mhurhangee/ep-ind-claims huggingface dataset:
A three-dimensional composite metallic lithium negative electrode, comprising: metallic lithium particles, and a three-dimensional polymer framework; wherein the metallic lithium particles are filled in the three-dimensional polymer framework, and the three-dimensional polymer framework comprises lithium-philic fragments, active sites and polymer-containing moieties; and wherein each of the lithium-philic fragments is a fragment of a metal oxide with lithium-philic characteristics, and the lithium-philic characteristic refers to be able to reduce a nucleation overpotential of a lithium deposition process, so that the nucleation overpotential of lithium ions in the three-dimensional composite metallic lithium negative electrode is less than 10 mV; wherein the metal oxide is selected from at least one of magnesium oxide, zinc oxide, copper oxide, lead oxide, bismuth oxide, tin oxide, and silver oxide; and wherein each of the active sites is an active group capable of undergoing a lithiation reaction contained in the three-dimensional polymer framework, and the active group is selected from at least one of a sulfur-containing group and a nitrogen-containing group; and/or, wherein the polymer is selected from one of polyacrylonitrile, vulcanized polyacrylonitrile (SPAN), polyaniline (PANI), vulcanized polyaniline (SPANI), polypyrrole, and vulcanized polypyrrole (SPPY). metallic lithium particles, and a three-dimensional polymer framework; wherein the metallic lithium particles are filled in the three-dimensional polymer framework, and the three-dimensional polymer framework comprises lithium-philic fragments, active sites and polymer-containing moieties; and wherein each of the lithium-philic fragments is a fragment of a metal oxide with lithium-philic characteristics, and the lithium-philic characteristic refers to be able to reduce a nucleation overpotential of a lithium deposition process, so that the nucleation overpotential of lithium ions in the three-dimensional composite metallic lithium negative electrode is less than 10 mV; wherein the metal oxide is selected from at least one of magnesium oxide, zinc oxide, copper oxide, lead oxide, bismuth oxide, tin oxide, and silver oxide; and wherein each of the active sites is an active group capable of undergoing a lithiation reaction contained in the three-dimensional polymer framework, and the active group is selected from at least one of a sulfur-containing group and a nitrogen-containing group; and/or, wherein the polymer is selected from one of polyacrylonitrile, vulcanized polyacrylonitrile (SPAN), polyaniline (PANI), vulcanized polyaniline (SPANI), polypyrrole, and vulcanized polypyrrole (SPPY).
A medical injection system (1, 100) comprising: (a) a syringe provided with: (i) a barrel having a proximal edge; (ii) a stopper in sliding engagement inside the barrel; and (iii) an injection needle (13, 113); (b) a plunger rod (63, 163) in pushing engagement with the stopper, (c) an injection lock (50, 150) engaging the plunger rod (63, 163) and arranged to lean against the proximal edge of the barrel so as to prevent a relative movement of the plunger rod (63, 163) with respect to the barrel; and (d) a needle guard (20, 120) comprising a trigger portion, said needle guard (20, 120) being configured in sliding engagement with respect to the barrel so as to define a first position in which the needle guard (20, 120) covers the injection needle (13, 113) and a second position in which the needle guard (20, 120) does not cover at least a portion of the injection needle (13, 113); wherein the trigger portion is adapted to disengage the injection lock (50, 150) from the plunger rod (63, 163) when the needle guard (20, 120) moves from the first position to the second position, in order to allow a relative movement of the plunger rod (63, 163) with respect to the barrel, and wherein the injection lock and the needle guard (20, 120) comprise second position locking means (24, 52, 124, 152) adapted to be engaged in the second position of the needle guard (20, 120) in order to prevent at least a distal movement of the needle guard (20, 120) with regard to the injection lock (50, 150). (a) a syringe provided with: (i) a barrel having a proximal edge; (ii) a stopper in sliding engagement inside the barrel; and (iii) an injection needle (13, 113); (i) a barrel having a proximal edge; (ii) a stopper in sliding engagement inside the barrel; and (iii) an injection needle (13, 113); (b) a plunger rod (63, 163) in pushing engagement with the stopper, (c) an injection lock (50, 150) engaging the plunger rod (63, 163) and arranged to lean against the proximal edge of the barrel so as to prevent a relative movement of the plunger rod (63, 163) with respect to the barrel; and (d) a needle guard (20, 120) comprising a trigger portion, said needle guard (20, 120) being configured in sliding engagement with respect to the barrel so as to define a first position in which the needle guard (20, 120) covers the injection needle (13, 113) and a second position in which the needle guard (20, 120) does not cover at least a portion of the injection needle (13, 113); wherein the trigger portion is adapted to disengage the injection lock (50, 150) from the plunger rod (63, 163) when the needle guard (20, 120) moves from the first position to the second position, in order to allow a relative movement of the plunger rod (63, 163) with respect to the barrel, and wherein the injection lock and the needle guard (20, 120) comprise second position locking means (24, 52, 124, 152) adapted to be engaged in the second position of the needle guard (20, 120) in order to prevent at least a distal movement of the needle guard (20, 120) with regard to the injection lock (50, 150).
