mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a material layer with at least one void from a green body comprising the following steps: - applying a first suspension containing at least one binder through a first opening in a first template , - applying a second suspension containing a binder and solid particles made of a second material through a second opening in a second template , wherein the first opening in the first template is completely contained within the second opening in the second template such that the second suspension completely surrounds the first suspension , - sintering the green body containing the suspensions , characterised in that by means of the sintering process, the first suspension is evaporated to provide the void and permanent cohesion of the solid particles in the second suspension is achieved. - applying a first suspension containing at least one binder through a first opening in a first template , - applying a second suspension containing a binder and solid particles made of a second material through a second opening in a second template , wherein the first opening in the first template is completely contained within the second opening in the second template such that the second suspension completely surrounds the first suspension , - sintering the green body containing the suspensions , characterised in that by means of the sintering process, the first suspension is evaporated to provide the void and permanent cohesion of the solid particles in the second suspension is achieved.
A method performed by a first server communicatively connected to a network for supporting tele-operated driving, ToD, of a vehicle, the first server comprising a VAE server, characterized in that the method comprising: • receiving a request from a client device for a ToD support, wherein the request comprises a trigger and information for supporting the ToD; • determining, by the VAE server of the first server a V2X application-specific server for said ToD support, and • responsive to the request, signalling to the client device a response to the trigger for providing support for the ToD. • receiving a request from a client device for a ToD support, wherein the request comprises a trigger and information for supporting the ToD; • determining, by the VAE server of the first server a V2X application-specific server for said ToD support, and • responsive to the request, signalling to the client device a response to the trigger for providing support for the ToD.
A monoclonal antibody directed against human CD47 that blocks the interaction of CD47 with SIRPα, for use in the treatment of human acute myeloid leukemia (AML) by stimulating phagocytosis of AML leukemic stem cells (LSC) by macrophages, wherein the antibody directed against human CD47 is used in combination with one or more additional monoclonal antibodies directed against IL1RAP.
An explosion-proof structure formed by: a fastener ; two internal space-forming members , joined together to form an internal space , one internal space-forming member comprising an insertion hole , the other internal space-forming member comprising a fastening hole , the two internal space-forming members comprising two joints being joined together by the fastener being inserted into the insertion hole and fastened to the fastening hole , the two joints forming a ring extending along the outer periphery of the internal space ; and a plug attached to the insertion hole so as to cover a head of the fastener ; characterized in that the plug comprises a male thread that screws into the insertion hole ; and the fastening hole is located on the internal space side of the two joints . a fastener ; two internal space-forming members , joined together to form an internal space , one internal space-forming member comprising an insertion hole , the other internal space-forming member comprising a fastening hole , the two internal space-forming members comprising two joints being joined together by the fastener being inserted into the insertion hole and fastened to the fastening hole , the two joints forming a ring extending along the outer periphery of the internal space ; and a plug attached to the insertion hole so as to cover a head of the fastener ; characterized in that the plug comprises a male thread that screws into the insertion hole ; and the fastening hole is located on the internal space side of the two joints .
A resin composition for VaRTM, comprising: a radically curable resin (A); an unsaturated monomer (B) having a boiling point of 200°C or higher under atmospheric pressure; and a polymerization initiator (C), wherein the mass ratio (A)/(B) of the radically curable resin (A) to the unsaturated monomer (B) is in the range of 30/70 to 70/30, wherein the resin composition has a viscosity at 25°C in the range of 30 to 2,000 mPa•s, and wherein the unsaturated monomer (B) is phenoxyethyl methacrylate and/or benzyl methacrylate. wherein the mass ratio (A)/(B) of the radically curable resin (A) to the unsaturated monomer (B) is in the range of 30/70 to 70/30, wherein the resin composition has a viscosity at 25°C in the range of 30 to 2,000 mPa•s, and wherein the unsaturated monomer (B) is phenoxyethyl methacrylate and/or benzyl methacrylate.
