mhurhangee/ep-ind-claims huggingface dataset:
A scheduling method for processing tasks, the execution of which is conditioned by an order of precedence, the processing of a task comprising a step for configuring resources required for executing the task and a step for executing the task on the thereby configured resources, characterized in that it comprises: - a selection of at least one level of independent tasks to be processed, in accordance with the order of precedence, the processing of a task level of rank G begins as soon as all the tasks of the task level of rank G-1 which precedes the task level of rank G, have been configured, - a step for sorting out the tasks at the level of the tasks to be processed in order to define an order of priority in the processing of the tasks, depending on the number of resources required for processing the tasks on the one hand and on a quantity characteristic of the tasks on the other hand, - an evaluation of the number of available resources for processing the tasks at the task level, and - an assignment of the tasks at the task level to the available resources according to the order of priority. - a selection of at least one level of independent tasks to be processed, in accordance with the order of precedence, the processing of a task level of rank G begins as soon as all the tasks of the task level of rank G-1 which precedes the task level of rank G, have been configured, - a step for sorting out the tasks at the level of the tasks to be processed in order to define an order of priority in the processing of the tasks, depending on the number of resources required for processing the tasks on the one hand and on a quantity characteristic of the tasks on the other hand, - an evaluation of the number of available resources for processing the tasks at the task level, and - an assignment of the tasks at the task level to the available resources according to the order of priority.
Illumination method in a machine vision application, wherein a light source, preferably at least one light-emitting diode, of an illumination means emits light and wherein the intensity (Int) of the emitted light is regulated by an electric current (i) and/or electric voltage emitted to the light source by a control unit, wherein independently of the control unit, at least one performance variable (G_ist) of the light source, the performance variable (G_ist) correlating to the intensity (Int), is captured and compared to at least one limit value, and wherein as soon as the at least one performance variable (G_ist) reaches or exceeds the at least one limit value, an action is triggered with which the intensity (Int) is reduced independently of the control unit, characterized in that the intensity (Int) itself and/or the electric current (i) and/or the electric voltage (u) is used as the at least one performance variable (G_ist).
A method of detecting outlier cells based on positioning of a user equipment, UE, comprising: determining a set of a plurality of cells detectable by the UE; calculating a plurality of location estimates for the UE based on positioning measurements of a corresponding plurality of subsets of the plurality of cells; identifying a subset of cells of the plurality of subsets that provides a best location estimate for the UE of the plurality of location estimates, wherein the best location estimate maximizes a set of inlier cells of the plurality of cells, and wherein the set of inlier cells comprises one or more cells of the plurality of cells, other than the subset of cells, for which actual positioning measurements of the one or more cells are within a threshold of expected positioning measurements of the one or more cells; calculating a final location estimate for the UE based on positioning measurements of the subset of cells and the set of inlier cells; identifying any remaining cells of the plurality of cells other than the subset of cells and the set of inlier cells as at least one outlier cell; and performing a mitigation operation based on identifying the at least one outlier cell. determining a set of a plurality of cells detectable by the UE; calculating a plurality of location estimates for the UE based on positioning measurements of a corresponding plurality of subsets of the plurality of cells; identifying a subset of cells of the plurality of subsets that provides a best location estimate for the UE of the plurality of location estimates, wherein the best location estimate maximizes a set of inlier cells of the plurality of cells, and wherein the set of inlier cells comprises one or more cells of the plurality of cells, other than the subset of cells, for which actual positioning measurements of the one or more cells are within a threshold of expected positioning measurements of the one or more cells; calculating a final location estimate for the UE based on positioning measurements of the subset of cells and the set of inlier cells; identifying any remaining cells of the plurality of cells other than the subset of cells and the set of inlier cells as at least one outlier cell; and performing a mitigation operation based on identifying the at least one outlier cell.
Storage battery with venting system which has combined filters, consisting of plates and box which is composed of a container, a venting lid and a cover, wherein the space between the cover and the venting lid contains a backflow maze structure, wherein the end part of the maze structure which connects to the outside is the venting system, characterized in that a first filter and a second filter are placed in series on the airflow direction, wherein the first filter is placed vertically in the square air chamber, and the first filter and the second filter is surrounded by partitions which separate other parts and form a gas path.
A tandem solar cell in which a perovskite solar cell (130, 230) and a crystalline silicon solar cell (110, 210) are bonded, comprising: a junction layer (120, 220) disposed on a front surface of the crystalline silicon solar cell (110, 220); a perovskite solar cell (130, 230) disposed on a front surface of the junction layer; and a front transparent electrode (150, 250) disposed on a front surface of the perovskite solar cell; characterised by a transparent electrode structure (160, 260) disposed on a front surface of the front transparent electrode and comprising a patterned transparent electrode. a junction layer (120, 220) disposed on a front surface of the crystalline silicon solar cell (110, 220); a perovskite solar cell (130, 230) disposed on a front surface of the junction layer; and a front transparent electrode (150, 250) disposed on a front surface of the perovskite solar cell; characterised by a transparent electrode structure (160, 260) disposed on a front surface of the front transparent electrode and comprising a patterned transparent electrode.
