mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: transmitting, from a user equipment (UE), a first message to a first evolved Node B (eNB), wherein the first message indicates a request to establish a sidelink communication; receiving, at the UE, a second message from the first eNB, wherein the second message indicates a frequency that is used by a secondary evolved Node B (SeNB); transmitting, from the UE, a measurement result to the first eNB; receiving, at the UE, sidelink configuration information from the first eNB, wherein the sidelink configuration information indicates: - sidelink resources managed by the secondary eNB; - whether the first eNB or the secondary eNB provides scheduling for the sidelink communication; - whether the first eNB or the secondary eNB provides synchronization for the sidelink communication; and configuring UE sidelink communication according to received sidelink configuration information. transmitting, from a user equipment (UE), a first message to a first evolved Node B (eNB), wherein the first message indicates a request to establish a sidelink communication; receiving, at the UE, a second message from the first eNB, wherein the second message indicates a frequency that is used by a secondary evolved Node B (SeNB); transmitting, from the UE, a measurement result to the first eNB; receiving, at the UE, sidelink configuration information from the first eNB, wherein the sidelink configuration information indicates: - sidelink resources managed by the secondary eNB; - whether the first eNB or the secondary eNB provides scheduling for the sidelink communication; - whether the first eNB or the secondary eNB provides synchronization for the sidelink communication; and - sidelink resources managed by the secondary eNB; - whether the first eNB or the secondary eNB provides scheduling for the sidelink communication; - whether the first eNB or the secondary eNB provides synchronization for the sidelink communication; and configuring UE sidelink communication according to received sidelink configuration information.
A location analytics device comprising: a processing resource ; and a memory resource storing machine readable instructions to cause the processing resource to: receive from a reference client device, beacon sensor data associated with the reference client device, wherein the beacon sensor data comprises data received by the reference client device from beacon sensors; receive access point data associated with the reference client device, wherein the access point data comprises signal strength data from a plurality of access points for transmissions originating from the reference client device; generate a beacon sensor based network fingerprint by combining the beacon sensor data received from the reference client device and the access point data of the reference client device; and determine a location of a target client device using the beacon sensor based network fingerprint and the signal strength data from the target client device. a processing resource ; and a memory resource storing machine readable instructions to cause the processing resource to: receive from a reference client device, beacon sensor data associated with the reference client device, wherein the beacon sensor data comprises data received by the reference client device from beacon sensors; receive access point data associated with the reference client device, wherein the access point data comprises signal strength data from a plurality of access points for transmissions originating from the reference client device; generate a beacon sensor based network fingerprint by combining the beacon sensor data received from the reference client device and the access point data of the reference client device; and determine a location of a target client device using the beacon sensor based network fingerprint and the signal strength data from the target client device. receive from a reference client device, beacon sensor data associated with the reference client device, wherein the beacon sensor data comprises data received by the reference client device from beacon sensors; receive access point data associated with the reference client device, wherein the access point data comprises signal strength data from a plurality of access points for transmissions originating from the reference client device; generate a beacon sensor based network fingerprint by combining the beacon sensor data received from the reference client device and the access point data of the reference client device; and determine a location of a target client device using the beacon sensor based network fingerprint and the signal strength data from the target client device.
A dispensing device of a fluid substance, comprising a container provided with an opening to access its interior, and a dispensing pump of hermetic type, coupled with the container to deliver the fluid contained inside the container , and a sealing element positioned between the container and the pump, the sealing element comprising a flange resting against a free surface of the container perpendicular to a longitudinal axis of the container , wherein the sealing element comprises a first tubular wall extending internally to the container and achieving an air-tight seal on its internal surface, the sealing element further comprising a second tubular wall extending internally to the container and which engages an outer cylindrical surface of a body of the pump positioned internally to the container , the first and second tubular wall being configured to perform an air-tight seal when a part of the sealing element connecting the first and the second tubular element is undeformed, the flange extending from said part of the sealing element , characterized in that the pump comprises a flange resting on said undeformed part of the sealing element .