Support frame for a ventilation device for cooling a fluid passing through a cooling circuit of a motor vehicle, said frame comprising an opening defining an opening perimeter, the opening being intended to receive an impeller, and a central support positioned at the centre of said opening and shaped so as to receive a motor actuating said impeller so as to generate a ventilation flow, said central support being attached, through said opening, to the frame by at least six holding arms, at least three first holding arms being placed in a first plane or cone of revolution, characterized in that at least three second holding arms are placed in a second plane or cone of revolution that is different to the first plane or cone of revolution, the first holding arms each being separated from any second holding arm at the opening perimeter by a space covering at least a distance corresponding to a chord of said first holding arms.
Composition comprising from 0.005 weight% to 0.250 weight% of Harungana madagascariensis leaf extract, based on the weight of the dry extract and of the total weight of the formulation, for its use to treat and/or to prevent acne, in a method of treatment of the human body by therapy.
Method for monitoring the production of a knitting machine the knitting machine comprising a plurality of thread delivery devices and a monitoring connection, to which the thread delivery devices and the knitting machine are connected, in which the thread delivery of each of thread delivery devices is monitored by a monitoring device and if applicable a stop signal for the knitting machine is transmitted via the monitoring connection, wherein a machine run signal is used to recognise whether the knitting machine is in operation, wherein for each of the thread delivery devices a sensor signal is generated by a sensor unit of the monitoring device, wherein the sensor signal is checked by a control unit of the monitoring device for a stop condition and if applicable a stop signal is generated, if by means of the machine run signal the operation of the knitting machine has been identified characterised in that the thread delivery devices are connected to a relay unit of the knitting machine via the monitoring connection and wherein the machine run signal is generated by the control units of at least two of the thread delivery devices by means of the sensor signals, and by means of the monitoring connection between the relay unit of the knitting machine and the parallel connected control units of the thread delivery devices a monitoring signal is transmitted which contains both the machine run signal and also if applicable the stop signal. wherein a machine run signal is used to recognise whether the knitting machine is in operation, wherein for each of the thread delivery devices a sensor signal is generated by a sensor unit of the monitoring device, wherein the sensor signal is checked by a control unit of the monitoring device for a stop condition and if applicable a stop signal is generated, if by means of the machine run signal the operation of the knitting machine has been identified characterised in that the thread delivery devices are connected to a relay unit of the knitting machine via the monitoring connection and wherein the machine run signal is generated by the control units of at least two of the thread delivery devices by means of the sensor signals, and by means of the monitoring connection between the relay unit of the knitting machine and the parallel connected control units of the thread delivery devices a monitoring signal is transmitted which contains both the machine run signal and also if applicable the stop signal.
Support, made of stamped sheet metal, for a winder for a safety belt of a motor vehicle, comprising: - a first assembly plane in which is cut out, on a first sheet metal edge, a profile for holding a winder in rotation, and which comprises an opening through which can pass a screw for attaching a winder, - a second assembly plane, essentially parallel to the first assembly plane and offset with respect to the first assembly plane, comprising a hole able to receive a screw, the first and second assembly planes being connected by a first three-dimensional stamped portion by means of which it is possible to stiffen the support in flexion in at least two directions (x, y), - a third assembly plane forming a zero angle or an angle less than 20° with the first assembly plane, the third assembly plane extending the first assembly plane on one side of this assembly plane, opposite to the first sheet metal edge, or running along the first assembly plane on one side of this assembly plane, opposite to the first sheet metal edge, along a first line to limit in the lower portion the first assembly plane and forming a line of separation between the first assembly plane and the third assembly plane, the third assembly plane having a free edge on its side opposite the first sheet metal edge. - a first assembly plane in which is cut out, on a first sheet metal edge, a profile for holding a winder in rotation, and which comprises an opening through which can pass a screw for attaching a winder, - a second assembly plane, essentially parallel to the first assembly plane and offset with respect to the first assembly plane, comprising a hole able to receive a screw, the first and second assembly planes being connected by a first three-dimensional stamped portion by means of which it is possible to stiffen the support in flexion in at least two directions (x, y), - a third assembly plane forming a zero angle or an angle less than 20° with the first assembly plane, the third assembly plane extending the first assembly plane on one side of this assembly plane, opposite to the first sheet metal edge, or running along the first assembly plane on one side of this assembly plane, opposite to the first sheet metal edge, along a first line to limit in the lower portion the first assembly plane and forming a line of separation between the first assembly plane and the third assembly plane, the third assembly plane having a free edge on its side opposite the first sheet metal edge.
