mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: a polypeptide having the amino acid sequence of SEQ ID NO: 2, wherein, optionally, said polypeptide further comprises a cellular internalization transporter or sequence, for use in a method of promoting wound healing following tissue injury in a subject. a polypeptide having the amino acid sequence of SEQ ID NO: 2, wherein, optionally, said polypeptide further comprises a cellular internalization transporter or sequence, for use in a method of promoting wound healing following tissue injury in a subject.
An endodontic irrigation system comprising: a negative pressure irrigation needle including a closed distal end and two suction inlet ports located opposite one another immediately proximal to the closed distal end; and a suction manifold including a tube on one side arranged for connection to a dental vacuum system and a tube on another side arranged for connection to the negative pressure irrigation needle; and an irrigant inlet tube. a negative pressure irrigation needle including a closed distal end and two suction inlet ports located opposite one another immediately proximal to the closed distal end; and a suction manifold including a tube on one side arranged for connection to a dental vacuum system and a tube on another side arranged for connection to the negative pressure irrigation needle; and an irrigant inlet tube.
Emulsion comprising whey protein micelles, water and dispersed oil droplets wherein the emulsion is stabilized by the whey protein micelles and the oil droplets have an average diameter of between 40 and 1000 μm.
Method for treating textile material to attach dyes, such as synthetic or natural dyes, or to apply bleaches to said textile material, which provides: - a first step of pre-impregnation of the textile material with an impregnation liquid; - a second step of heating the impregnation liquid, through contact of said textile material with at least one heated drum, and subsequent vaporization of said impregnation liquid, said textile material being movable around said heated drum, subjected to an adjustable pressure higher than atmospheric pressure, characterized in that it provides that: - said heated drum is disposed inside a gaseous compartment; - an impermeable strip is wound on the outside around said textile material during its transit around said heated drum; - said internal compartment is taken to a pressure higher than atmospheric pressure to exert a homogeneous and adjustable pressure against said heated drum on said impermeable strip, and therefore on said textile material, a first homogeneous and adjustable mechanical pressure being exerted by said impermeable strip on the textile material and a second homogeneous and adjustable gaseous pressure being exerted on said impermeable strip by the pressurized gaseous compartment. - a first step of pre-impregnation of the textile material with an impregnation liquid; - a second step of heating the impregnation liquid, through contact of said textile material with at least one heated drum, and subsequent vaporization of said impregnation liquid, said textile material being movable around said heated drum, subjected to an adjustable pressure higher than atmospheric pressure, characterized in that it provides that: - said heated drum is disposed inside a gaseous compartment; - an impermeable strip is wound on the outside around said textile material during its transit around said heated drum; - said internal compartment is taken to a pressure higher than atmospheric pressure to exert a homogeneous and adjustable pressure against said heated drum on said impermeable strip, and therefore on said textile material, a first homogeneous and adjustable mechanical pressure being exerted by said impermeable strip on the textile material and a second homogeneous and adjustable gaseous pressure being exerted on said impermeable strip by the pressurized gaseous compartment. - said heated drum is disposed inside a gaseous compartment; - an impermeable strip is wound on the outside around said textile material during its transit around said heated drum; - said internal compartment is taken to a pressure higher than atmospheric pressure to exert a homogeneous and adjustable pressure against said heated drum on said impermeable strip, and therefore on said textile material, a first homogeneous and adjustable mechanical pressure being exerted by said impermeable strip on the textile material and a second homogeneous and adjustable gaseous pressure being exerted on said impermeable strip by the pressurized gaseous compartment.