Process for manufacturing a polyethylene homo- or copolymer by conducting high-pressure polymerization of ethylene, optionally in combination with one or more co-monomers, in a tubular reactor, wherein tert-amyl peroxyisobutyrate is used as polymerization initiator.
Structure for radiofrequency applications comprising: - a monocrystalline substrate , - a polycrystalline silicon layer directly on the monocrystalline substrate , - an active layer on the polycrystalline silicon layer , the active layer intended to receive radiofrequency components, wherein at least a first portion of the polycrystalline silicon layer extending from the interface (I) of the polycrystalline silicon layer with the monocrystalline layer includes carbon and/or nitrogen atoms located at the grain boundaries of the polycrystalline silicon, in a concentration comprised between 2% and 20 %. - a monocrystalline substrate , - a polycrystalline silicon layer directly on the monocrystalline substrate , - an active layer on the polycrystalline silicon layer , the active layer intended to receive radiofrequency components,
A mobile station device adapted to discard, in an uplink synchronous status, a timing deviation information included in a random access response received from a base station (S02), wherein the random access response (S02) corresponds to a random access preamble (S01) sent to the base station by the mobile station device whose preamble ID was randomly selected by the mobile station device; and apply, in an uplink asynchronous status, the timing deviation information included in the random access response (S02).
A multilayer element for detecting and/or measuring physical quantities associated with a live electrical conductor, the multilayer element having a planar or wavy shape so as to be positioned parallel to or in front of the electrical conductor, under conditions of near electric field in the medium- and high-voltage domain and comprising at least one insulating substrate made from a mineral fiber mesh, such as glass fiber, embedded in a matrix of insulating material, preferably epoxy-based, and at least one conductive layer coupled to a side of the insulating substrate, wherein the insulating substrate also has a function of mechanical support for the multilayer element, the multilayer element being charaterized in that the at least one conductive layer is made from elastic, conductive, elastomer or ink having a low surface resistivity.
A secondary battery in which an electrode assembly is built in a cylindrical can , a top cap connected to a positive electrode of the electrode assembly is coupled to an upper end of the can, and the can is connected to a negative electrode, the secondary battery comprising: a cooling member which receives heat generated in the electrode assembly to release the heat and is mounted on a bottom surface of the can, wherein the cooling member comprises a plurality of cooling pins disposed parallel to each other, the cooling pins are disposed in a direction parallel to a longitudinal direction of the can , and the bottom surface of the can gradually increases in height from an edge toward a center of the bottom surface. a cooling member which receives heat generated in the electrode assembly to release the heat and is mounted on a bottom surface of the can, wherein the cooling member comprises a plurality of cooling pins disposed parallel to each other, the cooling pins are disposed in a direction parallel to a longitudinal direction of the can , and the bottom surface of the can gradually increases in height from an edge toward a center of the bottom surface.
A method of pre-flushing a reservoir path to enhance the hydrocarbon recovery of a subsequent operation; wherein the operation is a secondary operation, a tertiary operation, or a combination thereof; wherein the method comprises: pumping a pre-flush composition into a subterranean reservoir to contact at least a portion of non-polar material within the reservoir path; wherein the pre-flush composition is a multiple phase composition which comprises: a polar fluid; a non-polar phase; and at least one surfactant; wherein the multiple phase composition is an emulsion within an emulsion; breaking the multiple phase composition; contacting at least a portion of the non-polar material in the subterranean reservoir path with the broken multiple phase composition; and in situ forming an in situ fluid in the reservoir path, where the in situ fluid comprises non-polar material from the reservoir path, a polar phase from the polar fluid, and the at least one surfactant. pumping a pre-flush composition into a subterranean reservoir to contact at least a portion of non-polar material within the reservoir path; wherein the pre-flush composition is a multiple phase composition which comprises: a polar fluid; a non-polar phase; and at least one surfactant; wherein the multiple phase composition is an emulsion within an emulsion; a polar fluid; a non-polar phase; and at least one surfactant; breaking the multiple phase composition; contacting at least a portion of the non-polar material in the subterranean reservoir path with the broken multiple phase composition; and in situ forming an in situ fluid in the reservoir path, where the in situ fluid comprises non-polar material from the reservoir path, a polar phase from the polar fluid, and the at least one surfactant.
