mhurhangee/ep-ind-claims huggingface dataset:
A silicon based anode active material comprising: particles comprising silicon and oxygen combined with the silicon, wherein a carbon-based conductive layer is coated with on outermost surface of the particles, wherein the particles comprise a core of the silicon, a shell of silicon oxide on the core of the silicon, and the carbon-based conductive layer on the shell of silicon oxide; and phosphorus doped in the particles, wherein a content of the phosphorus with respect to a total weight of the particles and the phosphorus doped in the particles have a range from 0.01 wt% to 15 wt%, and a content of the oxygen has a range from 9.5 wt% to 25 wt%. particles comprising silicon and oxygen combined with the silicon, wherein a carbon-based conductive layer is coated with on outermost surface of the particles, wherein the particles comprise a core of the silicon, a shell of silicon oxide on the core of the silicon, and the carbon-based conductive layer on the shell of silicon oxide; and phosphorus doped in the particles, wherein a content of the phosphorus with respect to a total weight of the particles and the phosphorus doped in the particles have a range from 0.01 wt% to 15 wt%, and a content of the oxygen has a range from 9.5 wt% to 25 wt%.
A device for repairing damaged tube-to-tube sheet weld joints in a shell-and-tube equipment, the device consisting in a tubular connection element oriented along a central axial direction and comprising: - at least one inner wall, designed to enclose an inner conduit for the passage, along said central axial direction, of at least one fluid processed by said shell-and-tube equipment; and - at least one outer wall, which surrounds said at least one inner wall, wherein said tubular connection element is provided, at one end thereof, with at least one first connecting portion for the connection, through a butt-welded joint, to one corresponding tube of said shell-and-tube equipment and, on one side thereof, with at least one second connecting portion for the connection, through at least one weld bead, of said tubular connection element to at least one portion of the tube sheet of said shell-and-tube equipment, the device being characterized in that said at least one second connecting portion is provided with at least one radially projecting flange, designed to facilitate a root welding, through said at least one weld bead, between said tubular connection element and said tube sheet, said at least one radially projecting flange delimiting at least one shaped recess on said at least one outer wall for housing at least a part of said weld bead. - at least one inner wall, designed to enclose an inner conduit for the passage, along said central axial direction, of at least one fluid processed by said shell-and-tube equipment; and - at least one outer wall, which surrounds said at least one inner wall,
Coated body comprising at least - a substrate, - at least one diamond layer with a thickness of 1 - 40 μm, - and at least one hard material layer, which is composed of one or more metallic elements and one or more non-metallic elements, - wherein the metallic element or elements are selected from the group comprising Al, Si and elements of groups 4 to 6 of the periodic table according to IUPAC, - and wherein the non-metallic element or elements are selected from the group comprising B, N and O - where the hard material layer is arranged further outside on the body than the diamond layer, characterized by - an adhesive layer having a thickness of 2 - 80 nm between the diamond layer and the hard material layer and containing carbon and at least one metallic element, wherein the metallic element or elements of the adhesive layer are selected from a group comprising Ti and Cr, - wherein the adhesive layer is formed by implantation or diffusion of metal atoms in an outer zone of the diamond layer. - a substrate, - at least one diamond layer with a thickness of 1 - 40 μm, - and at least one hard material layer, which is composed of one or more metallic elements and one or more non-metallic elements, - wherein the metallic element or elements are selected from the group comprising Al, Si and elements of groups 4 to 6 of the periodic table according to IUPAC, - and wherein the non-metallic element or elements are selected from the group comprising B, N and O - where the hard material layer is arranged further outside on the body than the diamond layer, - an adhesive layer having a thickness of 2 - 80 nm between the diamond layer and the hard material layer and containing carbon and at least one metallic element, wherein the metallic element or elements of the adhesive layer are selected from a group comprising Ti and Cr, - wherein the adhesive layer is formed by implantation or diffusion of metal atoms in an outer zone of the diamond layer.
A composition comprising (i) baclofen or a pharmaceutically acceptable salt thereof, or arbaclofen placarbil or 3-(p-chlorophenyl)-4-hydroxybutyric acid, and (ii) acamprosate or a pharmaceutically acceptable salt thereof, or homotaurine or ethyl dimethyl ammonio propane sulfonate or taurine, for use in the treatment of multiple sclerosis in a subject in need thereof.
