mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: receiving (Step 201), by a terminal, a bandwidth part, BWP, configuration message from a network device, wherein the BWP configuration message is used to configure a semi-persistent scheduling, SPS, resource of at least one BWP; receiving (Step 202), by the terminal, BWP indication information from the network device, wherein the BWP indication information is used to instruct the terminal to activate a first BWP in the at least one BWP; and in response to the BWP indication information, activating (Step 203), by the terminal, the SPS resource on the first BWP. receiving (Step 201), by a terminal, a bandwidth part, BWP, configuration message from a network device, wherein the BWP configuration message is used to configure a semi-persistent scheduling, SPS, resource of at least one BWP; receiving (Step 202), by the terminal, BWP indication information from the network device, wherein the BWP indication information is used to instruct the terminal to activate a first BWP in the at least one BWP; and in response to the BWP indication information, activating (Step 203), by the terminal, the SPS resource on the first BWP.
A method of generating a refined sugar stream that comprises xylose from an aqueous biomass hydrolysis solution, characterized in comprising: (i) contacting an aqueous biomass hydrolysis solution that comprises a population of mixed sugars comprising xylose, an acid, and impurities, with an extraction solvent to form an extraction mixture; wherein the extraction solvent is a tri-alkyl phosphine oxide, butyl sulfoxide, or a dialkylphosphite, or any combination thereof; and (ii) separating from said extraction mixture an aqueous phase as a first stream that comprises the acid, and xylose and an organic phase as a second, organic refined sugar stream that comprises the extraction solvent, water, impurities and xylose; (iii) subjecting said organic sugar stream to heat and/or alkanol extraction/separation so as to induce a phase separation of an aqueous refined sugar stream comprising an enriched amount of xylose and of an organic phase comprising the extraction solvent and impurities. (i) contacting an aqueous biomass hydrolysis solution that comprises a population of mixed sugars comprising xylose, an acid, and impurities, with an extraction solvent to form an extraction mixture; wherein the extraction solvent is a tri-alkyl phosphine oxide, butyl sulfoxide, or a dialkylphosphite, or any combination thereof; and (ii) separating from said extraction mixture an aqueous phase as a first stream that comprises the acid, and xylose and an organic phase as a second, organic refined sugar stream that comprises the extraction solvent, water, impurities and xylose; (iii) subjecting said organic sugar stream to heat and/or alkanol extraction/separation so as to induce a phase separation of an aqueous refined sugar stream comprising an enriched amount of xylose and of an organic phase comprising the extraction solvent and impurities.
A method performed by at least one apparatus, said method comprising: obtaining weather model data indicative of location-specific weather information for a first set of locations on a first grid ; obtaining an area of interest associated to at least one user ; obtaining and/or determining a second set of locations based on a second grid within said area of interest ; obtaining measurement data on location-specific weather information of a measurement device associated to said at least one user located at a measurement location within and/or proximate to said area of interest ; and determining, by a first downscaling process based on at least said obtained weather model data and said obtained measurement data, location-specific weather information for said second set of locations based on said second grid , wherein said second grid provides a spatial resolution being higher, in particular at least one order of magnitude higher than a spatial resolution of said first grid , obtaining and/or determining a third set of locations based on a third grid within said area of interest ; obtaining surface topography data for at least one location within and/or proximate to said area of interest ; determining, by a second downscaling process based on said obtained surface topography data and said determined location-specific weather information for said second set of locations, location-specific weather information for said third set of locations based on said third grid . obtaining weather model data indicative of location-specific weather information for a first set of locations on a first grid ; obtaining an area of interest associated to at least one user ; obtaining and/or determining a second set of locations based on a second grid within said area of interest ; obtaining measurement data on location-specific weather information of a measurement device associated to said at least one user located at a measurement location within and/or proximate to said area of interest ; and determining, by a first downscaling process based on at least said obtained weather model data and said obtained measurement data, location-specific weather information for said second set of locations based on said second grid , wherein said second grid provides a spatial resolution being higher, in particular at least one order of magnitude higher than a spatial resolution of said first grid , obtaining and/or determining a third set of locations based on a third grid within said area of interest ; obtaining surface topography data for at least one location within and/or proximate to said area of interest ; determining, by a second downscaling process based on said obtained surface topography data and said determined location-specific weather information for said second set of locations, location-specific weather information for said third set of locations based on said third grid .
