mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method for a network node for internet protocol, IP, routing compatibility, the method comprising: receiving a packet comprising a name of a content that comprises first information indicating a location of the content, and second information identifying the content; determining whether the packet corresponds to a content-centric network packet, or determining whether the packet corresponds to a content-centric network, CCN, packet based on a protocol field of an IP header of the packet; determining whether a CCN processing function is supported, and upon determining that the CCN processing function is supported: extracting the second information from the packet; determining whether the content corresponding to the second information is present in a content store, CS , in response to the packet being determined to correspond to the CCN packet; transmitting the content based on a result of the determining of whether the content corresponding to the second information is present in the CS ; and forwarding the packet to another network node based on whether the content corresponding to the second information is stored in the network node . receiving a packet comprising a name of a content that comprises first information indicating a location of the content, and second information identifying the content; determining whether the packet corresponds to a content-centric network packet, or determining whether the packet corresponds to a content-centric network, CCN, packet based on a protocol field of an IP header of the packet; determining whether a CCN processing function is supported, and upon determining that the CCN processing function is supported: extracting the second information from the packet; determining whether the content corresponding to the second information is present in a content store, CS , in response to the packet being determined to correspond to the CCN packet; transmitting the content based on a result of the determining of whether the content corresponding to the second information is present in the CS ; and forwarding the packet to another network node based on whether the content corresponding to the second information is stored in the network node . extracting the second information from the packet; determining whether the content corresponding to the second information is present in a content store, CS , in response to the packet being determined to correspond to the CCN packet; transmitting the content based on a result of the determining of whether the content corresponding to the second information is present in the CS ; and forwarding the packet to another network node based on whether the content corresponding to the second information is stored in the network node .
Injection molded article comprising a propylene homopolymer having (a) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 40 to 120 g/10min; (b) a pentad isotacticity (mmmm) of more than 92.5 % determined by 13 C-NMR; (c) a xylene cold soluble content (XCS) determined according ISO 16152 (25 °C) of below 4.0 wt.-%; and (d) a meso sequence length (MSL4) of 91.0 to 160; MSL4 is calculated by formula MSL 4 = 2 ∗ mmmm mmmr + 4 wherein "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, determined by 13 C-NMR spectroscopy. (a) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 40 to 120 g/10min; (b) a pentad isotacticity (mmmm) of more than 92.5 % determined by 13 C-NMR; (c) a xylene cold soluble content (XCS) determined according ISO 16152 (25 °C) of below 4.0 wt.-%; and (d) a meso sequence length (MSL4) of 91.0 to 160; MSL4 is calculated by formula MSL 4 = 2 ∗ mmmm mmmr + 4 wherein "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, determined by 13 C-NMR spectroscopy. "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, determined by 13 C-NMR spectroscopy.
A method of producing a roll-shaped body comprising: obtaining an adhesive agent sheet having an embossed shape at both surfaces thereof by imparting an embossed shape on both surfaces of an adhesive agent sheet containing a thermoplastic resin as a main component by extruding a melt of an adhesive agent containing the thermoplastic resin as a main component from a T-die, bringing the melt extruded from the T-die into contact with a surface of a casting roll having an embossed shape at the surface thereof, and nipping the melt from the opposite surface with a nip roll having an embossed shape at the surface thereof, overlapping a protective sheet having releasability from the adhesive agent sheet to at least one surface of the adhesive agent sheet having the embossed shape at both surfaces thereof, and obtaining the roll-shaped body by winding up the adhesive agent sheet having the embossed shape at both surfaces thereof and the protective sheet that are overlapped facing one another. obtaining an adhesive agent sheet having an embossed shape at both surfaces thereof by imparting an embossed shape on both surfaces of an adhesive agent sheet containing a thermoplastic resin as a main component by extruding a melt of an adhesive agent containing the thermoplastic resin as a main component from a T-die, bringing the melt extruded from the T-die into contact with a surface of a casting roll having an embossed shape at the surface thereof, and nipping the melt from the opposite surface with a nip roll having an embossed shape at the surface thereof, overlapping a protective sheet having releasability from the adhesive agent sheet to at least one surface of the adhesive agent sheet having the embossed shape at both surfaces thereof, and obtaining the roll-shaped body by winding up the adhesive agent sheet having the embossed shape at both surfaces thereof and the protective sheet that are overlapped facing one another.