An apparatus for the rubber-coating of metal cords, said apparatus comprising: i) a calender configured to make two rubber bands intended to receive between them a plurality of metal cords for the manufacturing of a multilayer semifinished product, ii) a first and a second creel (120, 130) both of which comprise a plurality of unwinding devices (121, 131) on which spools (122, 132) for the feeding of high strength metal cords (140, 141) towards said calender are respectively mounted, characterized in that it also comprises a first and a second preparation assemblies (150, 160) arranged between the calender and the creels (120, 130) in a feeding direction and respectively configured to receive metal cords (140, 141) from the first and second creel (120, 130), said preparation assemblies (150, 160) being mounted on a platform movable relative to the calender in a transverse direction perpendicular to the feeding direction and comprising a set of alignment rollers (151, 161), or an equivalent cord-alignment framework, intended to receive said metal cords (140, 141), a cord application device (152, 162) configured to apply the metal cords (140, 141) between the rubber bands produced by the calender, and a joining press (153, 163), wherein said alignment rollers, cord application device and cord joining press are arranged in series along the feeding direction, and in that the cord application device (152, 162) of each preparation assembly (150, 160) is movable along linear guides (154, 164, 190) between a working position close to the calender and a preparation position located between the alignment rollers (151, 161) and the joining press (153, 163) of the respective preparation assembly (150, 160). i) a calender configured to make two rubber bands intended to receive between them a plurality of metal cords for the manufacturing of a multilayer semifinished product, ii) a first and a second creel (120, 130) both of which comprise a plurality of unwinding devices (121, 131) on which spools (122, 132) for the feeding of high strength metal cords (140, 141) towards said calender are respectively mounted,
A device comprising: a memory buffer configured to temporarily retain encoded data representing a plurality of frames of a time-sequential signal before wireless transmission of the encoded data from the device; a transmitter configured to wirelessly transmit the encoded data from the memory buffer in transmission packets of fixed size; and control circuitry configured to: determine a current number of frames of encoded data stored in the memory buffer and awaiting transmission; select a compression rate for encoding a next frame of data of the time-sequential signal based on the determined number of stored frames in the memory buffer; encode the next frame of the time-sequential signal using the selected compression rate; and add the encoded next frame to a transmission packet of encoded data stored in the memory buffer for wireless transmission from the device via the transmitter without changing the fixed size of the transmission packet. a memory buffer configured to temporarily retain encoded data representing a plurality of frames of a time-sequential signal before wireless transmission of the encoded data from the device; a transmitter configured to wirelessly transmit the encoded data from the memory buffer in transmission packets of fixed size; and control circuitry configured to: determine a current number of frames of encoded data stored in the memory buffer and awaiting transmission; select a compression rate for encoding a next frame of data of the time-sequential signal based on the determined number of stored frames in the memory buffer; encode the next frame of the time-sequential signal using the selected compression rate; and add the encoded next frame to a transmission packet of encoded data stored in the memory buffer for wireless transmission from the device via the transmitter without changing the fixed size of the transmission packet. determine a current number of frames of encoded data stored in the memory buffer and awaiting transmission; select a compression rate for encoding a next frame of data of the time-sequential signal based on the determined number of stored frames in the memory buffer; encode the next frame of the time-sequential signal using the selected compression rate; and add the encoded next frame to a transmission packet of encoded data stored in the memory buffer for wireless transmission from the device via the transmitter without changing the fixed size of the transmission packet.
A chemically enhanced oil recovery method using viscosity-increasing polymeric compounds, said recovery method comprising the steps of: - injecting an aqueous solution into an oil-bearing formation, said aqueous solution comprising viscosity-increasing polymeric compounds; - recovering an oil-water mixture obtained from said oil-bearing formation; - treating the oil-water mixture, for separating an oil product from a produced water, wherein the produced water comprises the viscosity-increasing polymeric compounds; - directing the produced water to a filtration device, and subjecting the produced water to filtration, for obtaining a retentate stream and a permeate stream, wherein the filtration device comprises a microfiltration ceramic membrane unit; - injecting the permeate into the oil-bearing formation; characterized in that said microfiltration ceramic membrane unit having a cut-off of from 2μm to 10μm, wherein the permeate comprises said viscosity-increasing polymeric compound, and wherein the permeate is free of suspended solids, free oil and emulsified oil - injecting an aqueous solution into an oil-bearing formation, said aqueous solution comprising viscosity-increasing polymeric compounds; - recovering an oil-water mixture obtained from said oil-bearing formation; - treating the oil-water mixture, for separating an oil product from a produced water, wherein the produced water comprises the viscosity-increasing polymeric compounds; - directing the produced water to a filtration device, and subjecting the produced water to filtration, for obtaining a retentate stream and a permeate stream, wherein the filtration device comprises a microfiltration ceramic membrane unit; - injecting the permeate into the oil-bearing formation;
Highly siliciferous steel material, more preferably for piston rings and cylinder liners, characterized by the following composition in % by weight: C: 0.5 to 1.2 Mo: 0.1 to 0.5 Ti: 0 to 0.01 Si: 3.0 to 10.0 Mn: 0.1 to 0.5 V: 0 to 0.05 Ni: 2.0 to 3.5 Al: 0 to 0.01 Sn: 0 to 0.05 P: 0 to 0.02 Co: 0 to 0.02 Mg: 0 to 0.01 S: 0 to 0.035 Cu: 0 to 0.05 Cr: 0 to 3.0 Nb: 0 to 0.005 Remainder: Fe and contaminations due to the manufacture, wherein the steel material does not contain any tungsten.
