mhurhangee/ep-ind-claims huggingface dataset:
A vehicle tire comprising a tread portion and a package of reinforcement layers arranged underneath (radially inwards from) the tread portion, the tread portion comprising a tread layer that provides a ground contacting surface and is disposed in a radially outward part of the tire, and a tread base layer arranged underneath the tread layer, the tread portion further comprising at least one rubber member (30a, 30b) that extends in the radial direction of the tire from the ground contacting surface to the reinforcement package, the tread layer rubber composition having an electrical resistivity at room temperature according to ASTM D4496 of more than 10 8 ohm-cm; the tread base layer rubber composition having an electrical resistivity at room temperature according to ASTM D4496 of between 10 6 ohm-cm and 10 8 ohm-cm; the member rubber composition having an electrical resistivity at room temperature according to ASTM D4496 of less than 10 6 ohm-cm; and the rubber composition of at least one layer (6, 7, 13) of the reinforcement package having an electrical resistivity at room temperature according to ASTM D4496 of less than 10 6 ohm-cm.
A method for manufacturing a closure cap, wherein a connecting part and a vibration-damper element are produced, characterized in that - the connecting part is produced of an injection-molding material by means of injection-molding, - by means of injection-molding, a pre-form part is produced of a blowing-material having a higher viscosity than that of the injection-molding material, - the connecting part and the pre-form part are melted together, and - the pre-form part integrated onto the connecting part is shaped by means of blowing to form the vibration-damper element. - the connecting part is produced of an injection-molding material by means of injection-molding, - by means of injection-molding, a pre-form part is produced of a blowing-material having a higher viscosity than that of the injection-molding material, - the connecting part and the pre-form part are melted together, and - the pre-form part integrated onto the connecting part is shaped by means of blowing to form the vibration-damper element.
A compound having the formula 1: wherein RCO- is octanoyl, decanoyl, lauroyl, or a C 6 to C 20 acyl radical derived from coconut oil, hydrogenated coconut oil, hydrogenated and/or fractionated coconut oil fatty acids, palm kernel oil, hydrogenated palm kernel oil, or hydrogenated and/or fractionated palm kernel oil fatty acids; R 1 is 1,3-propylene or 1,3-butylene; R 2 and R 3 are methyl; and R 4 is 2-hydroxy-1,3-propylene. RCO- is octanoyl, decanoyl, lauroyl, or a C 6 to C 20 acyl radical derived from coconut oil, hydrogenated coconut oil, hydrogenated and/or fractionated coconut oil fatty acids, palm kernel oil, hydrogenated palm kernel oil, or hydrogenated and/or fractionated palm kernel oil fatty acids; R 1 is 1,3-propylene or 1,3-butylene; R 2 and R 3 are methyl; and R 4 is 2-hydroxy-1,3-propylene.
A system for delivering cryogenic fluid from a tank comprising: a. a heat exchanger having a main line; b. a liquid pickup line having an inlet configured to receive cryogenic liquid from the tank and an outlet in fluid communication with the main line of the heat exchanger; c. a trim heater exit tee having an inlet in fluid communication with the main line of the heat exchanger, a trim heater outlet and an engine outlet; d. a trim heater return tee having a primary inlet, a trim heater inlet and a combined stream outlet; e. a flow restriction device having an inlet in fluid communication with the engine outlet of the trim heater exit tee and an outlet in fluid communication with the primary inlet of the trim heater return tee; and f. a trim heater line having an inlet in fluid communication with the trim heater outlet of the trim heater exit tee wherein a portion of the trim heater line is configured to be positioned within the tank and characterised in that the trim heater line has an outlet in fluid communication with an inlet of a reheat line of the heat exchanger, and in that the reheat line comprises an outlet that is in fluid communication with the trim heater inlet of the trim heater return tee. a. a heat exchanger having a main line; b. a liquid pickup line having an inlet configured to receive cryogenic liquid from the tank and an outlet in fluid communication with the main line of the heat exchanger; c. a trim heater exit tee having an inlet in fluid communication with the main line of the heat exchanger, a trim heater outlet and an engine outlet; d. a trim heater return tee having a primary inlet, a trim heater inlet and a combined stream outlet; e. a flow restriction device having an inlet in fluid communication with the engine outlet of the trim heater exit tee and an outlet in fluid communication with the primary inlet of the trim heater return tee; and f. a trim heater line having an inlet in fluid communication with the trim heater outlet of the trim heater exit tee wherein a portion of the trim heater line is configured to be positioned within the tank and characterised in that the trim heater line has an outlet in fluid communication with an inlet of a reheat line of the heat exchanger, and in that the reheat line comprises an outlet that is in fluid communication with the trim heater inlet of the trim heater return tee.