An assembly comprising a catheter package, a hydrophilic coated catheter and a urine collecting bag , the collecting bag being attached to or communicating with the catheter so that, in use, urine is able to flow through the catheter and into the collecting bag , the assembly comprising - a cavity in the package adapted for storing the hydrophilic coated catheter and liquid swelling medium for wetting the coating on the catheter; and - a liquid stop in the catheter so that the liquid swelling medium is prevented from flowing from the cavity , through the catheter and into the urine collecting bag during storage. - wherein the catheter is a telescopic catheter comprising an outer catheter part and an inner catheter part characterised in that the outer catheter part and the inner catheter part are connected through a cone-lock and in that the cone-lock is provided with an extension element and wherein either - the distal end of the outer catheter part is provided with a sealing element that, in a collapsed position of the telescopic catheter, cooperates with the extension element to provide a sealing preventing liquid from flowing through the catheter ; or - the extension element is provided with a sealing element that, in a collapsed position of the telescopic catheter, cooperates with a distal end of the outer catheter part to provide a sealing preventing liquid from flowing through the catheter . - a cavity in the package adapted for storing the hydrophilic coated catheter and liquid swelling medium for wetting the coating on the catheter; and - a liquid stop in the catheter so that the liquid swelling medium is prevented from flowing from the cavity , through the catheter and into the urine collecting bag during storage. - wherein the catheter is a telescopic catheter comprising an outer catheter part and an inner catheter part characterised in that the outer catheter part and the inner catheter part are connected through a cone-lock and in that the cone-lock is provided with an extension element and wherein either - the distal end of the outer catheter part is provided with a sealing element that, in a collapsed position of the telescopic catheter, cooperates with the extension element to provide a sealing preventing liquid from flowing through the catheter ; or - the extension element is provided with a sealing element that, in a collapsed position of the telescopic catheter, cooperates with a distal end of the outer catheter part to provide a sealing preventing liquid from flowing through the catheter .
A computer-implemented method for navigating a host vehicle , the method comprising: receiving , from an image capture device , a plurality of images representative of an environment of the host vehicle , the environment including a road on which the host vehicle is traveling; analyzing at least one of the plurality of images to identify a target vehicle traveling in a lane of the road different from a lane in which the host vehicle is traveling; analyzing at least one of the plurality of images to identify at least one lane mark associated with the lane in which the target vehicle is traveling; determining at least one characteristic of the target vehicle based on the plurality of images, the method being characterised in that : the at least one determined characteristic of the target vehicle includes a detected lateral motion of the target vehicle relative to the at least one identified lane mark ; and determining a navigational action for the host vehicle based on the determined characteristic of the target vehicle . receiving , from an image capture device , a plurality of images representative of an environment of the host vehicle , the environment including a road on which the host vehicle is traveling; analyzing at least one of the plurality of images to identify a target vehicle traveling in a lane of the road different from a lane in which the host vehicle is traveling; analyzing at least one of the plurality of images to identify at least one lane mark associated with the lane in which the target vehicle is traveling; determining at least one characteristic of the target vehicle based on the plurality of images, the at least one determined characteristic of the target vehicle includes a detected lateral motion of the target vehicle relative to the at least one identified lane mark ; and determining a navigational action for the host vehicle based on the determined characteristic of the target vehicle .
A communication network, comprising a first base station, a second base station, and a user equipment, UE, wherein the first base station is configured to communicate with the UE, and user data transmission exists between the first base station and the UE, and wherein the first base station is further configured to perform control signaling interaction with the UE by using a signaling radio bearer SRB3, wherein the UE is also in communication with the second base station, the second base station is a base station different from the first base station, and the second base station is a base station configured to perform control signaling interaction with the UE by using a signaling radio bearer SRB0, a signaling radio bearer SRB1, or a signaling radio bearer SRB2, and the second base station is further configured to send a radio resource control, RRC, message to the UE by using the signaling radio bearer SRB1, for the UE to establish the signaling radio bearer SRB3, and the UE is configured to establish the signaling radio bearer SRB3 according to the RRC message; wherein the first base station comprises: a first radio resource configuring module , configured to configure a radio resource of an air interface connection between the first base station and the UE; and a first signaling transmitting module , configured to send a configuration message to the UE by using the signaling radio bearer SRB3, wherein the configuration message comprises radio resource configuration of the air interface connection. a first radio resource configuring module , configured to configure a radio resource of an air interface connection between the first base station and the UE; and a first signaling transmitting module , configured to send a configuration message to the UE by using the signaling radio bearer SRB3, wherein the configuration message comprises radio resource configuration of the air interface connection.