An agricultural/utility vehicle having as its motive power source one or more electric motors (M1, M2) supplied by one or more rechargeable batteries , which electric motor or motors (M1, M2) are connected to drivingly rotate a shaft of a drive line when coupled to provide motive power to one or more axles of the vehicle, characterised in the vehicle having one or more recharging inputs which, when coupled to an appropriate power source (P IN , 86), cause the drive line shaft to rotate, causing the, or one of the, electric motors (M1) to act as a generator to recharge the one or more rechargeable batteries .
A multilayer transparent conductive film , comprising: an Ag film that is formed of Ag or an Ag alloy, the Ag alloy optionally including 0.2 at% to 10.0 at% of one element or two or more elements in total selected from the group consisting of Cu, Sn, Sb, Ti, Mg, Zn, Ge, In, Al, Ga, Pd, Au, Pt, Bi, Mn, Sc, Y, Nd, Sm, Eu, Gd, Tb, and Er and a balance of Ag and inevitable impurities; and a transparent conductive oxide film that is disposed on two opposite surfaces of the Ag film , wherein the transparent conductive oxide film is formed of an oxide including Zn, Ga, Ti, and optionally Y, characterized in that atomic proportions with respect to all the metal elements included in the transparent conductive oxide film are Ga: 1.0 at% to 30.0 at%, Ti: 0.1 at% to 10.0 at%, optionally Y: 0.1 at% to 10.0 at%, and a balance of Zn. an Ag film that is formed of Ag or an Ag alloy, the Ag alloy optionally including 0.2 at% to 10.0 at% of one element or two or more elements in total selected from the group consisting of Cu, Sn, Sb, Ti, Mg, Zn, Ge, In, Al, Ga, Pd, Au, Pt, Bi, Mn, Sc, Y, Nd, Sm, Eu, Gd, Tb, and Er and a balance of Ag and inevitable impurities; and a transparent conductive oxide film that is disposed on two opposite surfaces of the Ag film , wherein the transparent conductive oxide film is formed of an oxide including Zn, Ga, Ti, and optionally Y, characterized in that atomic proportions with respect to all the metal elements included in the transparent conductive oxide film are Ga: 1.0 at% to 30.0 at%, Ti: 0.1 at% to 10.0 at%, optionally Y: 0.1 at% to 10.0 at%, and a balance of Zn.
A component for a welding implement comprising: - a body extending between a first end and a second end , the first end being configured to attach to a welding implement ; - a shielding gas channel extending through the body between the first end and the second end and configured for a flow of shielding gas between the first end and the second end ; and - one or more flow restrictors within the channel , the one or more flow restrictors being configured to provide higher resistance to the flow of shielding gas at increasing distances from the center of the channel , characterized in that the one or more flow restrictors comprise a plurality of gas conduits formed within a plug, wherein the plurality of conduits have varying lengths by having the portion of the plug defining the distal ends of the conduits curve or slant inward from the outer wall toward the center of the channel . - a body extending between a first end and a second end , the first end being configured to attach to a welding implement ; - a shielding gas channel extending through the body between the first end and the second end and configured for a flow of shielding gas between the first end and the second end ; and - one or more flow restrictors within the channel , the one or more flow restrictors being configured to provide higher resistance to the flow of shielding gas at increasing distances from the center of the channel ,
A method comprising: determining , by a control system, an operational location (704a-d) at which to deploy operational infrastructure (506a-b, 600), wherein deployment of operational infrastructure enables charging of a battery of an unmanned aerial vehicle, UAV, from a group of UAVs, wherein the group of UAVs includes at least (i) a first UAV of a first type configured to deploy operational infrastructure and (ii) a second UAV of a second type configured to carry out a task other than deployment of operational infrastructure, and wherein determining the operational location at which to deploy the operational infrastructure comprises determining the operational location so that a round trip distance between the operational location and an item delivery location is less than a determined flight range for the second UAV; causing , by the control system, the first UAV to deploy operational infrastructure at the operational location; and causing , by the control system, the second UAV to charge a battery of the second UAV using the operational infrastructure deployed by the first UAV at the operational location. determining , by a control system, an operational location (704a-d) at which to deploy operational infrastructure (506a-b, 600), wherein deployment of operational infrastructure enables charging of a battery of an unmanned aerial vehicle, UAV, from a group of UAVs, wherein the group of UAVs includes at least (i) a first UAV of a first type configured to deploy operational infrastructure and (ii) a second UAV of a second type configured to carry out a task other than deployment of operational infrastructure, and wherein determining the operational location at which to deploy the operational infrastructure comprises determining the operational location so that a round trip distance between the operational location and an item delivery location is less than a determined flight range for the second UAV; causing , by the control system, the first UAV to deploy operational infrastructure at the operational location; and causing , by the control system, the second UAV to charge a battery of the second UAV using the operational infrastructure deployed by the first UAV at the operational location.
