mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving (51, 81), by a first network element, a first message from a second network element (12, 14) in a communications network, wherein the first message comprises a first parameter that is configurable as one of a positive and negative indication of a capability for supporting uplink gating in a cell under a base station in the communications network; and sending (52, 82), by the first network element, a second message to the second network element (12, 14) comprising an instruction for uplink gating in the cell, wherein the first and second network elements are network elements of an access network. receiving (51, 81), by a first network element, a first message from a second network element (12, 14) in a communications network, wherein the first message comprises a first parameter that is configurable as one of a positive and negative indication of a capability for supporting uplink gating in a cell under a base station in the communications network; and sending (52, 82), by the first network element, a second message to the second network element (12, 14) comprising an instruction for uplink gating in the cell, wherein the first and second network elements are network elements of an access network.
A detection apparatus arranged to detect defects within a flexible pipe at least partially surrounded by seawater, the detection apparatus comprising: a seawater electrode arranged to be positioned in contact with seawater surrounding at least part of a flexible pipe; a signal generator arranged to energise the seawater electrode to generate an electric field within the seawater relative to an electrical potential of a metallic structural component of the flexible pipe extending at least partially along the length of the flexible pipe; an electric field probe arranged to move relative to the flexible pipe and the seawater electrode and arranged to measure the electrical field in three dimensions to provide electric field vectors within the seawater surrounding the flexible pipe at two or more measurement positions of the electric field probe, wherein each measured electric field vector is indicative of the direction from the measurement position to a pipe defect electrically connecting the metallic structural component to seawater; a position locator coupled to the electric field probe and arranged to provide an indication of the location of the electric field probe relative to the flexible pipe at each measurement position of the electric field probe; and a processor arranged to triangulate the location of the pipe defect from the measured electric field vectors and the position of the electric field probe at each measurement position. a seawater electrode arranged to be positioned in contact with seawater surrounding at least part of a flexible pipe; a signal generator arranged to energise the seawater electrode to generate an electric field within the seawater relative to an electrical potential of a metallic structural component of the flexible pipe extending at least partially along the length of the flexible pipe; an electric field probe arranged to move relative to the flexible pipe and the seawater electrode and arranged to measure the electrical field in three dimensions to provide electric field vectors within the seawater surrounding the flexible pipe at two or more measurement positions of the electric field probe, wherein each measured electric field vector is indicative of the direction from the measurement position to a pipe defect electrically connecting the metallic structural component to seawater; a position locator coupled to the electric field probe and arranged to provide an indication of the location of the electric field probe relative to the flexible pipe at each measurement position of the electric field probe; and a processor arranged to triangulate the location of the pipe defect from the measured electric field vectors and the position of the electric field probe at each measurement position.
Insulated component of a voltage sensor, wherein the voltage sensor comprises a voltage divider for sensing an elevated voltage of a power conductor in a MV/HV power distribution network of a national grid, the insulated component is characterised by a) a rigid carrier tube (90, 91, 92, 93) forming a passageway for receiving a section of the power conductor and comprising an outer tube surface; b) an insulating sleeve arranged on and around the outer tube surface and having an outer sleeve surface; c) a primary impedance element (120, 121, 122, 123) for being in ohmic connection with the power conductor on elevated voltage and operable in a high-voltage portion of the voltage divider, wherein the primary impedance element is insulated by the sleeve and arranged between the outer tube surface and the outer sleeve surface. a) a rigid carrier tube (90, 91, 92, 93) forming a passageway for receiving a section of the power conductor and comprising an outer tube surface; b) an insulating sleeve arranged on and around the outer tube surface and having an outer sleeve surface; c) a primary impedance element (120, 121, 122, 123) for being in ohmic connection with the power conductor on elevated voltage and operable in a high-voltage portion of the voltage divider, wherein the primary impedance element is insulated by the sleeve and arranged between the outer tube surface and the outer sleeve surface.