A fused surge protective device (SPD) module (280; 600), comprising: a first electrical terminal ; a second electrical terminal ; an overvoltage protection circuit connected between the first electrical terminal and the second electrical terminal; and a bimetallic fuse (200; 500) including a bimetallic fuse element (240; 540) connected in series with the overvoltage protection circuit between the first and second electrical terminals; wherein the bimetallic fuse element includes: a first metal layer (250; 550) having a first coefficient of thermal expansion; and a second metal layer (252; 552) having a second coefficient of thermal expansion; wherein the first coefficient of thermal expansion is greater than the second coefficient of thermal expansion; wherein the bimetallic fuse element is configured to disintegrate in response to a current flowing through the bimetallic fuse element to thereby disconnect the first electrical terminal from the second electrical terminal; wherein the bimetallic fuse element is configured to bend in a deformation direction (B), due to the difference in the coefficients of thermal expansion of the first and second metal layers, in response to heat generated in the bimetallic fuse element by the current flowing through the bimetallic fuse element; and wherein said bending assists in extinguishing electrical arcing from the bimetallic fuse element. a first electrical terminal ; a second electrical terminal ; an overvoltage protection circuit connected between the first electrical terminal and the second electrical terminal; and a bimetallic fuse (200; 500) including a bimetallic fuse element (240; 540) connected in series with the overvoltage protection circuit between the first and second electrical terminals; wherein the bimetallic fuse element includes: a first metal layer (250; 550) having a first coefficient of thermal expansion; and a second metal layer (252; 552) having a second coefficient of thermal expansion; wherein the first coefficient of thermal expansion is greater than the second coefficient of thermal expansion; a first metal layer (250; 550) having a first coefficient of thermal expansion; and a second metal layer (252; 552) having a second coefficient of thermal expansion; wherein the first coefficient of thermal expansion is greater than the second coefficient of thermal expansion; wherein the bimetallic fuse element is configured to disintegrate in response to a current flowing through the bimetallic fuse element to thereby disconnect the first electrical terminal from the second electrical terminal; wherein the bimetallic fuse element is configured to bend in a deformation direction (B), due to the difference in the coefficients of thermal expansion of the first and second metal layers, in response to heat generated in the bimetallic fuse element by the current flowing through the bimetallic fuse element; and wherein said bending assists in extinguishing electrical arcing from the bimetallic fuse element.
Method of enriching an arabinose fraction containing, besides arabinose, at least one mineral acid, preferably at least one mineral acid selected from the group of nitric acid, hydrochloric acid, sulfuric acid and phosphoric acid, as well as at least one metal cation containing compound, preferably at least one alkali metal or earth alkali metal cation containing compound; said method comprising the consecutive steps of: a) providing an aqueous liquid comprising said arabinose fraction; b) subjecting the aqueous liquid to a treatment resulting in the replacement of metal cations by protons, preferably to a treatment selected from cation exchange treatment and electrodialysis; c) passing the aqueous liquid obtained in step b) through a nano filtration membrane having a molecular weight cut-off value within the range of 150-250 Da; d) collecting the retentate as the enriched arabinose fraction. a) providing an aqueous liquid comprising said arabinose fraction; b) subjecting the aqueous liquid to a treatment resulting in the replacement of metal cations by protons, preferably to a treatment selected from cation exchange treatment and electrodialysis; c) passing the aqueous liquid obtained in step b) through a nano filtration membrane having a molecular weight cut-off value within the range of 150-250 Da; d) collecting the retentate as the enriched arabinose fraction.
A filter cartridge comprising: (a) media having first and second ends ; and surrounding and defining an open filter interior; (b) a first, open, end piece being positioned at the first end of the media ; and, (c) a housing seal arrangement positioned on the first end piece and comprising: (i) a first radially directed seal surface having at least three radially outwardly projecting sections alternating with at least three, radially inwardly projecting sections , creating a non-circular seal perimeter. (a) media having first and second ends ; and surrounding and defining an open filter interior; (b) a first, open, end piece being positioned at the first end of the media ; and, (c) a housing seal arrangement positioned on the first end piece and comprising: (i) a first radially directed seal surface having at least three radially outwardly projecting sections alternating with at least three, radially inwardly projecting sections , creating a non-circular seal perimeter. (i) a first radially directed seal surface having at least three radially outwardly projecting sections alternating with at least three, radially inwardly projecting sections , creating a non-circular seal perimeter.