A recording medium , comprising: a substrate ; and a thermally responsive layer carried by the substrate , the thermally responsive layer including a leuco dye and a plurality of developers; wherein the recording medium is substantially phenol-free; and wherein the plurality of developers include 1,3-Diphenyl urea, hereinafter "DPU", and urea urethane, CAS No. 321860-75-7, hereinafter "UU". a substrate ; and a thermally responsive layer carried by the substrate , the thermally responsive layer including a leuco dye and a plurality of developers; wherein the recording medium is substantially phenol-free; and wherein the plurality of developers include 1,3-Diphenyl urea, hereinafter "DPU", and urea urethane, CAS No. 321860-75-7, hereinafter "UU".
Method for encoding a video stream comprising: determining a level of relevance for areas in an image frame to be included in the video stream, wherein the determining includes determining a noise level in areas of the image frame, wherein a lower value for the level of relevance is set where a higher noise level is determined than for where a lower noise level is determined; determining a block size value for coding blocks in the image frame; and encoding the image frame using coding block sizes based on the determined block size values for each of the coding blocks, characterized in that the block size value is depending on the level of relevance determined for the area including each coding block, respectively, wherein higher level of relevance relates to smaller block sizes than lower level of relevance. determining a level of relevance for areas in an image frame to be included in the video stream, wherein the determining includes determining a noise level in areas of the image frame, wherein a lower value for the level of relevance is set where a higher noise level is determined than for where a lower noise level is determined; determining a block size value for coding blocks in the image frame; and encoding the image frame using coding block sizes based on the determined block size values for each of the coding blocks, characterized in that the block size value is depending on the level of relevance determined for the area including each coding block, respectively, wherein higher level of relevance relates to smaller block sizes than lower level of relevance.
A gas-over-oil actuator system for use with a valve in a natural gas pipeline , the system comprising: a gas-over-oil actuator for actuating the valve in the natural gas pipeline ; a wireless position monitor operatively coupled to the gas-over-oil actuator , the wireless position monitor having an integral pneumatic pilot spool valve in the form of an opened center spool valve and configured to be communicatively wirelessly coupled to a remote workstation ; at least one switching relay operatively coupled to the gas-over-oil actuator and the wireless position monitor , the at least one switching relay configured to receive a pilot signal from the pneumatic pilot spool valve of the wireless position monitor ; and at least one torque limiting device disposed between the pneumatic pilot spool valve of the wireless position monitor and the at least one switching relay configured to prevent excess torque from the gas-over-oil actuator; wherein, upon wirelessly receiving a command from the remote workstation , the wireless position monitor drives a pilot signal from the pneumatic pilot spool valve to the at least one switching relay to manage a pressure supply to the gas-over-oil actuator for moving the valve in the natural gas pipeline to a desired position. a gas-over-oil actuator for actuating the valve in the natural gas pipeline ; a wireless position monitor operatively coupled to the gas-over-oil actuator , the wireless position monitor having an integral pneumatic pilot spool valve in the form of an opened center spool valve and configured to be communicatively wirelessly coupled to a remote workstation ; at least one switching relay operatively coupled to the gas-over-oil actuator and the wireless position monitor , the at least one switching relay configured to receive a pilot signal from the pneumatic pilot spool valve of the wireless position monitor ; and at least one torque limiting device disposed between the pneumatic pilot spool valve of the wireless position monitor and the at least one switching relay configured to prevent excess torque from the gas-over-oil actuator; wherein, upon wirelessly receiving a command from the remote workstation , the wireless position monitor drives a pilot signal from the pneumatic pilot spool valve to the at least one switching relay to manage a pressure supply to the gas-over-oil actuator for moving the valve in the natural gas pipeline to a desired position.