An insulated gate bipolar transistor, comprising: a drift region of a first conductivity type; a body region of a second conductivity type disposed on the drift region; a cathode first conductivity-type region disposed within the body region; a cathode second conductivity-type region disposed within the body region; an anode first conductivity-type region disposed on the drift region, and comprising a first region and a second region; and an anode second conductivity-type region disposed on the drift region, and comprising a third region and a fourth region; wherein a dopant concentration of the first region is less than a dopant concentration of the second region; a dopant concentration of the third region is less than a dopant concentration of the fourth region; the third region is disposed between the fourth region and the body region; the first region is disposed below the fourth region; the second region is disposed below the third region and between the first region and the body region; and the first conductivity type is opposite to the second conductivity type. a drift region of a first conductivity type; a body region of a second conductivity type disposed on the drift region; a cathode first conductivity-type region disposed within the body region; a cathode second conductivity-type region disposed within the body region; an anode first conductivity-type region disposed on the drift region, and comprising a first region and a second region; and an anode second conductivity-type region disposed on the drift region, and comprising a third region and a fourth region; wherein a dopant concentration of the first region is less than a dopant concentration of the second region; a dopant concentration of the third region is less than a dopant concentration of the fourth region; the third region is disposed between the fourth region and the body region; the first region is disposed below the fourth region; the second region is disposed below the third region and between the first region and the body region; and the first conductivity type is opposite to the second conductivity type.
A system for acquiring data associated with an agricultural field, the system including an agricultural machine and a data acquisition module supported relative to the agricultural machine, the DAQ module including a module housing, one or more sensing devices housed within the module housing, and an optical window forming a portion of a wall of the module housing, the one or more sensing devices being configured to generate data associated with a condition of a field as the agricultural machine travels across the field, an air circulation system provided in operative association with the DAQ module, the air circulation system being configured to direct an airflow into an interior of the module housing for circulation therein, the one or more sensing devices comprise one or more imaging devices configured to capture images of a portion of the field as the agricultural machine travels across the field, the one or more imaging devices are positioned within the module housing relative to the optical window such that a field of view of the one or more imaging devices is directed through the optical window, wherein the air circulation system further comprises an air knife configured to direct the portion of the airflow through the wall and across an exterior surface of the optical window.
A composition characterized in that it comprises: a. An Evodia mixture comprising synthetic rutaecarpine (99,9% (w/w) pure), synthetic dehydroevodiamine (>96% (w/w) pure) natural evodine (≥98% (w/w) pure), and synthetic butylated hydroxytoluene (≥99% (w/w) pure); and b. butylene glycol (99,8% (w/w) pure). a. An Evodia mixture comprising synthetic rutaecarpine (99,9% (w/w) pure), synthetic dehydroevodiamine (>96% (w/w) pure) natural evodine (≥98% (w/w) pure), and synthetic butylated hydroxytoluene (≥99% (w/w) pure); and b. butylene glycol (99,8% (w/w) pure).
A method for collaborative localization of multiple devices in a geographic area, the method, performed by a mobile device, comprising: receiving global localization data originating with one or more neighboring devices over a first time period, the global localization based on location data along with a distance and direction between the one or more neighboring devices and the mobile device, wherein the one or more neighboring devices are aerial vehicles; receiving local localization data originating with the mobile device over a second time period, the local localization data based on sensor data; determining a first confidence level from the local localization data over the first time period; determining a second confidence level from the global localization data over the second time period; identifying a collaborative location threshold; performing a comparison of the second confidence level from the global localization data to the collaborative location threshold; generating, or instructing the one or more neighboring devices to generate, a flight command for the one or more neighboring devices based on the comparison, wherein the command comprises travelling toward the mobile device; receiving updated global localization data; updating the second confidence level; and performing, by a processor, a collaborative localization calculation for the mobile device based on the first confidence level and the second confidence level. receiving global localization data originating with one or more neighboring devices over a first time period, the global localization based on location data along with a distance and direction between the one or more neighboring devices and the mobile device, wherein the one or more neighboring devices are aerial vehicles; receiving local localization data originating with the mobile device over a second time period, the local localization data based on sensor data; determining a first confidence level from the local localization data over the first time period; determining a second confidence level from the global localization data over the second time period; identifying a collaborative location threshold; performing a comparison of the second confidence level from the global localization data to the collaborative location threshold; generating, or instructing the one or more neighboring devices to generate, a flight command for the one or more neighboring devices based on the comparison, wherein the command comprises travelling toward the mobile device; receiving updated global localization data; updating the second confidence level; and performing, by a processor, a collaborative localization calculation for the mobile device based on the first confidence level and the second confidence level.