A method for making a thin layer solid oxide fuel cell including at least an anode, an electrolyte and a cathode, said method including at least the following steps of magnetron sputtering deposition of anode material on a supporting substrate forming the anode; magnetron sputtering deposition of an electrolyte on the anode and magnetron sputtering deposition of cathode material on the electrolyte forming the cathode, characterized in that at least one catalyst is incorporated into the anode et/or the cathode simultaneously with the sputtering of the material of the anode and/or of the cathode, said catalyst being incorporated into the anode and/or the cathode with a concentration that increases from a free outer face of the anode or of the cathode towards an inner face in contact with the electrolyte 1.
Interconnecting device for connecting electronic systems (D1, D2) with respective reference potentials (4, 5) separated by an alternating potential difference, which interconnecting device comprising (i) a plurality of electrical connections capable of electrically connecting said electronic systems (D1, D2), and (ii) inductance coils placed in series in said electrical connections, characterized in that said inductance coils are electromagnetically coupled and comprise windings arranged around a common ferromagnetic core.
A device comprising a) a first sensor designed and arranged for sensing a first measurement variable of a fluid, and b) a second sensor designed and arranged for sensing a second measurement variable of the fluid, wherein the device comprises a. a first electrode arrangement comprising i) a substrate and ii) a first sheet electrode overlaying the substrate and b. a second electrode arrangement comprising a second sheet electrode, wherein the first sheet electrode and the second sheet electrode are dielectrically separated from each other; wherein the first electrode arrangement and the second electrode arrangement form a first capacitor as the first sensor in such a way that a first capacitance formed by the first sheet electrode and the second sheet electrode is variable under the effect of a fluid and in function of a flow rate of the fluid as the first measurement variable; characterized in that the first electrode arrangement comprises the second sensor. a) a first sensor designed and arranged for sensing a first measurement variable of a fluid, and b) a second sensor designed and arranged for sensing a second measurement variable of the fluid, a. a first electrode arrangement comprising i) a substrate and ii) a first sheet electrode overlaying the substrate and i) a substrate and ii) a first sheet electrode overlaying the substrate and b. a second electrode arrangement comprising a second sheet electrode,
A metal strip comprising an outer surface as well as an inner surface, wherein a plurality of measuring fields each of 625 mm 2 on either or both thereof each comprises 0 to 25 non-metallic inclusions of between 2 μm and less than 5 μm, 0 to 6 non-metallic inclusions of between 5 μm and less than 10 μm and 0 to 4 non-metallic inclusions of between 10 μm and less than 15 μm, characterized in that the metallic material is selected from the group formed by X10CrNi18-8, X5CrNi18-10, X5CrNiMo17-12-2, X3CrNiMo13-4, CrNiCuTi15-7, Ck 67, Ti-II, and X1NiCrMoCu25-20-5.
A bio-assisted method for treatment of hydrocarbon-contaminated soil by employing a blend of selective microbes, the method comprising; isolating biosurfactant producing microbes by selective enrichment techniques from hydrocarbon-contaminated soil, which are capable of releasing oil from the contaminated soil/gravel particles, adding the isolated microbes, which are capable of releasing oil from the contaminated soil/gravel particles, to the contaminated soil/gravel particles to release the oil, adding separately isolated microbes, which are capable of degrading the released oil, to the contaminated soil/gravel particles, providing optimized nutrient for the microorganisms, and aerating the same by periodic mixing of the oil contaminated soil-water slurry or by air sparging to treat the contaminated soil; characterized in that said oil releasing microbes are added to the soil/gravel at least two weeks before the oil degrading microbes.
A method for producing a multicellular spheroid comprising injecting a cell suspension into a gel wherein the cells are suspended in a carrier material.