A compression device for applying compression treatment to a part of a wearer's body, the device comprising: a wicking layer made of wicking material and having a first face and a second face, the first face is applied to the skin and the second face is away from the skin, the wicking layer is adapted to move moisture; a bladder (24a, 24b, 24c) defining a compression region constructed of bladder material generally overlying the second face of the wicking layer; the wicking layer being joined to a skin facing surface of the bladder material, characterized in that a portion of the wicking layer is in communication with at least one opening through the bladder, which at least one opening registers with the wicking material and is within the area defined by the compression region a wicking layer made of wicking material and having a first face and a second face, the first face is applied to the skin and the second face is away from the skin, the wicking layer is adapted to move moisture; a bladder (24a, 24b, 24c) defining a compression region constructed of bladder material generally overlying the second face of the wicking layer; the wicking layer being joined to a skin facing surface of the bladder material, characterized in that a portion of the wicking layer is in communication with at least one opening through the bladder, which at least one opening registers with the wicking material and is within the area defined by the compression region
A sweetener composition comprising erythritol as a main ingredient, and also comprising 0.27 to 7 parts by mass of D-psicose based on 100 parts by mass of erythritol.
An armrest assembly comprising a mounting portion and an armrest having a body, characterised in that the body comprising two elongate members (158, 162) adapted to be housed in the body, said two elongate members having each a first resting surface and a second resting surface, each elongate member (158, 162) is attached to the body by a guide pin at least at one end, said guide pin being housed within a track on the mounting portion, each elongate member being arranged to move with a combination of a translation and a rotation from a first configuration in which the first resting surface is useable to a second configuration in which the second resting surface is useable.
A perforator for drilling bone tissue, comprising: a drive shaft with a rotational axis A; an inner cutting head with the same rotational axis A; a drive surface provided on the drive shaft; and a connector provided on the inner cutting head; in which the inner cutting head is displaceable with respect to the drive shaft along the rotational axis between a distal position, in which the inner cutting head is not driveable by the drive shaft, and a proximal position, in which the drive surface abuts the connector to transmit rotational motion from the drive shaft to the inner cutting head, in which the drive surface is inclined relative to the rotational axis A, in which the drive surface forms a first sloped side of a groove formed radially in the distal end of the drive shaft, and in which the second side of the groove is sloped in the opposite direction relative to the rotational axis A, and in which the drive surface is configured so that the second side of the groove is connected to the drive surface by a continuously curved section with a radius of curvature r. a drive shaft with a rotational axis A; an inner cutting head with the same rotational axis A; a drive surface provided on the drive shaft; and a connector provided on the inner cutting head; in which the inner cutting head is displaceable with respect to the drive shaft along the rotational axis between a distal position, in which the inner cutting head is not driveable by the drive shaft, and a proximal position, in which the drive surface abuts the connector to transmit rotational motion from the drive shaft to the inner cutting head, in which the drive surface is inclined relative to the rotational axis A, in which the drive surface forms a first sloped side of a groove formed radially in the distal end of the drive shaft, and in which the second side of the groove is sloped in the opposite direction relative to the rotational axis A, and in which the drive surface is configured so that the second side of the groove is connected to the drive surface by a continuously curved section with a radius of curvature r.
A vehicle warning sound emitting apparatus for a vehicle having a combustion engine, comprising: a warning sound emitting component configured to selectively emit a warning sound that is audible outside of the vehicle; characterised in that said apparatus comprises a controller configured to control the warning sound emitting component to commence emitting the warning sound in response to the vehicle beginning moving and to continue emitting the warning sound such that both an engine sound to be emitted from the engine of the vehicle and the warning sound are audible at a location outside the vehicle during a prescribed period that begins in response to a transition from a quiet vehicle traveling condition to a non-quiet vehicle traveling condition, in which the engine sound can be heard in the surrounding area outside the vehicle, the controller being further configured to control the warning sound emitting component to cease emitting the warning sound when the prescribed period has elapsed while the engine is emitting the engine sound and before the vehicle has reached a prescribed speed. a warning sound emitting component configured to selectively emit a warning sound that is audible outside of the vehicle; characterised in that said apparatus comprises a controller configured to control the warning sound emitting component to commence emitting the warning sound in response to the vehicle beginning moving and to continue emitting the warning sound such that both an engine sound to be emitted from the engine of the vehicle and the warning sound are audible at a location outside the vehicle during a prescribed period that begins in response to a transition from a quiet vehicle traveling condition to a non-quiet vehicle traveling condition, in which the engine sound can be heard in the surrounding area outside the vehicle, the controller being further configured to control the warning sound emitting component to cease emitting the warning sound when the prescribed period has elapsed while the engine is emitting the engine sound and before the vehicle has reached a prescribed speed.