A device for generating energy, from solar radiation, intended for a building, comprising, on the exterior side, at least one first wall composed of translucent photovoltaic panels and, on the interior at a distance from the first wall, a second wall arranged opposite the first wall, a free space being created between the first and the second wall, the energy being generated in the form of electricity by the photovoltaic panels and in the form of heat by the second wall, the photovoltaic panels being translucide photovoltaic panels and the second wall being opaque, dark-colored and recovering some of the radiation which has passed through the first wall, wherein the free space is provided for allowing the circulation of an air flow between the first wall and the second wall so that the photovoltaic panels are cooled and the heated air which is mechanically captured, is used for a thermal or thermodynamic purpose, and wherein the device comprises further means to introduce air in the free space, said means to introduce air including at least one outlet opening in the second wall.
An x-ray generator, comprising a plurality of electron field emitters, the x-ray generator configured to accelerate the electrons by the application of an applied voltage, the x-ray generator further comprising multiple x-ray sources of target material arranged to emit x-ray photons when electrons are incident upon the target material; wherein the x-ray generator includes a means of selectively controlling the x-ray emission of individually activatable x-ray sources to turn off the production of x-rays, the means comprising a plurality of energisable solenoid coils positioned adjacent to the plurality of electron field emitters, and an electronic power and timing circuit configured to provide electrical current to at least one individual solenoid coil; wherein at least one individual solenoid coil is configurable such that when energised, a magnetic field is created causing the path of electrons emitted from the emitter closest to the at least one individual energised solenoid coil to be defocused and/or deflected before the electrons reach the target material; and wherein the target material comprises an interstitial absorption region, the interstitial absorption region being an area that comprises one or more low atomic number materials which effectively do not produce high energy x-rays, and an x-ray photon producing material, the x-ray photon producing material being arranged in a regular pattern, such that, in use, the electrons emitted by the emitter, impinge upon either the x-ray photon producing material when they are deflected and/or defocussed by the energised individual solenoid coil, and upon the interstitial absorption region when they are not deflected and/or defocussed by the individual solenoid coil closest to the emitter, or impinge upon the interstitial absorption region when they are deflected and/or defocussed by the energised individual solenoid coil, and upon the x-ray photon producing material when they are not deflected and/or defocussed by the individual solenoid coil closest to the emitter.
A network element, comprising: a switch fabric; a first service module coupled to the switch fabric; and a second service module coupled to the first service module over the switch fabric, wherein in response to packets of a network transaction received from a client device over a first network to access a server of a data center having a plurality of servers connected to the network element over a second network, the first service module is configured to: perform operations for a first portion of Open System Interconnection, OSI, compatible layers of network processes on the packets; wherein the second service module is configured to perform operations for a second portion of the OSI compatible layers of network processes on the packets, and wherein the first portion includes at least one OSI compatible layer that is not included in the second portion. a switch fabric; a first service module coupled to the switch fabric; and a second service module coupled to the first service module over the switch fabric, wherein in response to packets of a network transaction received from a client device over a first network to access a server of a data center having a plurality of servers connected to the network element over a second network, the first service module is configured to: perform operations for a first portion of Open System Interconnection, OSI, compatible layers of network processes on the packets; wherein the second service module is configured to perform operations for a second portion of the OSI compatible layers of network processes on the packets, and wherein the first portion includes at least one OSI compatible layer that is not included in the second portion.
A method for monitoring a status in form of presence and/or absence of a network entity (NE, NE1, NE2) in a network by a presence service, provided by a presence service entity, said network comprising one or more forwarding elements (ES, S) being configured for recognizing of and applying one or more actions (a) on packets being forwarded by said forwarding elements (ES, S) and one or more network entities (NE, NE1, NE2) wherein said network entities (NE, NE1, NE2) are connected to one or more of the forwarding elements (ES, S), wherein the presence service entity is connected to said network, characterized in that when a network entity (NE, NE1, NE2) subscribed to and discovered by the presence service, said network entity (NE, NE1, NE2) transmits keep-alive messages destined for the presence service, wherein a) when at least one of said one or more forwarding elements, to which said network entity (NE, NE1, NE2) subscribed to the presence service is directly connected, has detected a change in the presence status of the subscribed network entity (NE, NE1, NE2) based on said keep-alive messages of said network entity (NE, NE1, NE2) the presence service is provided with a status update of said connected network entity by said at least one forwarding element and the presence service monitors then the status of said network entity based on said provided status updates and b) keep-alive packets of said network entity (NE, NE1, NE2) destined for the presence service are dropped by said at least one of said one or more forwarding elements. a) when at least one of said one or more forwarding elements, to which said network entity (NE, NE1, NE2) subscribed to the presence service is directly connected, has detected a change in the presence status of the subscribed network entity (NE, NE1, NE2) based on said keep-alive messages of said network entity (NE, NE1, NE2) the presence service is provided with a status update of said connected network entity by said at least one forwarding element and the presence service monitors then the status of said network entity based on said provided status updates and b) keep-alive packets of said network entity (NE, NE1, NE2) destined for the presence service are dropped by said at least one of said one or more forwarding elements.