A method for producing powder metal articles comprising the steps of: sintering a compacted powder metal preform having a plurality of teeth; and forcibly moving the powder metal preform axially through at least one die having a tooth form profiles (25, 25a) forming a plurality of helical grooves extending axially through said at least one die, said plurality of helical grooves each having a length defined between top and bottom surfaces (34, 36) of said at least one die, characterized in that each of said helical grooves in said at least one die is continuous with other ones of helical grooves on an adjacent at least one die, each of said continuous helical grooves has a variable width (30, 42) along said length, said tooth form profiles (25, 25a) collectively defining a broadening width region corresponding to a narrowing portion of each of said continuous helical grooves over at least a lead portion of the tooth form profiles (25, 25a) in the direction of axial movement of the preform through said at least one die, said narrowing portion of each of said continuous helical grooves engaging and densifying the teeth of the perform.
A gel microdrop composition comprising: a polymer matrix, a single antibody-producing cell that secretes an antibody into said polymer matrix; a first reporter particle that emits a first optically detectable signal; and a second reporter particle that emits a second optically detectable signal that is distinguishable from the first optically detectable signal; wherein the reporter particles are different and one reporter particle acts as either a positive or negative control for the other reporter particle; wherein said cell and said first and second reporter particles are encapsulated by said polymer matrix and wherein an alteration in an optically detectable signal localized with one of the first and second reporter particles indicates that said antibody has a specific effect on one of said first and second reporter particles. a polymer matrix, a single antibody-producing cell that secretes an antibody into said polymer matrix; a first reporter particle that emits a first optically detectable signal; and a second reporter particle that emits a second optically detectable signal that is distinguishable from the first optically detectable signal;
A method for differentiating human pluripotent stems cells (hPSCs) into human smooth muscle-like cells (hSMLCs) in vitro, comprising a) plating a single-cell suspension of hPSCs that are smaller than 50 μm at a seeding concentration of 5x10 4 cells/cm 2 - 1x10 5 cells/cm 2 onto a suitable surface wherein the suitable surface is a plate coated with an adhesive substrate selected from the group consisting of type IV collagen, laminin and gelatin, and culturing the cells under conditions which prevent the hPSCs from aggregating and which induce differentiation of the hPSCs into human vasculogenic progenitor cells; b) harvesting the cultured cells of step a) and separating them into a single cell suspension of cells that are smaller than 50 μm; c) plating the single cell suspension of step b) at a seeding concentration of 1 x 10 4 cells/cm 2 - 5 x 104 cells/cm 2 on a suitable surface, and culturing the cells in a differentiation medium that is supplemented with platelet-derived growth factor BB (PDGF-BB) and transforming growth factor-beta 1 (TGFβ1), for a sufficient period of time to allow the human vasculogenic progenitor cells to mature into hSMLCs; and d) applying shear stress to the cells from step c) by subjecting them to shear force of at least 1 dyne/cm 2 for at least 48 hours to enhance differentiation, maturation and/or functionality of the cells; wherein the single cell suspensions of cells that are smaller than 50 μm are generated by a method comprising sorting the cells through a 40 μm mesh strainer. a) plating a single-cell suspension of hPSCs that are smaller than 50 μm at a seeding concentration of 5x10 4 cells/cm 2 - 1x10 5 cells/cm 2 onto a suitable surface wherein the suitable surface is a plate coated with an adhesive substrate selected from the group consisting of type IV collagen, laminin and gelatin, and culturing the cells under conditions which prevent the hPSCs from aggregating and which induce differentiation of the hPSCs into human vasculogenic progenitor cells; b) harvesting the cultured cells of step a) and separating them into a single cell suspension of cells that are smaller than 50 μm; c) plating the single cell suspension of step b) at a seeding concentration of 1 x 10 4 cells/cm 2 - 5 x 104 cells/cm 2 on a suitable surface, and culturing the cells in a differentiation medium that is supplemented with platelet-derived growth factor BB (PDGF-BB) and transforming growth factor-beta 1 (TGFβ1), for a sufficient period of time to allow the human vasculogenic progenitor cells to mature into hSMLCs; and d) applying shear stress to the cells from step c) by subjecting them to shear force of at least 1 dyne/cm 2 for at least 48 hours to enhance differentiation, maturation and/or functionality of the cells;
A communication system comprising: a first base station configured to execute a process in a Packet Data Control Protocol, PDCP, layer; and a second base station configured to execute a process in a Radio Link Control, RLC, layer on data transmitted by the first base station and transmit the data on which the process in the RLC layer has been executed to a mobile station, wherein the second base station is configured to transmit a response message to the first base station when the data has been successfully transmitted to the mobile station, when the first base station receives the response message, the first base station is configured to transmit data to be transmitted next to the second base station; the system being characterised in that when the first base station receives user data addressed to the mobile station, the first base station is configured to transmit a session additional request message to the second base station and to instruct the second base station to establish a session with the mobile station; and in that the first base station is configured to: execute the process in the RLC layer in the first base station, transmit the user data to the mobile station, and include the PDCP Protocol Data Unit, PDU, sequence number of the PDCP PDU