mhurhangee/ep-ind-claims huggingface dataset:
A system for margin assessment of an ex-vivo tissue sample, comprising: an MRI scanner controlled by an imaging control unit; an ex-vivo tissue sample containing a tumour enclosed by a peripheral margin of tissue, the lump edges of said tissue sample having an irregular shape; an ex-vivo sample holder for holding said tissue sample, said sample holder being sized and arranged for forcing said lump edges of said tissue sample against a surface of said sample holder, said sample holder thereby being arranged to change the shape of said lump edges to a predetermined geometry which conforms to said surface of said sample holder, said MRI scanner comprising an RF receive coil (36, 58) in the form of at least one surface coil, the size of said at least one surface coil being selected such that, when placed adjacent to said surface of said sample holder such that the sensitive region of said at least one surface coil extends into said peripheral margin, said sensitive region does not encompass all the tissue sample but rather said lump edges that have predetermined geometry only, said MRI scanner further comprising a magnet for creating a static magnetic field which, in said sensitive region, is relatively aligned in one direction relative to said magnet. an MRI scanner controlled by an imaging control unit; an ex-vivo tissue sample containing a tumour enclosed by a peripheral margin of tissue, the lump edges of said tissue sample having an irregular shape; an ex-vivo sample holder for holding said tissue sample, said sample holder being sized and arranged for forcing said lump edges of said tissue sample against a surface of said sample holder, said sample holder thereby being arranged to change the shape of said lump edges to a predetermined geometry which conforms to said surface of said sample holder, said MRI scanner comprising an RF receive coil (36, 58) in the form of at least one surface coil, the size of said at least one surface coil being selected such that, when placed adjacent to said surface of said sample holder such that the sensitive region of said at least one surface coil extends into said peripheral margin, said sensitive region does not encompass all the tissue sample but rather said lump edges that have predetermined geometry only, said MRI scanner further comprising a magnet for creating a static magnetic field which, in said sensitive region, is relatively aligned in one direction relative to said magnet.
An elastic composite yarn comprising a filamentary core comprised of at least one elastic performance filament and at least one inelastic control filament, and a fibrous sheath comprised of spun staple fibers surrounding the filamentary core; wherein the elastic performance filament has a draft ratio of at least about 2.0, and wherein the inelastic control filament has a draft ratio of about 1.0; wherein the fibrous sheath forms an incoherent mass of entangled spun staple fibers as a sheath surrounding the elastic and inelastic filaments and the fibrous sheath comprises cotton fibers; and wherein the inelastic control filament is twisted about the elastic performance filament. wherein the elastic performance filament has a draft ratio of at least about 2.0, and wherein the inelastic control filament has a draft ratio of about 1.0; wherein the fibrous sheath forms an incoherent mass of entangled spun staple fibers as a sheath surrounding the elastic and inelastic filaments and the fibrous sheath comprises cotton fibers; and wherein the inelastic control filament is twisted about the elastic performance filament.
A water tree resistant cable comprising: one or more conductors; a crosslinked conductor shield surrounding the one or more conductors and comprising from 40% to 75%, by weight, of polymer, from about 0.1% to about 10%, by weight, of a first water tree retardant additive, and from 25% to 50% by weight of a first conductive filler; an insulation layer surrounding the crosslinked conductor shield, the insulation layer substantially free of any water tree retardant additives; and a crosslinked insulation shield surrounding the insulation layer and comprising from 40% to 75%, by weight, of polymer, from about 0.1% to about 10%, by weight, of a second water tree retardant additive, and from 25% to 50% by weight of a second conductive filler, wherein said water tree retardant additives are independently selected from the group comprising polyethylene glycol, ethylene vinyl alcohol, styrene copolymers, non-migrating antistatic agents, and ethylene-butyl acrylate copolymer. one or more conductors; a crosslinked conductor shield surrounding the one or more conductors and comprising from 40% to 75%, by weight, of polymer, from about 0.1% to about 10%, by weight, of a first water tree retardant additive, and from 25% to 50% by weight of a first conductive filler; an insulation layer surrounding the crosslinked conductor shield, the insulation layer substantially free of any water tree retardant additives; and a crosslinked insulation shield surrounding the insulation layer and comprising from 40% to 75%, by weight, of polymer, from about 0.1% to about 10%, by weight, of a second water tree retardant additive, and from 25% to 50% by weight of a second conductive filler, wherein said water tree retardant additives are independently selected from the group comprising polyethylene glycol, ethylene vinyl alcohol, styrene copolymers, non-migrating antistatic agents, and ethylene-butyl acrylate copolymer.