A lid of a container, particularly beverage container, having an opening for emptying the container, fitted with guides formed on two opposite walls and with a slide piece for opening and reclosing the said opening, where there are two catches comprising surfaces, wherein the catches are formed on the top surface of the slide piece, the catches fitted slidingly in the opening on the said guides, and where the slide piece is fitted with technical means (6, 14, 22, 28) for shifting the slide piece from the closed position to the open position and backwards, characterised in that the surfaces of the catches of the slide piece which cooperate with the guides are inclined at an acute angle (α) with respect to the top surface of the slide piece positioned under the said surfaces of the catches, with the slope in the direction in which the slide piece shifts to the open position, and where formed on the bottom side of the lid around the opening is a socket for the slide piece with profiled surfaces to seal the slide piece when in the socket in the closed position formed around its circumference, where the profiled surfaces match the profile of circumferential surfaces of the slide piece, the lid being configured so that in the process of uncovering the opening the slide piece is moved downwards with respect to the socket.
Processing device for at least one radio communications terminal capable of, on the one hand, receiving data broadcast via a radio communications network in point-to-multipoint mode over a physical broadcast channel and according to an adaptable modulation and encoding scheme, and on the other hand, of calculating measurements which are representative of radio conditions in effect in at least the cell in which it is located; said measurements being indicators of radio channel reception quality, comprising processing means arranged to calculate an interval of values to which a measurement belongs, in order to determine a state corresponding to this interval of values among predetermined states, each state being associated with a predefined interval of radio channel reception quality; generating a state message dedicated to the calculated state; and commanding said radio terminal to transmit said state message, comprising data which is representative of the value of at least one corresponding measurement carried out by said terminal, to said radio network over part of the time/frequency/code domain of the random access channel dedicated to the calculated state, for at least said cell under consideration.
A multi-component building member comprising at least a first component and a second component and pre-tensioned tendons, each component being made as a tendons module comprising an initial supporting element and a final supporting element with holes for the pre-tensioned tendons and with a stand for placing anchors and tensioning arrangements, characterized in that the multi-component building member further comprises a reinforcing cage located between said supporting elements and comprising an upper element and a lower element in the form of a grid with a cellular structure comprising cells, the cells having the shape of an equilateral polyhedron, and at least one median element in the form of a space reinforcement structure comprising inclined reinforcement bars forming equilateral polyhedral pyramids oppositely oriented in space, the pre-tensioned tendons of the first component being anchored at the initial and final supporting elements of the first component, the pre-tensioned tendons of the second component being anchored at the final supporting elements of the first component and of the second component.
A method for a communication device (16, 22) associated with a wireless transmission, the method comprising: performing a low-density parity check, LDPC, encoding process comprising loading a set of bits, in parallel, into a plurality of registers, the set of bits being distributed among the plurality of registers; the method further comprising: interleaving the loaded set of bits within the plurality of registers by rearranging the loaded set of bits into an interleaved set of bits without accessing a memory (72, 88); and after the set of bits is rearranged into the interleaved set of bits within the plurality of registers, writing the interleaved set of bits, in parallel, from the plurality of registers to the memory (72, 88). performing a low-density parity check, LDPC, encoding process comprising loading a set of bits, in parallel, into a plurality of registers, the set of bits being distributed among the plurality of registers; the method further comprising: interleaving the loaded set of bits within the plurality of registers by rearranging the loaded set of bits into an interleaved set of bits without accessing a memory (72, 88); and after the set of bits is rearranged into the interleaved set of bits within the plurality of registers, writing the interleaved set of bits, in parallel, from the plurality of registers to the memory (72, 88). interleaving the loaded set of bits within the plurality of registers by rearranging the loaded set of bits into an interleaved set of bits without accessing a memory (72, 88); and after the set of bits is rearranged into the interleaved set of bits within the plurality of registers, writing the interleaved set of bits, in parallel, from the plurality of registers to the memory (72, 88).
A process for preparing a population of microcapsules having a substantially uniform size distribution, said microcapsules comprising a fluid core material encapsulated by a polymeric wall material, said process comprising: providing a membrane having a selected pore size, providing a fluid core material, providing a receiving solution for receiving the fluid core material, the receiving solution being a nonsolvent for the fluid core material, passing the fluid core material under pressure through said membrane into the receiving solution to form uniform droplets of said fluid core material dispersed in the receiving solution, adding a wall-forming material to the receiving solution for forming a coating on the core material droplets, and polymerizing the coating on the core material droplets to form said microcapsules. providing a membrane having a selected pore size, providing a fluid core material, providing a receiving solution for receiving the fluid core material, the receiving solution being a nonsolvent for the fluid core material, passing the fluid core material under pressure through said membrane into the receiving solution to form uniform droplets of said fluid core material dispersed in the receiving solution, adding a wall-forming material to the receiving solution for forming a coating on the core material droplets, and polymerizing the coating on the core material droplets to form said microcapsules.