that has been successfully transmitted to the mobile station and the Hyper Frame Number, HFN, used to conceal the PDCP PDU that has been successfully transmitted to the mobile station in an SeNB Additional Request as the session additional request message. a first base station configured to execute a process in a Packet Data Control Protocol, PDCP, layer; and a second base station configured to execute a process in a Radio Link Control, RLC, layer on data transmitted by the first base station and transmit the data on which the process in the RLC layer has been executed to a mobile station, wherein the second base station is configured to transmit a response message to the first base station when the data has been successfully transmitted to the mobile station, when the first base station receives the response message, the first base station is configured to transmit data to be transmitted next to the second base station; the system being characterised in that when the first base station receives user data addressed to the mobile station, the first base station is configured to transmit a session additional request message to the second base station and to instruct the second base station to establish a session with the mobile station; and in that the first base station is configured to: execute the process in the RLC layer in the first base station, transmit the user data to the mobile station, and include the PDCP Protocol Data Unit, PDU, sequence number of the PDCP PDU that has been successfully transmitted to the mobile station and the Hyper Frame Number, HFN, used to conceal the PDCP PDU that has been successfully transmitted to the mobile station in an SeNB Additional Request as the session additional request message.
A power supply apparatus, comprising: a plurality of power modules (20,30) for receiving alternating current power to provide the power to a load; an uninterruptible supply module installed on one side of the plurality of power modules (20,30) to supply self-power to the load; an inverter module installed on one side of the plurality of power modules (20,30) or the uninterruptible supply module to convert power and provide the converted power to the load; direct current bus bars provided inside enclosures of the plurality of power modules (20,30), the uninterruptible supply module, and the inverter module, respectively; and a connection bus bar for connecting adjacent direct current bus bars, wherein in the plurality of power modules (20,30) and the uninterruptible supply module, an alternating current/direct current converter or a direct current/direct current converter is provided above the direct current bus bar, or the alternating current/direct current converter or the direct current/direct current converter is provided under the direct current bus bar. a plurality of power modules (20,30) for receiving alternating current power to provide the power to a load; an uninterruptible supply module installed on one side of the plurality of power modules (20,30) to supply self-power to the load; an inverter module installed on one side of the plurality of power modules (20,30) or the uninterruptible supply module to convert power and provide the converted power to the load; direct current bus bars provided inside enclosures of the plurality of power modules (20,30), the uninterruptible supply module, and the inverter module, respectively; and a connection bus bar for connecting adjacent direct current bus bars, wherein in the plurality of power modules (20,30) and the uninterruptible supply module, an alternating current/direct current converter or a direct current/direct current converter is provided above the direct current bus bar, or the alternating current/direct current converter or the direct current/direct current converter is provided under the direct current bus bar.
A disc brake assembly, comprising: a caliper arranged to be mounted over a rotor, the caliper having a rotor receiving region and an opening in which first and second brake pads (110, 120) are received on either side of the rotor receiving region; the disc brake assembly further comprising: a spring member; characterised in that the spring member is arranged to provide a biasing force to each of the first and second brake pads, to retain them within the caliper; wherein the spring member comprises at least one pad alignment feature, the pad alignment feature being arranged to allow the spring member to be properly assembled on the caliper only when a corresponding one or both of the brake pads (110, 120) is/are aligned with its friction material facing a rotor receiving region of the caliper and when the brake pad further comprises a corresponding alignment feature arranged to engage the pad alignment feature of the spring member. a caliper arranged to be mounted over a rotor, the caliper having a rotor receiving region and an opening in which first and second brake pads (110, 120) are received on either side of the rotor receiving region; the disc brake assembly further comprising: a spring member; characterised in that the spring member is arranged to provide a biasing force to each of the first and second brake pads, to retain them within the caliper; wherein the spring member comprises at least one pad alignment feature, the pad alignment feature being arranged to allow the spring member to be properly assembled on the caliper only when a corresponding one or both of the brake pads (110, 120) is/are aligned with its friction material facing a rotor receiving region of the caliper and when the brake pad further comprises a corresponding alignment feature arranged to engage the pad alignment feature of the spring member. a spring member; characterised in that the spring member is arranged to provide a biasing force to each of the first and second brake pads, to retain them within the caliper; wherein the spring member comprises at least one pad alignment feature, the pad alignment feature being arranged to allow the spring member to be properly assembled on the caliper only when a corresponding one or both of the brake pads (110, 120) is/are aligned with its friction material facing a rotor receiving region of the caliper and when the brake pad further comprises a corresponding alignment feature arranged to engage the pad alignment feature of the spring member.