An arrangement for metering the flow of fluid in a flowline or jumper for transport of hydrocarbon production fluid, wherein the flowline or jumper is subjected to internal and external loads and forces which are taken up by the wall of the flowline or jumper, the arrangement comprising a flow metering instrument , a metering pipe loop which is adapted for installation of the flow metering instrument , the metering pipe loop having an inlet and an outlet respectively connected in fluid flow communication with the flowline or jumper on either side of a plug effectively directing all fluid in the flowline or jumper into the metering pipe loop , whereby the metering pipe loop is arranged such that the flow metering instrument installed in the metering pipe loop is isolated from the path (L) of load which is defined by the flowline or jumper; wherein the metering pipe loop comprises a first pipe section connected to a first T-connection and a second pipe section connected to a second T-connection , a third pipe section connecting the first and second pipe sections in the ends remote from the T-connections; wherein straight portions of the interconnected T-connections provide a bridge that transfers the load past the metering pipe loop , thus isolating the flow metering instrument from the subject loads; wherein the plug is installed between the straight portions of the interconnected T-connections for routing the fluid in the flowline or jumper into the first or second pipe section of the metering pipe loop ; characterized in that the plug has a cup-shaped face towards the flow in the flowline or jumper. wherein the metering pipe loop comprises a first pipe section connected to a first T-connection and a second pipe section connected to a second T-connection , a third pipe section connecting the first and second pipe sections in the ends remote from the T-connections; wherein straight portions of the interconnected T-connections provide a bridge that transfers the load past the metering pipe loop , thus isolating the flow metering instrument from the subject loads; wherein the plug is installed between the straight portions of the interconnected T-connections for routing the fluid in the flowline or jumper into the first or second pipe section of the metering pipe loop ; characterized in that the plug has a cup-shaped face towards the flow in the flowline or jumper.
A liquefied gas storage tank comprising a heat insulation part, wherein the heat insulation part comprises a plurality of regions in which heat insulation panels having different densities are disposed, respectively, the plurality of regions being divided based on impact on the storage tank due to a load of liquefied gas and sloshing of the liquefied gas, wherein the plurality of regions comprises: a first density region formed on a bottom surface of the storage tank; a second density region formed on front, side and back surfaces of the storage tank; and a third density region formed on an upper surface of the storage tank, characterised in that the plurality of regions further comprises: a fourth density region formed at a central portion on the upper surface of the storage tank to be surrounded by the third density region .
A process for the production of lipids from biomass including at least one polysaccharide comprising: - subjecting said biomass, including at least one polysaccharide to acid hydrolysis obtaining a first mixture comprising a first solid phase and a first aqueous phase; - feeding said first aqueous phase to a fermentation device in the presence of at least one oleaginous yeast obtaining a first fermentation broth comprising a first oleaginous cellular biomass; - subjecting said first solid phase to acid hydrolysis or to enzymatic hydrolysis obtaining a second mixture comprising a second solid phase and a second aqueous phase; - feeding said second aqueous phase to said fermentation device in the presence of said first fermentation broth obtaining a second fermentation broth comprising a second oleaginous cellular biomass including lipids; - subjecting at least a part of said second fermentation broth to microfiltration obtaining a retentate and a permeate; - feeding said retentate to said fermentation device. - subjecting said biomass, including at least one polysaccharide to acid hydrolysis obtaining a first mixture comprising a first solid phase and a first aqueous phase; - feeding said first aqueous phase to a fermentation device in the presence of at least one oleaginous yeast obtaining a first fermentation broth comprising a first oleaginous cellular biomass; - subjecting said first solid phase to acid hydrolysis or to enzymatic hydrolysis obtaining a second mixture comprising a second solid phase and a second aqueous phase; - feeding said second aqueous phase to said fermentation device in the presence of said first fermentation broth obtaining a second fermentation broth comprising a second oleaginous cellular biomass including lipids; - subjecting at least a part of said second fermentation broth to microfiltration obtaining a retentate and a permeate; - feeding said retentate to said fermentation device.
A single-sided support induction heated roll apparatus including: a stationary shaft including one side supported by a machine base ; a roller body having a cylindrical shape and rotatably supported by the stationary shaft with a bearing interposed between the roller body and the stationary shaft ; an induction heater provided inside the roller body and configured to allow the roller body to inductively generate heat; and an axial gap motor provided between the machine base and the roller body and configured to rotate the roller body with respect to the stationary shaft . a stationary shaft including one side supported by a machine base ; a roller body having a cylindrical shape and rotatably supported by the stationary shaft with a bearing interposed between the roller body and the stationary shaft ; an induction heater provided inside the roller body and configured to allow the roller body to inductively generate heat; and an axial gap motor provided between the machine base and the roller body and configured to rotate the roller body with respect to the stationary shaft .