A furniture component comprising a furniture component structure and a drawer able to move relative to the furniture component structure and having four side walls, a base and a lightening device; characterized in that - the lightening device comprises a source of light mounted, at least, on one side wall of the drawer, a current collector electrically connected to the source of light, and electrically conductive elements mounted on the furniture component structure and connected to a power supply;; - the current collector has a housing and spring-loaded contacts that are movably disposed in the housing; when extended beyond the housing, - the spring-loaded contacts enable electrical contact with the aforementioned electrically conductive elements; - the extension of said spring-loaded contacts from the current collector housing is provided both for the account of a magnetic force and a spring load, - wherein the lightning device also comprises at least one magnetic element structurally connected with said spring-loaded contacts in the current collector housing and at least one metallic or magnetic element that has prescribed dimensions and is installed together with said electrically conductive elements, so that when the drawer moves relative to the structure of the furniture component in which it is installed, said spring-loaded contacts of the current collector extend from the current collector housing and are placed into contact with said electrically conductive elements that have a prescribed length. - the lightening device comprises a source of light mounted, at least, on one side wall of the drawer, a current collector electrically connected to the source of light, and electrically conductive elements mounted on the furniture component structure and connected to a power supply;; - the current collector has a housing and spring-loaded contacts that are movably disposed in the housing; when extended beyond the housing, - the spring-loaded contacts enable electrical contact with the aforementioned electrically conductive elements; - the extension of said spring-loaded contacts from the current collector housing is provided both for the account of a magnetic force and a spring load, - wherein the lightning device also comprises at least one magnetic element structurally connected with said spring-loaded contacts in the current collector housing and at least one metallic or magnetic element that has prescribed dimensions and is installed together with said electrically conductive elements, so that when the drawer moves relative to the structure of the furniture component in which it is installed, said spring-loaded contacts of the current collector extend from the current collector housing and are placed into contact with said electrically conductive elements that have a prescribed length.
A bispecific antibody or bispecific antigen binding fragment, optionally isolated, which is capable of binding to CD122 and common γ chain (yc), wherein the bispecific antibody or bispecific antigen binding fragment is an IL-2 receptor agonist, and comprises: (a) an antigen-binding fragment which binds to CD122, and (b) an antigen-binding fragment which binds to common γ chain.
A computer-implemented method of extracting a feature from a data set associated with a semiconductor manufacturing process, the method comprising: iteratively extracting a feature from the data set based on a visualization of a residual pattern comprised within the data set, wherein the feature is distinct from a previous feature extracted in a previous iteration, and the visualization of the residual pattern uses the previous feature.
A method for automatic start and stop of a combustion engine in a motor vehicle, more especially in a motor vehicle with automatic transmission, by means of a start-stop device, which automatically stops the combustion engine when the vehicle is braked to a standstill and is held at standstill by actuation of the brake pedal, and which automatically starts the combustion engine when the combustion engine is automatically stopped and the actuated brake pedal is released, characterised in that, when the combustion engine is automatically stopped, an automatic starting of the combustion engine by release of the brake is prevented if a change to the brake pedal actuation in the sense of an increased depression of the brake pedal is recorded beforehand while the combustion engine is stopped.
A method of identifying a watermelon plant, the method comprising: (i) providing a population of watermelon plants; (ii) genotyping at least one watermelon plant in the population with respect to at least one polymorphic nucleic acid located in a genomic region flanked by loci NW0251464 (SEQ ID NO:1) and NW0250266 (SEQ ID NO:18), and (iii) selecting from the population at least one watermelon plant comprising at least one allele associated with an ultra-firm watermelon flesh phenotype. (i) providing a population of watermelon plants; (ii) genotyping at least one watermelon plant in the population with respect to at least one polymorphic nucleic acid located in a genomic region flanked by loci NW0251464 (SEQ ID NO:1) and NW0250266 (SEQ ID NO:18), and (iii) selecting from the population at least one watermelon plant comprising at least one allele associated with an ultra-firm watermelon flesh phenotype.