A method of decontaminating solid-state material contaminated by radiocesium comprising: bringing solid-state material contaminated by radiocesium into contact with a first process liquid containing fluorine ion from ammonium hydrogen fluoride, potassium hydrogen fluoride, potassium fluoride or sodium hydrogen fluoride, or from fluorosilicate, and eluting cesium ion from the solid-state material to the liquid phase, in the presence of at least one of potassium ion, ammonium ion, sodium ion or hydrogen ion which is present in the first process liquid from added salt or acid, in an amount of 10 mmol or more to 1 g of the solid-state material. bringing solid-state material contaminated by radiocesium into contact with a first process liquid containing fluorine ion from ammonium hydrogen fluoride, potassium hydrogen fluoride, potassium fluoride or sodium hydrogen fluoride, or from fluorosilicate, and eluting cesium ion from the solid-state material to the liquid phase, in the presence of at least one of potassium ion, ammonium ion, sodium ion or hydrogen ion which is present in the first process liquid from added salt or acid, in an amount of 10 mmol or more to 1 g of the solid-state material.
A method by an Access and Mobility Management Function, AMF, node, operative in a Fifth Generation System, 5GS, (100-1, 100-2, 100-3) that comprises a User Equipment, UE, associated with a Subscriber Permanent Identifier, SUPI, that is associated with subscription data of the UE, the method comprises: - sending (WT300, XX100, XX200) towards a Session Management Function, SMF, node, a request relating to a Protocol Data Unit, PDU, Session of the UE and comprising a Request Type that is set to Existing PDU Session; and - receiving (WT302, XX102A, XX202A), from the SMF node, a response comprising a Generic Public Subscription Identifier, GPSI, associated with the PDU session of the UE, which UE is associated with the SUPI and which GPSI is an external identifier to be used in networks outside the 5GS for addressing the subscription data of the UE. - sending (WT300, XX100, XX200) towards a Session Management Function, SMF, node, a request relating to a Protocol Data Unit, PDU, Session of the UE and comprising a Request Type that is set to Existing PDU Session; and - receiving (WT302, XX102A, XX202A), from the SMF node, a response comprising a Generic Public Subscription Identifier, GPSI, associated with the PDU session of the UE, which UE is associated with the SUPI and which GPSI is an external identifier to be used in networks outside the 5GS for addressing the subscription data of the UE.
A heliostat for a solar power plant comprising a central receiver, wherein the heliostat comprises: - an axisymmetric mirror surface comprising at least five corners, - a pylon, - a support structure for the mirror surface rotatable and/or pivotable relative to the pylon, and - at least two actuator drives (27, 29); wherein the support structure has a hub, a plurality of support arms (5, 7, 9, 51) connected to the hub, and a joint, wherein the joint has two axes of rotation (31, 33) to couple the hub and the pylon to one another, wherein a first axis of rotation of the joint is a first axis of rotation fastened to the pylon, which forms a first angle (alpha) greater than 0° with a horizontal plane; characterized in that between the pylon and the support structure a first linear drive is provided; in that the joint comprises an intermediate piece, which has a first and a second bearing channel for the axes of rotation (31, 33), wherein the first and the second bearing channels are spaced apart from one another and lie in different planes; in that between the first linear drive and the support structure is arranged a joint with two degrees of freedom and in that an axis of rotation of the joint is coaxial to the second axis of rotation of the joint between hub and pylon. - an axisymmetric mirror surface comprising at least five corners, - a pylon, - a support structure for the mirror surface rotatable and/or pivotable relative to the pylon, and - at least two actuator drives (27, 29);
A recombinant adeno-associated virus (rAAV), wherein the genome of the rAAV comprises SEQ ID No. 2 for the use in a method of ameliorating Duchenne Muscular Dystrophy in a patient with DMD exon 2 duplications.