A method for selecting a B-cell comprising the following steps: a) co-cultivating each of the B-cells of a population of B-cells, which has been deposited as single cell, with murine EL-4 B5 cells as feeder cells, b) selecting a B-cell clone proliferating and secreting antibody in step a), wherein the co-cultivating is in the presence of a synthetic feeder mix that comprises IL-1β, TNFα, IL-10, and one or more selected from IL-21, SAC, BAFF, IL-2, IL-4, and IL-6. a) co-cultivating each of the B-cells of a population of B-cells, which has been deposited as single cell, with murine EL-4 B5 cells as feeder cells, b) selecting a B-cell clone proliferating and secreting antibody in step a),
Splitter/combiner system for RF signals comprising: - a coaxial line (Coax) comprising an inner block (Bint) extending longitudinally along an axis Y, having a conductive surface and being inserted into an outer block (Bext1) whose inner cavities have conductive walls, the inner block being separated from the outer block by an insulating space, said coaxial line having a connection end; - a plurality of N strip lines (LR1, LR2,... LRN), each strip line comprising a first and a second conductive strip that are positioned facing either side of an insulating or dielectric substrate (Sub); - one of the ends of each strip line, referred to as the first end, being positioned tangentially on the rim of the inner block (Bint) in said space at the connection end of the coaxial line (Coax), the first and the second conductive strips of the first end of the strip line respectively being in electrical contact with the inner block (Bint) and the outer block (Bext1), the outer block additionally being connected to the system ground, - the outer block (Bext1) extending longitudinally along the axis Y on the opposite side of the first end, characterized in that said second conductive strips are always in electrical contact with a conductive inner wall of said extension (Bext2) of said outer block. - a coaxial line (Coax) comprising an inner block (Bint) extending longitudinally along an axis Y, having a conductive surface and being inserted into an outer block (Bext1) whose inner cavities have conductive walls, the inner block being separated from the outer block by an insulating space, said coaxial line having a connection end; - a plurality of N strip lines (LR1, LR2,... LRN), each strip line comprising a first and a second conductive strip that are positioned facing either side of an insulating or dielectric substrate (Sub); - one of the ends of each strip line, referred to as the first end, being positioned tangentially on the rim of the inner block (Bint) in said space at the connection end of the coaxial line (Coax), the first and the second conductive strips of the first end of the strip line respectively being in electrical contact with the inner block (Bint) and the outer block (Bext1), the outer block additionally being connected to the system ground, - the outer block (Bext1) extending longitudinally along the axis Y on the opposite side of the first end, characterized in that said second conductive strips are always in electrical contact with a conductive inner wall of said extension (Bext2) of said outer block.
A seal device having a backup ring protruding towards a fluid storage chamber so as to enclose a rotating shaft, wherein at least said backup ring has a tapered shape, and a distal end of a seal lip supported by the backup ring is capable of coming into contact with the rotating shaft, whereby: said backup ring has a protruding part, a tapered part and a distal end part extending continuously from a fixed part thereof; a rounded surface having a curvature radius (R-1) is formed at least in a first boundary where a surface of said tapered part changes to a surface of said distal end; and characterized in that a rounded surface having a curvature radius (R-3) is formed in a second boundary where a surface of said protruding part changes to the surface of said tapered part; and the surface of said tapered part is a convex surface having a substantially constant curvature radius (R-2) greater than the curvature radius (R-1) of said first boundary; and the curvature radius (R-2) of said tapered part is the same curvature radius as the curvature radius (R-3) of said second boundary.
A method of removing carbon dioxide (CO 2) from an atmosphere and generating hydrogen, comprising; - Capturing carbon dioxide from the atmosphere in an aqueous alkaline capture solution; - Feeding the thus obtained aqueous (bi)carbonate solution to the anode cell of a water electrolyser; - OER in the aqueous (bi)carbonate solution at the anode with formation of CO 2 and O 2; - HER at the cathode with formation of H 2 and regeneration of the aqueous alkaline capture solution; characterized in that the anode cell of the electrolyser comprises an integrated CO 2 / O 2 separator configured on performing the OER of the alkaline capture solution at pressures from and between 10 bar to up to 50 bar and at reduced temperatures from and between 0°C to -40 °C, such that the produced Oxygen will be in the gas phase whilst the produced Carbon Dioxide remains in solution. - Capturing carbon dioxide from the atmosphere in an aqueous alkaline capture solution; - Feeding the thus obtained aqueous (bi)carbonate solution to the anode cell of a water electrolyser; - OER in the aqueous (bi)carbonate solution at the anode with formation of CO 2 and O 2; - HER at the cathode with formation of H 2 and regeneration of the aqueous alkaline capture solution; characterized in that the anode cell of the electrolyser comprises an integrated CO 2 / O 2 separator configured on performing the OER of the alkaline capture solution at pressures from and between 10 bar to up to 50 bar and at reduced temperatures from and between 0°C to -40 °C, such that the produced Oxygen will be in the gas phase whilst the produced Carbon Dioxide remains in solution.