A method performed in a base station, comprising: receiving, from at least one user equipment, a resource utilization indication that indicates resources used by said at least one user equipment for a ProSe device-to-device discovery procedure; determining, based on the received resource utilization indication, resources for the at least one user equipment to perform a subsequent ProSe device-to-device discovery procedure; and signaling the determined resources to the at least one user equipment, whereby the respective at least one user equipment performs the subsequent ProSe device-to-device discovery procedure using said determined resources, wherein the resources indicated by the resource utilization indication are radio resources and the determined resources are at least partially overlapped with resources indicated by the resource utilization indication. receiving, from at least one user equipment, a resource utilization indication that indicates resources used by said at least one user equipment for a ProSe device-to-device discovery procedure; determining, based on the received resource utilization indication, resources for the at least one user equipment to perform a subsequent ProSe device-to-device discovery procedure; and signaling the determined resources to the at least one user equipment, whereby the respective at least one user equipment performs the subsequent ProSe device-to-device discovery procedure using said determined resources, wherein the resources indicated by the resource utilization indication are radio resources and the determined resources are at least partially overlapped with resources indicated by the resource utilization indication.
A method for forming a three-dimensional memory device (100, 200), comprising: forming a dielectric stack (104, 304) comprising interleaved first dielectric layers (106, 306) and second dielectric layers (108, 308) on a substrate (102, 202, 302); forming an opening extending vertically through the dielectric stack (104, 304), wherein the diameter of the vertically extending opening increases from bottom to top, i.e. from closer to further away from the substrate; forming a nonconformal sacrificial layer along a sidewall of the opening, such that a variation of a diameter of the opening decreases; removing the nonconformal sacrificial layer and part of the dielectric stack (104, 304) abutting the nonconformal sacrificial layer, thereby the opening is less tilted; and forming a channel structure (214, 322) in the opening after removing the nonconformal sacrificial layer and part of the dielectric stack (104, 304). forming a dielectric stack (104, 304) comprising interleaved first dielectric layers (106, 306) and second dielectric layers (108, 308) on a substrate (102, 202, 302); forming an opening extending vertically through the dielectric stack (104, 304), wherein the diameter of the vertically extending opening increases from bottom to top, i.e. from closer to further away from the substrate; forming a nonconformal sacrificial layer along a sidewall of the opening, such that a variation of a diameter of the opening decreases; removing the nonconformal sacrificial layer and part of the dielectric stack (104, 304) abutting the nonconformal sacrificial layer, thereby the opening is less tilted; and forming a channel structure (214, 322) in the opening after removing the nonconformal sacrificial layer and part of the dielectric stack (104, 304).