A wireless communications system including a packet core network and a wireless access network that includes a base station and a plurality of terminals , the wireless communications system being capable of communications between terminals from among the plurality of terminals through a first path that includes the packet core network and communications between terminals from among the plurality of terminals through a second path that includes the base station and does not include the packet core network, wherein the base station is configured to be capable to perform processing related to proximity-based communications services between the plurality of terminals , and wherein the base station is further configured to: obtain identifiers of the plurality of terminals and information that is related to positions of the plurality of terminals and enables determination of whether to use the second path when performing the processing related to the proximity-based communications services, and cause the communication between the plurality of terminals to be executed through the second path based on the identifiers, the information and according to criteria for determining whether to use second path, characterized in that said criteria is set based on whether an amount of delay of communication between the terminals when the second path is used is less than a predetermined amount. wherein the base station is configured to be capable to perform processing related to proximity-based communications services between the plurality of terminals , and wherein the base station is further configured to: obtain identifiers of the plurality of terminals and information that is related to positions of the plurality of terminals and enables determination of whether to use the second path when performing the processing related to the proximity-based communications services, and cause the communication between the plurality of terminals to be executed through the second path based on the identifiers, the information and according to criteria for determining whether to use second path, obtain identifiers of the plurality of terminals and information that is related to positions of the plurality of terminals and enables determination of whether to use the second path when performing the processing related to the proximity-based communications services, and cause the communication between the plurality of terminals to be executed through the second path based on the identifiers, the information and according to criteria for determining whether to use second path, characterized in that said criteria is set based on whether an amount of delay of communication between the terminals when the second path is used is less than a predetermined amount.
A process for the isolation of highly pure cannabidiol (CBD) from industrial hemp material, preferably industrial hemp waste material, said process comprising: a) providing industrial hemp material, preferably industrial hemp waste material, having a total content of Δ9-tetrahydrocannabinol (THC) and Δ9-tetrahydrocannabinolic acid (THCA) of less than 0.5 % by weight of dry matter and a total content of cannabidiol (CBD) and cannabidiolic acid (CBDA) of more than 0.2 % by weight of dry matter; b) contacting the industrial hemp material with supercritical CO 2 at a temperature of 40-140 °C and a pressure of 100-400 bar to produce a crude CBD extract; c) subjecting the crude CBD extract to thin film evaporation at a temperature 100-180°C and a pressure of 2 ∗ 10 -1 -1 ∗ 10 -3 mbar to produce a refined CBD extract; d) dissolving the refined CBD extract in an organic solvent to produce a CBD solution, said organic solvent being selected from C 4-8 alkanes and combinations thereof; e) inducing crystallization of dissolved CBD to form CBD crystals; and f) collecting the CBD crystals and removing residual solvents wherein CBDA is decarboxylated to CBD prior to step c) by heating the hemp material or the crude CBD extract to a temperature of 80-140 °C for at least 60 minutes. a) providing industrial hemp material, preferably industrial hemp waste material, having a total content of Δ9-tetrahydrocannabinol (THC) and Δ9-tetrahydrocannabinolic acid (THCA) of less than 0.5 % by weight of dry matter and a total content of cannabidiol (CBD) and cannabidiolic acid (CBDA) of more than 0.2 % by weight of dry matter; b) contacting the industrial hemp material with supercritical CO 2 at a temperature of 40-140 °C and a pressure of 100-400 bar to produce a crude CBD extract; c) subjecting the crude CBD extract to thin film evaporation at a temperature 100-180°C and a pressure of 2 ∗ 10 -1 -1 ∗ 10 -3 mbar to produce a refined CBD extract; d) dissolving the refined CBD extract in an organic solvent to produce a CBD solution, said organic solvent being selected from C 4-8 alkanes and combinations thereof; e) inducing crystallization of dissolved CBD to form CBD crystals; and f) collecting the CBD crystals and removing residual solvents
A method for preparing induced pluripotent stem cells induced from human dermal fibroblast or neonatal human dermal fibroblasts, comprising - a step of preparing a callus extract of sequoia comprising shikimic acid; - a step of treating the human dermal fibroblast or neonatal human dermal fibroblasts with a cell membrane permeabilizing agent and then injecting a callus extract of sequoia comprising shikimic acid into the human dermal fibroblast or neonatal human dermal fibroblasts; and - a step of culturing the extract injected fibroblasts in a cell culture medium DMEM, 5-15% FBS, 10-100 U/mL penicillin, 20-80 mg/mL streptomycin, and then culturing in an embryonic stem cell culture medium after transferring to a feeder cell layer. - a step of preparing a callus extract of sequoia comprising shikimic acid; - a step of treating the human dermal fibroblast or neonatal human dermal fibroblasts with a cell membrane permeabilizing agent and then injecting a callus extract of sequoia comprising shikimic acid into the human dermal fibroblast or neonatal human dermal fibroblasts; and - a step of culturing the extract injected fibroblasts in a cell culture medium DMEM, 5-15% FBS, 10-100 U/mL penicillin, 20-80 mg/mL streptomycin, and then culturing in an embryonic stem cell culture medium after transferring to a feeder cell layer.