Method for manufacturing a mechatronic system comprising: - a step of manufacturing a mechanical structure (SM) by three-dimensional printing by fused filament deposition of at least one first electrically insulating material (M1); and - a step of manufacturing at least one electrical component (CE) in contact with at least one element of said mechanical structure and secured therewith; in which said step of manufacturing at least one electrical component is implemented by three-dimensional printing by fused filament deposition of at least one second material (M2), conductive or resistive, directly in contact with said element of the mechanical structure, characterized in that said or one said electrical component is a transducer (JC1, JC2), the method also comprising a local annealing step implemented during or after the deposition of a layer of the first material or of the second material, matching said deposition. - a step of manufacturing a mechanical structure (SM) by three-dimensional printing by fused filament deposition of at least one first electrically insulating material (M1); and - a step of manufacturing at least one electrical component (CE) in contact with at least one element of said mechanical structure and secured therewith;
Process for the preparation of pantoprazole sodium sesquihydrate, said process comprising: a) heating pantoprazole sodium to a temperature in the range from 40°C to 60°C, the pantoprazole sodium being at least partially present in solid form; b) adding water to the pantoprazole sodium of step a) under agitation to obtain a mixture comprising solid pantoprazole sodium and water; c) drying the mixture comprising solid pantoprazole sodium and water under agitation; and d) recovering pantoprazole sodium sesquihydrate. a) heating pantoprazole sodium to a temperature in the range from 40°C to 60°C, the pantoprazole sodium being at least partially present in solid form; b) adding water to the pantoprazole sodium of step a) under agitation to obtain a mixture comprising solid pantoprazole sodium and water; c) drying the mixture comprising solid pantoprazole sodium and water under agitation; and d) recovering pantoprazole sodium sesquihydrate.
A covering element for floors comprising a tile made of ceramic material, a reinforcing element attached to the tile , wherein the reinforcing element comprises a metal sheet which compresses the tile and said reinforcing element is attached to a lower surface of the tile , characterized in that the covering element comprises a lining of at least one edge of the tile wherein the tile has a thickness (S1) of between 5 and 10 mm, and in that said reinforcing element is adapted to cover said lower surface only partially.
An upper for an article of footwear , the upper comprising: a medial side , a lateral side , and a throat area between the medial side and the lateral side; an inner component forming an inner surface of the upper, wherein the inner component includes an inner throat region in the throat area, wherein at least one tensile strand of the inner component forms at least one loop in the inner throat region, and wherein the at least one loop includes an opening for receiving a fastening element ; and an outer shroud forming an outer surface of the upper, wherein the outer shroud at least partially covers the inner throat region of the inner component such that the at least one loop is located in a pocket formed between the inner component and the outer shroud, wherein the inner component is a knitted component , and wherein the at least one tensile strand is inlaid within the knitted component such that it extends through at least one course in a course-wise direction. a medial side , a lateral side , and a throat area between the medial side and the lateral side; an inner component forming an inner surface of the upper, wherein the inner component includes an inner throat region in the throat area, wherein at least one tensile strand of the inner component forms at least one loop in the inner throat region, and wherein the at least one loop includes an opening for receiving a fastening element ; and an outer shroud forming an outer surface of the upper, wherein the outer shroud at least partially covers the inner throat region of the inner component such that the at least one loop is located in a pocket formed between the inner component and the outer shroud, wherein the inner component is a knitted component , and wherein the at least one tensile strand is inlaid within the knitted component such that it extends through at least one course in a course-wise direction.