A method for wireless communications at a user equipment, UE, comprising: receiving control signaling indicating a truncating configuration for truncating one or more fields of an initial identification indicator, wherein the one or more fields of the initial identification indicator comprise a network function identifier field and a UE identifier field; generating a truncated identification indicator for the UE according to the truncating configuration by removing one or more bits from the initial identification indicator; and transmitting the truncated identification indicator to a base station. receiving control signaling indicating a truncating configuration for truncating one or more fields of an initial identification indicator, wherein the one or more fields of the initial identification indicator comprise a network function identifier field and a UE identifier field; generating a truncated identification indicator for the UE according to the truncating configuration by removing one or more bits from the initial identification indicator; and transmitting the truncated identification indicator to a base station.
Bearing arrangement of a wind turbine, comprising a bearing (9, 10) with an outer ring and an inner ring and a lubrication fluid provided between both rings (12, 13), and at least one sealing means arranged at each axial side of the bearing (9, 10) for sealing the gap between the outer and the inner ring (12, 13) on both axial sides of the bearing (9, 10), whereby each sealing means is fixed to one ring (12, 13) and contacts the other ring (12, 13) with a flexible lip-like sealing element, wherein a pressure device for at least temporarily providing a gas overpressure in the sealed gap for increasing the contact load of the lip-like sealing element to the ring (12, 13) is provided, wherein the pressure device comprises at least one controllable pump communicating with the sealed gap for increasing the gas pressure in the sealed gap.
A fuel cell system comprising: a fuel cell that includes a cathode and an anode and generates electricity by reducing a mediator at the cathode; a regenerator that oxidizes, with an oxidant, the mediator reduced by the cathode; an oxidant feed path that is connected to the regenerator, wherein through the oxidant feed path, the oxidant to be supplied to the regenerator flows; a reformer; a combustor that heats the reformer; and a first heat exchanger that exchanges heat between combustion exhaust discharged from the combustor and the oxidant to be supplied to the regenerator. a fuel cell that includes a cathode and an anode and generates electricity by reducing a mediator at the cathode; a regenerator that oxidizes, with an oxidant, the mediator reduced by the cathode; an oxidant feed path that is connected to the regenerator, wherein through the oxidant feed path, the oxidant to be supplied to the regenerator flows; a reformer; a combustor that heats the reformer; and a first heat exchanger that exchanges heat between combustion exhaust discharged from the combustor and the oxidant to be supplied to the regenerator.
Broiler container (1, 101, 201, 301, 401, 401', 501, 601, 701) having a floor (11, 111, 211, 311, 411, 511, 611, 711) and side walls (12, 13; 112, 113; 212, 213; 312, 313; 412, 413; 512, 513; 612, 613; 712, 713) defining an inner volume which is designed and configured to receive and accommodate at least five live broilers, wherein the broiler container (1, 101, 201, 301, 401, 401', 501, 601, 701) is designed and configured to be stackable with broiler containers (1, 101, 201, 301, 401, 401', 501, 601, 701) of the same construction and has at least one ventilation opening and at least one air outflow opening, wherein the broiler container (1, 101, 201, 301, 401, 401', 501, 601, 701) comprises at least one segment of a ventilation or air outflow column (14; 16; 114, 116; 214, 216; 314, 316; 414, 416; 514, 516; 614, 616; 714, 716) which extends through the inner volume and has at least one ventilation or air outflow opening (15, 20; 115, 120; 215, 220; 315;420; 515; 615, 620, 715, 720) at a distance from the side walls (12, 13; 112, 113; 212, 213; 312, 313; 412, 413; 512, 513; 612, 613; 712, 713), wherein each segment of the ventilation or air outflow column (14; 16; 114, 116; 214, 216; 314, 316; 414, 416; 514, 516; 614, 616; 714, 716) is designed and configured for connection to corresponding segments of broiler containers (1, 101, 201, 301, 401, 401', 501, 601, 701) of the same construction and also for connection to an active ventilation system, characterized in that in addition to the or each ventilation or air outflow column (14; 16; 114, 116; 214, 216; 314, 316; 414, 416; 514, 516; 614, 616; 714, 716) that is situated at a distance from the side walls (12, 13; 112, 113; 212, 213; 312, 313; 412, 413; 512, 513; 612, 613, 712, 713), at least one side wall is provided with at least one ventilation column part wall having ventilation or air outflow openings (15, 20; 115, 120; 215, 220; 315; 420; 515; 615, 620).