Method for grinding and/or polishing a defect in the surface coating of a workpiece, wherein a grinding or polishing disc held on a tool is guided over the defect with orbital, rotating and/or vibrating movements with pressure, wherein the tool equipped with the grinding or polishing disc is moved over the defect in an automatic and computer-controlled manner on the basis of a stored program, characterized in that the grinding or polishing disc is first guided along a concentrically inner grinding path relative to the defect and is then guided without interruption along a spiral-shaped grinding path into an outer concentric grinding path .
Device for examining hatching eggs , comprising a carrier on which, when in use, hatching eggs arranged at a distance from one another are located, and which is arranged between a source for electromagnetic waves and a hyperspectral camera , the carrier having cutouts for the placement of the hatching eggs and for the light-proof coupling of the electromagnetic waves, and partition walls being located between the hatching eggs , characterised in that, on the carrier , at least the hatching eggs surrounded by hatching eggs are surrounded by a partition wall arranged in a tubular manner, such that at least these hatching eggs are located between four partition walls which delimit a quadrilateral space in cross section, and in that the source for electromagnetic waves and the hyperspectral camera are connected to a data processing system , which is designed to determine the egg images from the image from the hyperspectral camera and to assign hyperspectral data and the position of the particular hatching egg on the carrier to each particular egg image, the carrier being a transport belt which is continuous or consists of individual segments and which comprises the partition walls , and in that the transport belt has an opening at least in the region of a hatching egg or consists of a material transparent to the electromagnetic waves at least in the region of the hatching egg . is arranged between a source for electromagnetic waves and a hyperspectral camera , the carrier having cutouts for the placement of the hatching eggs and for the light-proof coupling of the electromagnetic waves, and partition walls being located between the hatching eggs , characterised in that, on the carrier , at least the hatching eggs surrounded by hatching eggs are surrounded by a partition wall arranged in a tubular manner, such that at least these hatching eggs are located between four partition walls which delimit a quadrilateral space in cross section, and in that the source for electromagnetic waves and the hyperspectral camera are connected to a data processing system , which is designed to determine the egg images from the image from the hyperspectral camera and to assign hyperspectral data and the position of the particular hatching egg on the carrier to each particular egg image, the carrier being a transport belt which is continuous or consists of individual segments and which comprises the partition walls , and in that the transport belt has an opening at least in the region of a hatching egg or consists of a material transparent to the electromagnetic waves at least in the region of the hatching egg .
Filter element , in particular of an internal combustion engine, in particular of a motor vehicle, having a filter medium made of a medium web consisting of several layers and folded along bending lines , characterized in that the filter medium is embossed by forming a plurality of spacer projections in at least one portion between two adjacent bending lines and the layers of the multilayer filter medium are firmly bonded to each other along the embossing of the spacer projections , wherein the filter medium is zigzag-folded and wherein at least one of the layers of the multilayer filter medium features a lattice, preferably a synthetic lattice , and at least one of the layers of the multilayer filter medium features a meltblown layer .