Inhibitors of sphingomyelin synthase, wherein the inhibitors of sphingomyelin synthase are 2-alkoxy benzene formyl arylamine compounds of formula, and their pharmaceutically acceptable salts; wherein, both Y and Z are carbon atoms, and X is a nitrogen atom; G is selected from substituted phenyl groups and naphthyl group; wherein the substituted phenyl groups are substituted with one or two substituents selected from oF, m-F, o-Cl, m-Cl, o-Br, m-Br, C 1-7 alkyl, and C 1-7 alkoxy but not just only one o-Cl group; R is a hydrogen atom. both Y and Z are carbon atoms, and X is a nitrogen atom; G is selected from substituted phenyl groups and naphthyl group; wherein the substituted phenyl groups are substituted with one or two substituents selected from oF, m-F, o-Cl, m-Cl, o-Br, m-Br, C 1-7 alkyl, and C 1-7 alkoxy but not just only one o-Cl group; R is a hydrogen atom.
An adhesive composition comprising: a. a first propylene-based copolymer component comprising propylene and at least one comonomer wherein the first propylene-based copolymer component has a propylene content of greater than 50 mol% and a weight average molecular weight of 100,000 or less, as determined by size exclusion chromatography using a Waters 150 gel permeation chromatograph equipped with the differential refractive index detector and calibrated using polystyrene standards; and b. a second propylene-based copolymer component comprising propylene and at least one comonomer wherein the second propylene-based copolymer component has a propylene content of greater than 50 mol%, a comonomer content of at least 2 mol% greater than the comonomer content of the first propylene-based copolymer component, and a weight average molecular weight of 100,000 or less, as determined by size exclusion chromatography using a Waters 150 gel permeation chromatograph equipped with the differential refractive index detector and calibrated using polystyrene standards. a. a first propylene-based copolymer component comprising propylene and at least one comonomer wherein the first propylene-based copolymer component has a propylene content of greater than 50 mol% and a weight average molecular weight of 100,000 or less, as determined by size exclusion chromatography using a Waters 150 gel permeation chromatograph equipped with the differential refractive index detector and calibrated using polystyrene standards; and b. a second propylene-based copolymer component comprising propylene and at least one comonomer wherein the second propylene-based copolymer component has a propylene content of greater than 50 mol%, a comonomer content of at least 2 mol% greater than the comonomer content of the first propylene-based copolymer component, and a weight average molecular weight of 100,000 or less, as determined by size exclusion chromatography using a Waters 150 gel permeation chromatograph equipped with the differential refractive index detector and calibrated using polystyrene standards.
A recombinant RhCMV or HCMV vector comprising a nucleic acid sequence encoding a heterologous antigen, wherein the heterologous antigen is a human pathogen-specific antigen isolated from hepatitis B virus, wherein the vector includes a deletion of one or more RhCMV or HCMV genes that are essential for or augment replication.
System for unloading of a powdery cargo from a ship, the system comprising a ship, the ship comprising one or more cargo holds with a cargo hold bottom which tapers towards a central point in the cargo hold, and also a fluidisation arrangement for fluidising the powdery cargo in the cargo hold such that the cargo flows towards said central point in the cargo hold, the system further comprising a pneumatic unloading pump being arranged in or adjacent the central point in the cargo hold at least partially under the bottom of the cargo hold and that the unloading pump is set up to directly receive the fluidised powdery cargo, characterised in that the unloading pump is a pressure tank pump, where the side wall of the pump comprises at least one inlet for the powdery cargo, with the inlet at height corresponding with the cargo hold bottom, wherein the powdery cargo, with the help of gravitational forces, flows into the pump and fills the pump completely or to a level corresponding to that of the cargo hold, and that the pump after filling is arranged to be pressurised to blow said cargo ashore.