A distributed shared-nothing storage system comprising a plurality of nodes being connected to one or more networks, and each node comprising one or more storage devices for storing data and data replicas; wherein each node is configured to send and receive input/output (I/O) operations and each node is configured to be aware of locations of data and data replicas stored on the storage devices of the plurality of nodes based on location information (70; 71) being indicative of said locations of data and data replicas; wherein state information, which indicates the status of each node and each storage device on each node, is provided to each of the plurality of nodes; the state information being updated and changed, upon activation or inactivation of a node or a storage device thereof, based on the corresponding activation or inactivation; wherein, based on the change of the state information, each node, in case of activation including the newly activated node or node that has a newly activated storage device, is configured to determine if a recovery operation is needed to maintain the consistency of data or data replicas stored on the storage devices of the plurality of nodes; and wherein each node is configured to perform the recovery operation, if needed, independently from the other nodes to restore data stored on its one or more storage devices by sending and receiving messages to/from other nodes that store affected data.
A sprayer configured to spray fluid, the sprayer comprising: a spray gun configured to receive a fluid and spray the fluid onto a surface, the spray gun includes a gun body and a throat extending from the gun body; and a hopper mounted on the spray gun and configured to hold the fluid and provide the fluid to the spray gun, wherein the hopper comprises: a hopper base; a lip disposed at a top end of the hopper base and extending around a top opening in the hopper base; a lid disposed over the top opening and the lip; a first seal disposed between an exterior side of the hopper base below the lip and an interior of the lid, wherein the lid and the exterior of the hopper base are configured to engage the first seal to enclose and seal an interior of the hopper base; a neck disposed at an opposite end of the hopper base from the top opening and configured to mount to the throat, wherein the fluid moves through the neck and throat between the hopper and the spray gun; and an air passage extending through a wall of the hopper base, the air passage including a passage inlet and a passage outlet, and the air passage configured to provide pressurized air to an interior of the hopper. a spray gun configured to receive a fluid and spray the fluid onto a surface, the spray gun includes a gun body and a throat extending from the gun body; and a hopper mounted on the spray gun and configured to hold the fluid and provide the fluid to the spray gun, wherein the hopper comprises: a hopper base; a lip disposed at a top end of the hopper base and extending around a top opening in the hopper base; a lid disposed over the top opening and the lip; a first seal disposed between an exterior side of the hopper base below the lip and an interior of the lid, wherein the lid and the exterior of the hopper base are configured to engage the first seal to enclose and seal an interior of the hopper base; a neck disposed at an opposite end of the hopper base from the top opening and configured to mount to the throat, wherein the fluid moves through the neck and throat between the hopper and the spray gun; and an air passage extending through a wall of the hopper base, the air passage including a passage inlet and a passage outlet, and the air passage configured to provide pressurized air to an interior of the hopper. a hopper base; a lip disposed at a top end of the hopper base and extending around a top opening in the hopper base; a lid disposed over the top opening and the lip; a first seal disposed between an exterior side of the hopper base below the lip and an interior of the lid, wherein the lid and the exterior of the hopper base are configured to engage the first seal to enclose and seal an interior of the hopper base; a neck disposed at an opposite end of the hopper base from the top opening and configured to mount to the throat, wherein the fluid moves through the neck and throat between the hopper and the spray gun; and an air passage extending through a wall of the hopper base, the air passage including a passage inlet and a passage outlet, and the air passage configured to provide pressurized air to an interior of the hopper.
Solid yarrow fresh plant press juice concentrate comprising or consisting of: 10 - 50 wt.-% yarrow fresh plant press juice dry residue, 0-10 wt.-% water, and 50 - 90 wt.-% carrier(s), based on 100 wt.-% yarrow press plant press juice concentrate, wherein the carrier(s) is/are a solid carrier, selected from the group consisting of maltodextrin, dextrin and cyclodextrin, wherein the yarrow fresh plant press juice concentrate comprises of one ore more dicaffeoylquinic acid(s), wherein one or more or all dicaffeoylquinic acid(s) are/is selected from the group consisting of 3,4-dicaffeoylquinic acid, 3,5-dicaffeoylquinic acid and 4,5-dicaffeoylquinic acid. 10 - 50 wt.-% yarrow fresh plant press juice dry residue, 0-10 wt.-% water, and 50 - 90 wt.-% carrier(s), based on 100 wt.-% yarrow press plant press juice concentrate, wherein the carrier(s) is/are a solid carrier, selected from the group consisting of maltodextrin, dextrin and cyclodextrin, wherein the yarrow fresh plant press juice concentrate comprises of one ore more dicaffeoylquinic acid(s), wherein one or more or all dicaffeoylquinic acid(s) are/is selected from the group consisting of 3,4-dicaffeoylquinic acid, 3,5-dicaffeoylquinic acid and 4,5-dicaffeoylquinic acid.