An organic-inorganic composite for rubber reinforcement, comprising amorphous aluminosilicate particles having a composition of the following Chemical Formula 1 and a silane-based coupling agent bonded to at least a part of a surface of aluminosilicate particles, wherein the following Equation 1 is satisfied: [Chemical Formula 1] M x/n [(AlO 2 ) x ,(SiO 2 ) y ]· m(H 2 O) wherein, in Chemical Formula 1, M is an element selected from the group consisting of Li, Na, K, Rb, Cs, Be, and Fr, or an ion thereof; x > 0, y > 0, n > 0, and m ≥ 0; 1.0 ≤ y/x ≤ 10.0; and 0.01 ≤ x/n ≤ 1.2, Da ≥ 3.0 wherein, in Equation 1, Da is an area of a region where an x-axis value [temperature (°C)] is 300 to 500 °C and a y-axis value [reduction rate of weight (%/°C)] is zero or more, in a derivative thermogravimetric curve (dm/dt) obtained by thermogravimetric analysis (TGA) of the organic-inorganic composite, wherein the amorphous aluminosilicate particles have an average particle diameter of 10 to 100 nm, a Brunauer-Emmett-Teller surface area (S BET ) of 80 to 250 m 2 /g, and an external specific surface area (S EXT ) of 60 to 200 m 2 /g according to an analysis of nitrogen adsorption/desorption. M is an element selected from the group consisting of Li, Na, K, Rb, Cs, Be, and Fr, or an ion thereof; x > 0, y > 0, n > 0, and m ≥ 0; 1.0 ≤ y/x ≤ 10.0; and 0.01 ≤ x/n ≤ 1.2, Da is an area of a region where an x-axis value [temperature (°C)] is 300 to 500 °C and a y-axis value [reduction rate of weight (%/°C)] is zero or more, in a derivative thermogravimetric curve (dm/dt) obtained by thermogravimetric analysis (TGA) of the organic-inorganic composite, wherein the amorphous aluminosilicate particles have an average particle diameter of 10 to 100 nm, a Brunauer-Emmett-Teller surface area (S BET ) of 80 to 250 m 2 /g, and an external specific surface area (S EXT ) of 60 to 200 m 2 /g according to an analysis of nitrogen adsorption/desorption.
A hot rolled steel sheet having excellent formability and fatigue properties, comprising: by weight%, 0.3 to 0.8% of carbon C, 13 to 25% of manganese (Mn), 0.15 to 1.0% of vanadium (V), 0.005 to 2.0% of silicon (Si), 0.01 to 2.5% of aluminum (Al), 0.03% or less of phosphorus (P), 0.03% or less of sulfur (S), 0.04% or less and excluding 0% of nitrogen (N), and a remainder of iron (Fe) and inevitable impurities, wherein, when a cross section of the hot rolled steel sheet is viewed in a thickness direction parallel to rolling direction of the hot-rolled steel sheet, the hot rolled steel sheet includes, by area fraction, 20 to 70% of an unrecrystallized microstructure and 30 to 80% of a recrystallized microstructure, wherein the hot-rolled steel sheet is composed of a layer of the unrecrystallized microstructure and a layer of the recrystallized microstructure alternately formed therein, when observing the cross section; wherein the hot rolled steel sheet further optionally comprising, by weight%, one or more selected from 0.01 to 0.5% of titanium (Ti), 0.05 to 0.5% of niobium(Nb), 0.01 to 0.5% of molybdenum (Mo) and 0.0005 to 0.005% of boron (B). by weight%, 0.3 to 0.8% of carbon C, 13 to 25% of manganese (Mn), 0.15 to 1.0% of vanadium (V), 0.005 to 2.0% of silicon (Si), 0.01 to 2.5% of aluminum (Al), 0.03% or less of phosphorus (P), 0.03% or less of sulfur (S), 0.04% or less and excluding 0% of nitrogen (N), and a remainder of iron (Fe) and inevitable impurities, wherein, when a cross section of the hot rolled steel sheet is viewed in a thickness direction parallel to rolling direction of the hot-rolled steel sheet, the hot rolled steel sheet includes, by area fraction, 20 to 70% of an unrecrystallized microstructure and 30 to 80% of a recrystallized microstructure, wherein the hot-rolled steel sheet is composed of a layer of the unrecrystallized microstructure and a layer of the recrystallized microstructure alternately formed therein, when observing the cross section; wherein the hot rolled steel sheet further optionally comprising, by weight%, one or more selected from 0.01 to 0.5% of titanium (Ti), 0.05 to 0.5% of niobium(Nb), 0.01 to 0.5% of molybdenum (Mo) and 0.0005 to 0.005% of boron (B).