An electronic device, comprising; a drift layer (112, 312) having a first conductivity type, and including a first portion and a second portion; a buffer layer (122, 362) on the drift layer and having a second conductivity type, and including a third portion and a fourth portion, wherein the buffer layer forms a first mesa that is on the first portion of the drift layer and forms a P-N junction with the drift layer, and wherein the buffer layer is not on the second portion of the drift layer and wherein the buffer layer includes an upper corner that is spaced apart vertically from the drift layer by the buffer layer; a second layer (116, 135, 145', 155, 316) on the buffer layer opposite the drift layer and having the second conductivity type, wherein the second layer forms a second mesa that is on the third portion of the buffer layer and that is not on the fourth portion of the buffer layer adjacent the second portion of the drift layer and wherein the second layer includes a lower corner in contact with the buffer layer, that is spaced apart horizontally from the upper corner of the buffer layer by a distance W and that is spaced apart vertically from the drift layer by the buffer layer, wherein the second mesa includes a vertical sidewall that is spaced apart horizontally from the upper corner of the buffer layer; a junction termination region (120, 320) in the second portion of the drift layer, wherein the junction termination region has the second conductivity type; the electronic device being characterized in a buried junction extension (124, 324) in the first portion of the drift layer that has the second conductivity type, that is in direct contact with the buffer layer and the junction termination region, and that is beneath the fourth portion of the buffer layer, wherein a first side of the buried junction extension is vertically aligned with a sidewall of the first mesa and a second side of the buried junction extension opposite the junction termination region is vertically aligned with the vertical sidewall of the second mesa.
A regenerative dialysis system, comprising: an input pump that pumps fresh dialysate fluid into a dialyzer at an input rate; an output pump that pumps used dialysate fluid from the dialyzer at an output rate, an ultrafiltration rate of the system being related to the output rate relative to the input rate; a sorbent cartridge that filters the used dialysate fluid to generate the fresh dialysate fluid; and a controller that controls the ultrafiltration rate of the system in response to a flow rate of the dialysate fluid through the sorbent cartridge based on a predefined model of compliant behavior by the sorbent cartridge. an input pump that pumps fresh dialysate fluid into a dialyzer at an input rate; an output pump that pumps used dialysate fluid from the dialyzer at an output rate, an ultrafiltration rate of the system being related to the output rate relative to the input rate; a sorbent cartridge that filters the used dialysate fluid to generate the fresh dialysate fluid; and a controller that controls the ultrafiltration rate of the system in response to a flow rate of the dialysate fluid through the sorbent cartridge based on a predefined model of compliant behavior by the sorbent cartridge.
Assembly - having at least one electrical device with a first component, a second component and a safety device and a motor vehicle wiring harness, - the second component having an electric load, an electric lead of the motor vehicle cable harness connecting the load electrically to the first component, - the safety device being arranged between the first component and the load, - during normal operations, the safety device connecting the first component electrically to the load, - upon the occurrence of a fault, the safety device responding and isolating the first component electrically from the load, - the electric lead being heated in a time interval between the occurrence of the fault and the response of the safety device, - characterized in that - the motor vehicle wiring harness has a first section, a second section and at least one latent heat accumulator, - wherein the latent heat accumulator is arranged in the second section, - wherein the latent heat accumulator is omitted in the first section, - wherein the latent heat accumulator is formed in such a way that a material of the latent heat accumulator is heated by the heat from the electric lead (21, 95) in such a way that the material is changed from a first phase state, in which the material is present during normal operations, to a second phase state within the time interval between the occurrence of the fault and the response of the safety device, in order to avoid overheating of the electric lead in the second section. - having at least one electrical device with a first component, a second component and a safety device and a motor vehicle wiring harness, - the second component having an electric load, an electric lead of the motor vehicle cable harness connecting the load electrically to the first component, - the safety device being arranged between the first component and the load, - during normal operations, the safety device connecting the first component electrically to the load, - upon the occurrence of a fault, the safety device responding and isolating the first component electrically from the load, - the electric lead being heated in a time interval between the occurrence of the fault and the response of the safety device, - characterized in that - the motor vehicle wiring harness has a first section, a second section and at least one latent heat accumulator, - wherein the latent heat accumulator is arranged in the second section, - wherein the latent heat accumulator is omitted in the first section, - wherein the latent heat accumulator is formed in such a way that a material of the latent heat accumulator is heated by the heat from the electric lead (21, 95) in such a way that the material is changed from a first phase state, in which the material is present during normal operations, to a second phase state within the time interval between the occurrence of the fault and the response of the safety device, in order to avoid overheating of the electric lead in the second section.
