by the BS, a primary synchronization signal, PSS; and transmitting, to the UE by the BS, a secondary synchronization signal, SSS, based on a first M-sequence multiplied by a second M-sequence, the first M-sequence is based on a first shift index and the second M-sequence is based on a second shift index, wherein the first shift index is equal to K*(3 floor(NID /112) + NID), and wherein the second shift index is equal to NID mod 112, where NID is a first cell identifier, NID is a second cell identifier, and K is an integer greater than 3. transmitting, to a user equipment, UE, by the BS, a primary synchronization signal, PSS; and transmitting, to the UE by the BS, a secondary synchronization signal, SSS, based on a first M-sequence multiplied by a second M-sequence, the first M-sequence is based on a first shift index and the second M-sequence is based on a second shift index, wherein the first shift index is equal to K*(3 floor(NID /112) + NID), and wherein the second shift index is equal to NID mod 112, where NID is a first cell identifier, NID is a second cell identifier, and K is an integer greater than 3.
Device comprising a shrink film sleeve assembly for applying a shrink film sleeve (102, 202) to a container, the shrink film sleeve assembly comprising: an unfolding apparatus, in particular an unfolding mandrel, for unfolding a perforated shrink film tube; at least one conveyor roller (120a, 320a, 320b) for transporting the unfolded shrink film tube along the axial direction of the unfolding apparatus; and at least one tear-off roller (130a, 130b, 330a, 330b) for tearing off a shrink film sleeve (102, 202) from the unfolded shrink film tube using tensile stress; the tear-off roller (130a, 130b, 330a, 330b) being arranged offset relative to the conveyor roller (120a, 320a, 320b) in the circumferential direction and in the axial direction of the unfolding apparatus; the tear-off roller (130a, 130b, 330a, 330b) being offset relative to the conveyor roller (120a, 320a, 320b) by at least 30° and at most 90° in the circumferential direction of the unfolding apparatus; and the conveyor roller (120a, 320a, 320b) having a first radius and the tear-off roller (130a, 130b, 330a, 330b) having a second radius, characterised in that, the tear-off roller (130a, 130b, 330a, 330b) is offset relative to the conveyor roller (120a, 320a, 320b) by a distance in the axial direction of the unfolding apparatus that is less than or equal to the sum of the first and the second radius. an unfolding apparatus, in particular an unfolding mandrel, for unfolding a perforated shrink film tube; at least one conveyor roller (120a, 320a, 320b) for transporting the unfolded shrink film tube along the axial direction of the unfolding apparatus; and at least one tear-off roller (130a, 130b, 330a, 330b) for tearing off a shrink film sleeve (102, 202) from the unfolded shrink film tube using tensile stress; the tear-off roller (130a, 130b, 330a, 330b) being arranged offset relative to the conveyor roller (120a, 320a, 320b) in the circumferential direction and in the axial direction of the unfolding apparatus; the tear-off roller (130a, 130b, 330a, 330b) being offset relative to the conveyor roller (120a, 320a, 320b) by at least 30° and at most 90° in the circumferential direction of the unfolding apparatus; and the conveyor roller (120a, 320a, 320b) having a first radius and the tear-off roller (130a, 130b, 330a, 330b) having a second radius, characterised in that, the tear-off roller (130a, 130b, 330a, 330b) is offset relative to the conveyor roller (120a, 320a, 320b) by a distance in the axial direction of the unfolding apparatus that is less than or equal to the sum of the first and the second radius.
Elastomer hollow body, in particular elastomer hose, for conducting and/or receiving liquid, gaseous and/or pasty media, having a sensor element for detecting a pressure, wherein the sensor element comprises an elastomer material with a pressure-dependent electrical capacitance, the magnitude of which can be detected, characterized in that the sensor element has two electrodes (12c, 12d) which are situated opposite one another and which are at a distance form one another in the longitudinal direction of the elastomer hollow body.
A semiconductor switching element drive circuit comprising: a semiconductor configured to pass main current between a first terminal and a second terminal thereof when voltage is imposed to a gate terminal thereof; an over current protection circuit configured to judge that the main current is judged to become over current exceeding a predetermined current value for a certain period when one of current value and voltage value proportional to an amplitude of the main current exceeds a threshold value (vt), and then the over current protection circuit decreasing the main current; and a short circuit protection circuit configured to decrease the gate voltage imposed to the gate terminal earlier than a fall of the main current produced by the over current protection circuit, characterised by a threshold value change circuit configured to decrease the threshold value when the short circuit protection circuit is activated to decrease the main current. a semiconductor configured to pass main current between a first terminal and a second terminal thereof when voltage is imposed to a gate terminal thereof; an over current protection circuit configured to judge that the main current is judged to become over current exceeding a predetermined current value for a certain period when one of current value and voltage value proportional to an amplitude of the main current exceeds a threshold value (vt), and then the over current protection circuit decreasing the main current; and a short circuit protection circuit configured to decrease the gate voltage imposed to the gate terminal earlier than a fall of the main current produced by the over current protection circuit, characterised by a threshold value change circuit configured to decrease the threshold value when the short circuit protection circuit is activated to decrease the main current.
A method of detecting thawing-induced compaction and deformation in a frozen subsurface geological structure by monitoring the frozen subsurface geological structure, the method comprising: a) obtaining seismic data relating to the frozen subsurface geological structure, comprising emitting seismic shots from a seismic source, wherein the frequency is varied until a maximum frequency of 20Hz is reached; and receiving and recording Rayleigh waves by lines of or a grid of receivers; b) estimating travel time or phase delay or both of Rayleigh waves in the seismic data at a central frequency to provide a frequency-specific phase delay and/or horizontal slice of travel time; c) determining the seismic velocity of shear waves for each slice by tomography to obtain a slice of seismic velocity at the central frequency; d) repeating steps b) to c) for a range of central frequencies; and e) inverting the slices of velocities to slices of depth for the range of central frequencies by dispersion inversion to obtain 3-D velocity cube in depth; and f) repeating steps a) to e) after a period of time and comparing the slices of depth over the period of time to determine the presence of the anomaly, the location of the anomaly, and the progression of the anomaly; wherein the anomaly is indicating a thawing induced compaction and deformation and is identified with a slower velocity compared to surrounding structure. a) obtaining seismic data relating to the frozen subsurface geological structure, comprising emitting seismic shots from a seismic source, wherein the frequency is varied until a maximum frequency of 20Hz is reached; and receiving and recording Rayleigh waves by lines of or a grid of receivers; b) estimating travel time or phase delay or both of Rayleigh waves in the seismic data at a central frequency to provide a frequency-specific phase delay and/or horizontal slice of travel time; c) determining the seismic velocity of shear waves for each slice by tomography to obtain a slice of seismic velocity at the central frequency; d) repeating steps b) to c) for a range of central frequencies; and e) inverting the slices of velocities to slices of depth for the range of central frequencies by dispersion inversion to obtain 3-D velocity cube in depth; and f) repeating steps a) to e) after a period of time and comparing the slices of depth over the period of time to determine the presence of the anomaly, the location of the anomaly, and the progression of the anomaly; wherein the anomaly is indicating a thawing induced compaction and deformation and is identified with a slower velocity compared to surrounding structure.