Automated guided vehicle comprising a frame which is designed to receive an auxiliary conveying means , and at least one displacement element which is designed to be extended and retracted in at least one horizontal direction (Y) relative to the frame , beyond the outer dimensions thereof, at least on one side, the displacement element further being designed to carry the auxiliary conveying means along therewith, characterized in that the displacement element has at least one gripper element which is designed to grip the auxiliary conveying means , the displacement element having at least one drive element which is designed to move the gripper element in the horizontal direction (Y) relative to the displacement element at least on one side. a frame which is designed to receive an auxiliary conveying means , and at least one displacement element which is designed to be extended and retracted in at least one horizontal direction (Y) relative to the frame , beyond the outer dimensions thereof, at least on one side, the displacement element further being designed to carry the auxiliary conveying means along therewith, characterized in that the displacement element has at least one gripper element which is designed to grip the auxiliary conveying means , the displacement element having at least one drive element which is designed to move the gripper element in the horizontal direction (Y) relative to the displacement element at least on one side.
An apparatus , comprising: a microwave source , wherein the source is configured to emit microwave energy in a frequency range of about 300Mhz to about 300Ghz; at least one microwave cavity comprising a stationary input section , a stationary output section , and a rotating processing section rotating around a substantially horizontal axis between the input section and the output section , wherein the rotating processing section comprises a secondary coupler of a microwave absorbing material chosen from SiC, partially stabilized zirconia, magnetite, zeolite, beta alumina, and composites and combinations thereof; and a waveguide to transmit microwave energy from the microwave source and introduce the microwave energy into at least one of the input section and the output section . a microwave source , wherein the source is configured to emit microwave energy in a frequency range of about 300Mhz to about 300Ghz; at least one microwave cavity comprising a stationary input section , a stationary output section , and a rotating processing section rotating around a substantially horizontal axis between the input section and the output section , wherein the rotating processing section comprises a secondary coupler of a microwave absorbing material chosen from SiC, partially stabilized zirconia, magnetite, zeolite, beta alumina, and composites and combinations thereof; and a waveguide to transmit microwave energy from the microwave source and introduce the microwave energy into at least one of the input section and the output section .
A method in a user equipment for transmitting channel state information to a first base station , which user equipment is comprised in a wireless communication system and which wireless communication system further comprises the first base station , wherein the method is characterized by : estimating a first Signal to Interference and Noise Ratio, SINR, based on reference signals for subframes of a first type, wherein subframes of a first type are subframes interfered by Almost Blank Subframes, ABS; estimating a second SINR based on reference signals for subframes of a second type, wherein subframes of a second type are subframes interfered by non - Almost Blank Subframes, ABS; receiving a first offset value for subframes of the first type and a second offset value for the second type of subframes from the first base station , wherein the first offset value and the second offset value indicates differences between a SINR measured at reference signals resource elements, REs, and a SINR measured at Physical Downlink Shared Channel, PDSCH, resource elements, REs, for the subframes of the first type and for the subframes of the second type, respectively; creating a compensated first SINR based on the estimated first SINR and the received first offset value; creating a compensated second SINR based on the estimated second SINR and the received second offset value; calculating a single channel state information based on said created compensated first SINR and said created compensated second SINR; and transmitting the calculated channel state information to the first base station . estimating a first Signal to Interference and Noise Ratio, SINR, based on reference signals for subframes of a first type, wherein subframes of a first type are subframes interfered by Almost Blank Subframes, ABS; estimating a second SINR based on reference signals for subframes of a second type, wherein subframes of a second type are subframes interfered by non - Almost Blank Subframes, ABS; receiving a first offset value for subframes of the first type and a second offset value for the second type of subframes from the first base station , wherein the first offset value and the second offset value indicates differences between a SINR measured at reference signals resource elements, REs, and a SINR measured at Physical Downlink Shared Channel, PDSCH, resource elements, REs, for the subframes of the first type and for the subframes of the second type, respectively; creating a compensated first SINR based on the estimated first SINR and the received first offset value; creating a compensated second SINR based on the estimated second SINR and the received second offset value; calculating a single channel state information based on said created compensated first SINR and said created compensated second SINR; and transmitting the calculated channel state information to the first base station .