A method for manufacturing an optoelectronic device comprising at least one first area devoid of three-dimensional semiconductor structures and at least one second area provided with three-dimensional semiconductor structures, said method comprising: - A provision of a support carrying on a basal plane (xy) a plurality of three-dimensional semiconductor structures, said structures each having a base facing a first side and a vertex opposite the base, facing a second side opposite the first side, - A formation, from the first side, of a sacrificial portion under the bases of a first set of 3D structures of the plurality of three-dimensional semiconductor structures, - A formation of a barrier portion around the sacrificial portion, said barrier portion having a basal wall extending under the sacrificial portion, and a side wall extending along the edge of the sacrificial portion, said side wall separating, in projection in a direction (z) normal to the basal plane (xy), the first set of 3D structures from a second set of 3D structures of the plurality of three-dimensional semiconductor structures (2, 2a, 2b), - A formation, from the second side, of an access trench up to the sacrificial portion, said access trench extending continuously along the side wall of the barrier portion, in projection in the direction (z) normal to the basal plane (xy), - An etching of the sacrificial portion from the access trench, - A removal of the first set of 3D structures, so as to define at least one first area of the device. - A provision of a support carrying on a basal plane (xy) a plurality of three-dimensional semiconductor structures, said structures each having a base facing a first side and a vertex opposite the base, facing a second side opposite the first side, - A formation, from the first side, of a sacrificial portion under the bases of a first set of 3D structures of the plurality of three-dimensional semiconductor structures, - A formation of a barrier portion around the sacrificial portion, said barrier portion having a basal wall extending under the sacrificial portion, and a side wall extending along the edge of the sacrificial portion, said side wall separating, in projection in a direction (z) normal to the basal plane (xy), the first set of 3D structures from a second set of 3D structures of the plurality of three-dimensional semiconductor structures (2, 2a, 2b), - A formation, from the second side, of an access trench up to the sacrificial portion, said access trench extending continuously along the side wall of the barrier portion, in projection in the direction (z) normal to the basal plane (xy), - An etching of the sacrificial portion from the access trench, - A removal of the first set of 3D structures, so as to define at least one first area of the device.
A catheter comprising: a tubular member having a lumen and an outer surface; a proximal member disposed on a proximal end of the tubular member, the proximal member being configured to engage a urethra meatus, a distal member disposed on a distal end of the tubular member; a sleeve configured to be positioned in the lumen of the tubular member in a retracted configuration and to evert over at least a portion of the outer surface of the tubular member in an everted configuration; a filament configured to retract the sleeve into the retracted configuration; and an aperture disposed through a sidewall of the tubular member or through a sidewall of the distal member, the aperture being proximal of a distal end of the catheter, wherein the filament extends from the lumen through the aperture and out of the catheter. a tubular member having a lumen and an outer surface; a proximal member disposed on a proximal end of the tubular member, the proximal member being configured to engage a urethra meatus, a distal member disposed on a distal end of the tubular member; a sleeve configured to be positioned in the lumen of the tubular member in a retracted configuration and to evert over at least a portion of the outer surface of the tubular member in an everted configuration; a filament configured to retract the sleeve into the retracted configuration; and an aperture disposed through a sidewall of the tubular member or through a sidewall of the distal member, the aperture being proximal of a distal end of the catheter, wherein the filament extends from the lumen through the aperture and out of the catheter.
A method for transmitting uplink control information, UCI, performed by a terminal, the method comprising: receiving, from a base station, BS, an uplink, UL, grant; and transmitting, to the BS, the UCI including periodic channel state information, CSI, on a physical uplink shared channel, PUSCH, of a scheduled secondary cell, Scell, with a smallest secondary cell, index, SCellIndex, in a licensed band wherein the terminal is configured for simultaneous physical uplink control channel, PUCCH, and PUSCH transmission, and the terminal is not transmitting the PUSCH on a primary cell, and the UCI includes the periodic CSI and acknowledgement information. receiving, from a base station, BS, an uplink, UL, grant; and transmitting, to the BS, the UCI including periodic channel state information, CSI, on a physical uplink shared channel, PUSCH, of a scheduled secondary cell, Scell, with a smallest secondary cell, index, SCellIndex, in a licensed band wherein the terminal is configured for simultaneous physical uplink control channel, PUCCH, and PUSCH transmission, and the terminal is not transmitting the PUSCH on a primary cell, and the UCI includes the periodic CSI and acknowledgement information.