A method of separating sources from audio content, the audio content being of a multi-channel format based on a plurality of channels, the method comprising: performing (S101, S301) a principal component analysis, PCA, on the audio content for each frequency band using the plurality of channels to generate a plurality of components, each of the plurality of components comprising a plurality of time-frequency tiles in full frequency band; generating (S102, S302) at least one dominant source with at least one of the time-frequency tiles from the plurality of the components; and separating the sources from the audio content by estimating (S103, S303) spatial parameters and spectral parameters based on the dominant source, wherein generating at least one dominant source comprises: clustering a plurality of eigenvectors into at least one group, each group comprising a plurality of time-frequency tiles, the plurality of eigenvectors being generated from the plurality of PCA components; and generating the dominant source by tracking the group over time. performing (S101, S301) a principal component analysis, PCA, on the audio content for each frequency band using the plurality of channels to generate a plurality of components, each of the plurality of components comprising a plurality of time-frequency tiles in full frequency band; generating (S102, S302) at least one dominant source with at least one of the time-frequency tiles from the plurality of the components; and separating the sources from the audio content by estimating (S103, S303) spatial parameters and spectral parameters based on the dominant source, wherein generating at least one dominant source comprises: clustering a plurality of eigenvectors into at least one group, each group comprising a plurality of time-frequency tiles, the plurality of eigenvectors being generated from the plurality of PCA components; and generating the dominant source by tracking the group over time. clustering a plurality of eigenvectors into at least one group, each group comprising a plurality of time-frequency tiles, the plurality of eigenvectors being generated from the plurality of PCA components; and generating the dominant source by tracking the group over time.
A method of manufacturing an immune cell-containing composition comprising at least NK cells, NKT cells and T cells, the method comprising a first step of culturing mononuclear cells in a culture medium containing anti-CD16 monoclonal antibody and any one of IL-2, IL-15 or IL-2 and IL-15 to differentiate the mononuclear cells into at least NK cells and NKT cells, and a second step of performing culturing after the first step under conditions where the mononuclear cells are preferentially differentiated into cytotoxic T cells wherein the second step is performed in the presence of anti CD3 antibody.
A compound having the following formula: R1-R2(̵R3) s . wherein s is 1-20; R1 is selected from the group consisting of -NH 2 , -OH, and -SH; R2 is selected from the group consisting of alkylene, alkoxylene, alkenylene, alkynylene, cycloalkylene, heterocycloalkylene, arylene, arylene-oxy, amido and a combination thereof; and R3 is wherein R4, R5, and R6 are the same or different and are selected from the group consisting of: and wherein Z is -NCS, -F, -Cl, -Br, or -I. wherein s is 1-20; R1 is selected from the group consisting of -NH 2 , -OH, and -SH; R2 is selected from the group consisting of alkylene, alkoxylene, alkenylene, alkynylene, cycloalkylene, heterocycloalkylene, arylene, arylene-oxy, amido and a combination thereof; and R3 is wherein R4, R5, and R6 are the same or different and are selected from the group consisting of: and wherein Z is -NCS, -F, -Cl, -Br, or -I.
Method for processing polycondensates, especially polyethylene terephthalate, wherein the material (M) in the form of granules or in the form of recyclate is processed to form a melt, wherein the method comprises the following steps: a) feeding the material (M) into a vacuum lock in which the material is held at a pressure lower than the atmospheric pressure; b) conveying the material from the vacuum lock into a first extruder that has a filling region and a feed zone , wherein the filling region and the feed zone are held at a pressure lower than the atmospheric pressure and wherein the material is at least partially, preferably completely, melted in the first extruder ; c) conveying the at least partially melted material from the first extruder into a second extruder , wherein the second extruder is designed as a twin-screw extruder and the two screws thereof are turned in the opposite direction, wherein the second extruder comprises at least one degassing zone and a metering zone that follows in the conveying direction, wherein the melted material is degassed in the degassing zone and the melted material is pressurised in the metering zone and is output out of the second extruder . a) feeding the material (M) into a vacuum lock in which the material is held at a pressure lower than the atmospheric pressure; b) conveying the material from the vacuum lock into a first extruder that has a filling region and a feed zone , wherein the filling region and the feed zone are held at a pressure lower than the atmospheric pressure and wherein the material is at least partially, preferably completely, melted in the first extruder ; c) conveying the at least partially melted material from the first extruder into a second extruder , wherein the second extruder is designed as a twin-screw extruder and the two screws thereof are turned in the opposite direction, wherein the second extruder comprises at least one degassing zone and a metering zone that follows in the conveying direction, wherein the melted material is degassed in the degassing zone and the melted material is pressurised in the metering zone and is output out of the second extruder .