A substrate processing apparatus comprising: a table configured to support a substrate horizontally; a rotation mechanism configured to rotate the table in a horizontal plane; a treatment liquid supply unit configured to supply a treatment liquid to a surface of the rotating substrate; a solvent supply unit configured to supply a volatile solvent to the surface of the rotating substrate, which has been supplied with the treatment liquid; a heater (10, 10A) configured to heat the rotating substrate such that a gas layer is formed on the surface of the substrate, which has been supplied with the volatile solvent, to make the volatile solvent into a liquid ball; and a controller configured to control the solvent supply unit to start supplying the volatile solvent to the substrate before completion of supply of the treatment liquid to the substrate by the treatment liquid supply unit, and control the heater to start heating the substrate after completion of or during supply of the volatile solvent to the substrate by the solvent supply unit. a table configured to support a substrate horizontally; a rotation mechanism configured to rotate the table in a horizontal plane; a treatment liquid supply unit configured to supply a treatment liquid to a surface of the rotating substrate; a solvent supply unit configured to supply a volatile solvent to the surface of the rotating substrate, which has been supplied with the treatment liquid; a heater (10, 10A) configured to heat the rotating substrate such that a gas layer is formed on the surface of the substrate, which has been supplied with the volatile solvent, to make the volatile solvent into a liquid ball; and a controller configured to control the solvent supply unit to start supplying the volatile solvent to the substrate before completion of supply of the treatment liquid to the substrate by the treatment liquid supply unit, and control the heater to start heating the substrate after completion of or during supply of the volatile solvent to the substrate by the solvent supply unit.
A container for storing and/or applying a pharmaceutical substance, comprising - a base body made of glass, having an essentially hollow cylindrical shape and surrounding a cavity, wherein the base body has a first end with a first opening, and - a first connected body made of glass, wherein the first connected body has a passage channel communicating with the first opening, - the first connected body is connected in a first connecting region (A 1) with the base body and the container in the first connecting region (A 1) has one or more first absorption zones (Z 1), in which the container exhibits a higher radiation absorption for electromagnetic waves in a predetermined wavelength range (λ) than the base body outside of the first absorption zone (Z 1). - a base body made of glass, having an essentially hollow cylindrical shape and surrounding a cavity, wherein the base body has a first end with a first opening, and - a first connected body made of glass, wherein the first connected body has a passage channel communicating with the first opening, - the first connected body is connected in a first connecting region (A 1) with the base body and the container in the first connecting region (A 1) has one or more first absorption zones (Z 1), in which the container exhibits a higher radiation absorption for electromagnetic waves in a predetermined wavelength range (λ) than the base body outside of the first absorption zone (Z 1).
An electrochemical device, comprising a cathode, a separator and an anode, wherein the cathode comprises: a cathode current collector; a first cathode active material layer comprising a first cathode active material; a second cathode active material layer comprising a second cathode active material, wherein the first cathode active material layer is disposed between the cathode current collector and the second cathode active material layer, and the first cathode active material layer is disposed on a first surface, facing an anode active material layer of the anode, of the cathode current collector; and an insulating layer, wherein the insulating layer is disposed on a second surface, that is not facing the anode active material layer of the anode, of the cathode current collector, characterized in that: an electrode assembly of the electrochemical device is of a wound structure, and the second surface comprises a first uncovered foil region located outside the electrode assembly and having the first surface as its opposite surface, wherein the insulating layer is disposed at least on the first uncovered foil region. a cathode current collector; a first cathode active material layer comprising a first cathode active material; a second cathode active material layer comprising a second cathode active material, wherein the first cathode active material layer is disposed between the cathode current collector and the second cathode active material layer, and the first cathode active material layer is disposed on a first surface, facing an anode active material layer of the anode, of the cathode current collector; and an insulating layer, wherein the insulating layer is disposed on a second surface, that is not facing the anode active material layer of the anode, of the cathode current collector, characterized in that: an electrode assembly of the electrochemical device is of a wound structure, and the second surface comprises a first uncovered foil region located outside the electrode assembly and having the first surface as its opposite surface, wherein the insulating layer is disposed at least on the first uncovered foil region. an electrode assembly of the electrochemical device is of a wound structure, and the second surface comprises a first uncovered foil region located outside the electrode assembly and having the first surface as its opposite surface, wherein the insulating layer is disposed at least on the first uncovered foil region.