A process for producing a transparent heat-resistant gas-barrier film, comprising the steps of: coating a polysilazane-containing solution onto at least one surface of a transparent polyimide film formed of a polyimide containing a repeated unit represented by the formula: wherein R is a C 4 to C 10 tetravalent group having an alicyclic structure; and φ is a C 2 to C 39 divalent linking group containing an aliphatic structural unit, an alicyclic structural unit, an aromatic structural unit, an organosiloxane structural unit or a combination or a repeating structure of these structural units, and may contain at least one group selected from the group consisting of - O- -SO 2 - -CO-, -CH 2 -, -C(CH 3) 2 -, -C 2 H 4 O- and -S- in a main chain thereof; and calcining the coated solution at a temperature of 180°C or higher to laminate a silicon oxide layer obtained by the calcination on the transparent polyimide film. coating a polysilazane-containing solution onto at least one surface of a transparent polyimide film formed of a polyimide containing a repeated unit represented by the formula: wherein R is a C 4 to C 10 tetravalent group having an alicyclic structure; and φ is a C 2 to C 39 divalent linking group containing an aliphatic structural unit, an alicyclic structural unit, an aromatic structural unit, an organosiloxane structural unit or a combination or a repeating structure of these structural units, and may contain at least one group selected from the group consisting of - O- -SO 2 - -CO-, -CH 2 -, -C(CH 3) 2 -, -C 2 H 4 O- and -S- in a main chain thereof; and calcining the coated solution at a temperature of 180°C or higher to laminate a silicon oxide layer obtained by the calcination on the transparent polyimide film.
A scintillator panel comprising: a substrate (2, 2A, 2B); an intermediate layer formed on the substrate (2, 2A) and made of an organic material; a barrier layer (3, 3A) formed on the intermediate layer and including thallium iodide as a main component, the barrier layer (3, 3A) has a barrier layer front surface and a barrier layer rear surface; and a scintillator layer (4, 4A), having a scintillator layer front surface and a scintillator layer rear surface, formed on the barrier layer (3, 3A) such that the scintillator layer rear surface faces the barrier layer front surface and constituted of a plurality of columnar crystals including cesium iodide with thallium added thereto as a main component, wherein tip portions of the plurality of columnar crystals constitute the scintillator layer front surface, base portions of the plurality of columnar crystals constitute the scintillator layer rear surface, the base portions come into contact with the barrier layer front surface, the barrier layer hinders movement of moisture from the intermediate layer to the scintillator layer thereby curbing deliquescence in the base portion of the scintillator layer. a substrate (2, 2A, 2B); an intermediate layer formed on the substrate (2, 2A) and made of an organic material; a barrier layer (3, 3A) formed on the intermediate layer and including thallium iodide as a main component, the barrier layer (3, 3A) has a barrier layer front surface and a barrier layer rear surface; and a scintillator layer (4, 4A), having a scintillator layer front surface and a scintillator layer rear surface, formed on the barrier layer (3, 3A) such that the scintillator layer rear surface faces the barrier layer front surface and constituted of a plurality of columnar crystals including cesium iodide with thallium added thereto as a main component, wherein tip portions of the plurality of columnar crystals constitute the scintillator layer front surface, base portions of the plurality of columnar crystals constitute the scintillator layer rear surface, the base portions come into contact with the barrier layer front surface, the barrier layer hinders movement of moisture from the intermediate layer to the scintillator layer thereby curbing deliquescence in the base portion of the scintillator layer.
A method of expressing in E. coli cells a eukaryotic protein that requires formation of multiple interchain or intrachain disulfide bridges for its biological activity, said method comprising: a) transforming an E. coli cell with a first expression vector encoding a fusion protein which comprises an N-terminal segment encoding thioredoxin and a C-terminal segment encoding the eukaryotic protein, and a second expression vector encoding a disulfide isomerase (DsbC) that lacks a signal sequence (ΔssDsbC), and a thiol disulfide interchange protein (DsbD) alpha domain fragment; b) wherein the host is deficient in any one or more of the thioredoxin reductase (trxB), glutathione reductase (gor), ompT or Ion gene products; and c) expressing said fusion protein. a) transforming an E. coli cell with a first expression vector encoding a fusion protein which comprises an N-terminal segment encoding thioredoxin and a C-terminal segment encoding the eukaryotic protein, and a second expression vector encoding a disulfide isomerase (DsbC) that lacks a signal sequence (ΔssDsbC), and a thiol disulfide interchange protein (DsbD) alpha domain fragment; b) wherein the host is deficient in any one or more of the thioredoxin reductase (trxB), glutathione reductase (gor), ompT or Ion gene products; and c) expressing said fusion protein.
A cement-based product prepared from a mixture of a cementitious binder, an aggregate, an inorganic pigment, water, optionally a concrete superplasticizer, and fine ground calcium carbonate having a weight median particle diameter in the range of 0.5-5 μm, wherein the weight amount of the fine GCC is in the range of 50% to 300% of the inorganic pigment weight.