Process for preparing a component , intended to constitute an interconnector for a fuel cell (SOFC) or a high-temperature electrolyser (HTE), comprising the following steps: a/ preparing a substrate made of metal alloy , of chromia-forming type, the base element of which is iron (Fe) or nickel (Ni), the substrate having two main flat faces, b/ tape casting a thick ceramic layer ; c/ localized removal at one or more locations , of material of the tape-cast thick ceramic layer; d/ hot pressing the green thick ceramic layer tape; e/ grooving the thick ceramic layer so as to delimit channels that are suitable for distributing and/or collecting gases, such as H 2 O steam, H 2 ; air. a/ preparing a substrate made of metal alloy , of chromia-forming type, the base element of which is iron (Fe) or nickel (Ni), the substrate having two main flat faces, b/ tape casting a thick ceramic layer ; c/ localized removal at one or more locations , of material of the tape-cast thick ceramic layer; d/ hot pressing the green thick ceramic layer tape; e/ grooving the thick ceramic layer so as to delimit channels that are suitable for distributing and/or collecting gases, such as H 2 O steam, H 2 ; air.
A monument comprising: a floor panel ; a left face panel perpendicular to the floor panel ; a right face panel perpendicular to the floor panel ; and an attachment system connecting the floor panel , the left face panel , and the right face panel , the attachment system comprising: a right corner bracket fitting connecting the right face panel to the floor panel ; a left corner bracket fitting connecting the left face panel to the floor panel ; and a filler panel connected to and extending between the right corner bracket fitting and the left corner bracket fitting wherein the right corner bracket fitting and the left corner bracket fitting each has a seat track interface , wherein the respective seat track interface (3848 or 3854) of at least one of the right corner bracket fitting or the left corner bracket fitting comprises a slot extending perpendicular to a respective front face of the right corner bracket fitting or the left corner bracket fitting . a floor panel ; a left face panel perpendicular to the floor panel ; a right face panel perpendicular to the floor panel ; and an attachment system connecting the floor panel , the left face panel , and the right face panel , the attachment system comprising: a right corner bracket fitting connecting the right face panel to the floor panel ; a left corner bracket fitting connecting the left face panel to the floor panel ; and a filler panel connected to and extending between the right corner bracket fitting and the left corner bracket fitting a right corner bracket fitting connecting the right face panel to the floor panel ; a left corner bracket fitting connecting the left face panel to the floor panel ; and a filler panel connected to and extending between the right corner bracket fitting and the left corner bracket fitting wherein the right corner bracket fitting and the left corner bracket fitting each has a seat track interface , wherein the respective seat track interface (3848 or 3854) of at least one of the right corner bracket fitting or the left corner bracket fitting comprises a slot extending perpendicular to a respective front face of the right corner bracket fitting or the left corner bracket fitting .
Method of preparing an electrically conductive paint, comprising the steps of: A) dispersing methyl-hydroxyethyl cellulose in demineralized water (intermediate A); B) mixing intermediate A) with aminomethyl propanol and polyacrylate (intermediate B); C) to intermediate B), adding an alcoholic solution of a surfactant and an anti-foaming agent (intermediate C); D) to intermediate C), adding 1-methoxy 2-propanol alcohol and butyl carbitol (intermediate D); E) to intermediate D), adding single wall or multi-wall carbon nanotubes, either functionalized or non-functionalized, and mixing (intermediate E); F) to intermediate E), adding silicone polyester resin (product F). A) dispersing methyl-hydroxyethyl cellulose in demineralized water (intermediate A); B) mixing intermediate A) with aminomethyl propanol and polyacrylate (intermediate B); C) to intermediate B), adding an alcoholic solution of a surfactant and an anti-foaming agent (intermediate C); D) to intermediate C), adding 1-methoxy 2-propanol alcohol and butyl carbitol (intermediate D); E) to intermediate D), adding single wall or multi-wall carbon nanotubes, either functionalized or non-functionalized, and mixing (intermediate E); F) to intermediate E), adding silicone polyester resin (product F).