An apparatus for cutting food product, the apparatus comprising: at least a first knife having longitudinal ends, a central region therebetween, a base, a cutting edge oppositely disposed from the base, and opposite sides located along a longitudinal extent thereof; and a hollow spindle having a slot for receiving the first knife, the slot having: a base wall for engaging and supporting portions of the base of the first knife, and side walls for engaging and supporting portions of the opposite sides of the first knife, the hollow spindle comprising a circumferential wall in which at least two circumferential gaps are present to segment the wall into at least two end wall segments (46A,46C) and a third wall segment therebetween, the gaps separating the slot into at least two end slot segments and a third slot segment therebetween that are complementary to and receive the base and opposite sides of the knife at the longitudinal ends and central region of the knife, wherein the cutting edge of the first knife protrudes from an interior of the circumferential wall and extends outside of the hollow spindle. at least a first knife having longitudinal ends, a central region therebetween, a base, a cutting edge oppositely disposed from the base, and opposite sides located along a longitudinal extent thereof; and a hollow spindle having a slot for receiving the first knife, the slot having: a base wall for engaging and supporting portions of the base of the first knife, and side walls for engaging and supporting portions of the opposite sides of the first knife, a base wall for engaging and supporting portions of the base of the first knife, and side walls for engaging and supporting portions of the opposite sides of the first knife, the hollow spindle comprising a circumferential wall in which at least two circumferential gaps are present to segment the wall into at least two end wall segments (46A,46C) and a third wall segment therebetween, the gaps separating the slot into at least two end slot segments and a third slot segment therebetween that are complementary to and receive the base and opposite sides of the knife at the longitudinal ends and central region of the knife, wherein the cutting edge of the first knife protrudes from an interior of the circumferential wall and extends outside of the hollow spindle.
Motor vehicle having an internal combustion engine, having an air-cooled radiator assembly for cooling the engine and having an alternating current generator comprising a radial fan unit with a fan impeller, wherein the radial fan unit serves to supply cooling air from the surrounding area to the radiator assembly, wherein the fan impeller has a multiplicity of radial fan blades, wherein a respective magnetic field generator is arranged in the end region of at least two opposite fan blades in such a way that an alternating current is induced in the event of rotation of the fan impeller in a magnet coil arrangement arranged along an outer periphery of the radial fan unit, characterized in that the alternating current generator is driven by means of a V-belt and associated belt pulleys on the part of the internal combustion engine located in the motor vehicle, and in that the magnet coil arrangement comprises a soft-iron ring with a multiplicity of radial slots and/or passage openings, wherein the slots and/or passage openings are provided for receiving coil turns of magnet coils arranged in a mutually overlapping manner and the magnetic field generator runs along a recess formed in the soft-iron ring.
A valve block for use in an exhaust gas stream, the valve block comprising: a valve movable between an open and a closed position; a spindle in communication with the valve, the spindle comprising a shaft that is rotatable within the valve block, for moving the valve between the open and closed position; a bore extending within the valve block, for locating the shaft; a bush (128, 130), configured to act as a bearing for rotation of the shaft; a recess defined between the bush (128, 130) and the shaft; characterised in that: first and second seal elements (134, 136) are located within the recess, for creating a seal between the bush (128, 130) and the shaft; and a biasing element is located within the recess, intermediate the first and second seal elements (134, 136), wherein the biasing element is configured to expand axially, to apply opposite forces to the first and second seal elements (134, 136). a valve movable between an open and a closed position; a spindle in communication with the valve, the spindle comprising a shaft that is rotatable within the valve block, for moving the valve between the open and closed position; a bore extending within the valve block, for locating the shaft; a bush (128, 130), configured to act as a bearing for rotation of the shaft; a recess defined between the bush (128, 130) and the shaft; characterised in that: first and second seal elements (134, 136) are located within the recess, for creating a seal between the bush (128, 130) and the shaft; and a biasing element is located within the recess, intermediate the first and second seal elements (134, 136), wherein the biasing element is configured to expand axially, to apply opposite forces to the first and second seal elements (134, 136). first and second seal elements (134, 136) are located within the recess, for creating a seal between the bush (128, 130) and the shaft; and a biasing element is located within the recess, intermediate the first and second seal elements (134, 136), wherein the biasing element is configured to expand axially, to apply opposite forces to the first and second seal elements (134, 136).
An attenuated Newcastle disease virus 73T strain wherein the wild type F protein cleavage site (FPCS) having the amino acid sequence 111G-R-R-Q-K-R/F117 is modified, and wherein the modified F protein cleavage sequence (FPCS) comprises a sequence selected from the group consisting of: S116: 111H-N-R-T-K-S/F117; S116K: 111H-N-K-T-K-S/F117; S116M: 111H-N-R-M-K-S/F117; S116KM: 111H-N-K-M-K-S/F-I118; and R116: 111H-N-R-T-K-R/F-I118. S116: 111H-N-R-T-K-S/F117; S116K: 111H-N-K-T-K-S/F117; S116M: 111H-N-R-M-K-S/F117; S116KM: 111H-N-K-M-K-S/F-I118; and R116: 111H-N-R-T-K-R/F-I118.