Device for applying adhesive in a slitter-winder of a fiber web machine, which slitter-winder comprises an unwinder for unwinding a machine roll, slitter blades (11, 12) for slitting a fiber web unwound from the machine roll into partial webs and winder for winding the partial webs into fiber web rolls, which device is fitted to apply adhesive on ends of partial webs for attaching the ends of the partial webs onto the fiber web rolls, which device comprises a support structure, a moving element and adhesive nozzles (33, 34), characterized in, that the device comprises two adhesive nozzles(33, 34) that are attached to the same moving element such that the nozzles (33, 34) are spaced apart in cross-direction in relation to the running direction of the web.
A coating film (1, 23, 101), coated on a substrate (2, 21, 111) surface, characterized in that when a cross-section is observed through a bright-field TEM image, white hard carbon layers (1b, 102) shown as white and black hard carbon layers (1a, 103) shown as black are alternately laminated in a thickness direction to have a total film thickness ranging from 1 μm to 50 μm, and the white hard carbon layers (1b, 102) have regions that have grown in a fan shape in the thickness direction, a sp 2 /sp 3 ratio of the black hard carbon layer (1a, 103) is 0.1-0.4, a sp 2 /sp 3 ratio of the white hard carbon layer (1b, 102) is 0.4-0.9, and a hydrogen content of the black (1a, 103) and/or the white (1b, 102) hard carbon layers is below 10 atom%. when a cross-section is observed through a bright-field TEM image, white hard carbon layers (1b, 102) shown as white and black hard carbon layers (1a, 103) shown as black are alternately laminated in a thickness direction to have a total film thickness ranging from 1 μm to 50 μm, and the white hard carbon layers (1b, 102) have regions that have grown in a fan shape in the thickness direction, a sp 2 /sp 3 ratio of the black hard carbon layer (1a, 103) is 0.1-0.4, a sp 2 /sp 3 ratio of the white hard carbon layer (1b, 102) is 0.4-0.9, and a hydrogen content of the black (1a, 103) and/or the white (1b, 102) hard carbon layers is below 10 atom%.
A head mounted display, HMD, device, comprising: a display configured to display content; a detection unit configured to detect movement of an object in front of the HMD device; and a processor configured to change a screen state of the display to provide a front image of the HMD device based on a location of the object when movement of the object is detected, wherein the detection unit further comprises a camera, the device being characterized in that: the display is configured to display the content to provide a virtual reality service, and when movement of the object is a user gesture in a preset form, the processor is configured to change the screen state to provide the front image based on the user gesture at a certain area of the display corresponding to the detected position where the user's hand is moved according to the gesture, such that the user who is experiencing virtual reality can view his hand and a keyboard in front of the MHD device by overlaying and displaying the photographed image, thus allowing the user to control the keyboard. a display configured to display content; a detection unit configured to detect movement of an object in front of the HMD device; and a processor configured to change a screen state of the display to provide a front image of the HMD device based on a location of the object when movement of the object is detected, wherein the detection unit further comprises a camera, the device being characterized in that: the display is configured to display the content to provide a virtual reality service, and when movement of the object is a user gesture in a preset form, the processor is configured to change the screen state to provide the front image based on the user gesture at a certain area of the display corresponding to the detected position where the user's hand is moved according to the gesture, such that the user who is experiencing virtual reality can view his hand and a keyboard in front of the MHD device by overlaying and displaying the photographed image, thus allowing the user to control the keyboard. the display is configured to display the content to provide a virtual reality service, and when movement of the object is a user gesture in a preset form, the processor is configured to change the screen state to provide the front image based on the user gesture at a certain area of the display corresponding to the detected position where the user's hand is moved according to the gesture, such that the user who is experiencing virtual reality can view his hand and a keyboard in front of the MHD device by overlaying and displaying the photographed image, thus allowing the user to control the keyboard.