mhurhangee/ep-ind-claims huggingface dataset:
Electric motor, having: - a motor housing, - a motor shaft which is rotatably mounted in the motor housing, - a heat source in the form of an electronic circuit which is in a co-rotating manner mounted on the motor shaft, - a first cooling fin arrangement which is arranged on the motor shaft in a co-rotating manner and adjacent to the heat source, and - a second cooling fin arrangement which is arranged on the motor housing such that it points inward, - wherein cooling fins of the first cooling fin arrangement and cooling fins of the second cooling fin arrangement engage for the purpose of dissipating heat from the heat source out of the motor housing, characterized by - a shielding part which, in a co-rotating manner with the motor shaft, is arranged on the heat source for thermally shielding the heat source from electrical windings of the electric motor. - a motor housing, - a motor shaft which is rotatably mounted in the motor housing, - a heat source in the form of an electronic circuit which is in a co-rotating manner mounted on the motor shaft, - a first cooling fin arrangement which is arranged on the motor shaft in a co-rotating manner and adjacent to the heat source, and - a second cooling fin arrangement which is arranged on the motor housing such that it points inward, - wherein cooling fins of the first cooling fin arrangement and cooling fins of the second cooling fin arrangement engage for the purpose of dissipating heat from the heat source out of the motor housing, characterized by - wherein cooling fins of the first cooling fin arrangement and cooling fins of the second cooling fin arrangement engage for the purpose of dissipating heat from the heat source out of the motor housing, - a shielding part which, in a co-rotating manner with the motor shaft, is arranged on the heat source for thermally shielding the heat source from electrical windings of the electric motor.
A breathable, thermoplastic film having a basis weight of less than or equal to 15 gsm and a water vapor transmission rate of at least 500 grams H2O/24-hour/m2 as measured according to ASTM method D-6701-01; wherein said film has a ratio of the MD load at break as measured according to ASTM method D882-02 to the CD load at break as measured according to ASTM method D882-02 of less than 10, and at least one of a machine-direction notched Elmendorf tear strength as measured according to ASTM D-1922 of at least 5 g or a machine-direction notched trapezoidal tear strength as measured according to ASTM-D-5587 of at least 15 g; and wherein said film comprises from 30% to 60% by weight of a filler and 1% to 60% of polypropylene, a polypropylene-based composition or copolymer, ethylene, an ethylene-based composition or copolymer, or a combination thereof. wherein said film has a ratio of the MD load at break as measured according to ASTM method D882-02 to the CD load at break as measured according to ASTM method D882-02 of less than 10, and at least one of a machine-direction notched Elmendorf tear strength as measured according to ASTM D-1922 of at least 5 g or a machine-direction notched trapezoidal tear strength as measured according to ASTM-D-5587 of at least 15 g; and wherein said film comprises from 30% to 60% by weight of a filler and 1% to 60% of polypropylene, a polypropylene-based composition or copolymer, ethylene, an ethylene-based composition or copolymer, or a combination thereof.
A mixing apparatus, the apparatus comprising: a) a mixing well; b) a drive mechanism including a stationary circumferential gear on an inner surface of the mixing well; c) a planetary mixing element driven by a mixing element gear which engages the stationary circumferential gear; and d) a central mixing element positioned substantially at a center of the mixing well; wherein the planetary mixing element revolves around the central mixing element, characterized in that the mixing well has an internal volume not exceeding 100 ml and in that the mixing elements are spaced apart within the mixing well such that a shear force is generated in a mixture in a space between the planetary mixing element and an inner wall of the mixing well, and in a space between the central mixing element and the planetary mixing element. a) a mixing well; b) a drive mechanism including a stationary circumferential gear on an inner surface of the mixing well; c) a planetary mixing element driven by a mixing element gear which engages the stationary circumferential gear; and d) a central mixing element positioned substantially at a center of the mixing well;
A fuel cell vehicle comprising: a motor drive unit including a motor driven by electric power generated by a fuel cell, a mechanism transmitting a drive force of the motor to a vehicle wheel axle, the vehicle wheel axle extending in a width direction of the fuel cell vehicle, and a case accommodating the motor and the mechanism, the motor drive unit being disposed over the vehicle wheel axle; and tanks (4, 5) configured to store a fuel to be supplied to the fuel cell, the tanks (4, 5) being respectively disposed in front of and behind the motor drive unit such that a longitudinal direction of each of the tanks corresponds to the width direction of the f uel cell vehicle, characterized in that, a high-voltage wiring portion is disposed on one side of the motor drive unit; and the tanks (4, 5) are disposed such that respective end portions of the tanks (4a,5a) on a side on which the high-voltage wiring portion is positioned are outside the high-voltage wiring portion in the width direction of the vehicle, and the respective end portions (4a, 5a) of the tanks overlap a tire-wheel assembly in a front-rear direction of the fuel cell vehicle. a motor drive unit including a motor driven by electric power generated by a fuel cell, a mechanism transmitting a drive force of the motor to a vehicle wheel axle, the vehicle wheel axle extending in a width direction of the fuel cell vehicle, and a case accommodating the motor and the mechanism, the motor drive unit being disposed over the vehicle wheel axle; and tanks (4, 5) configured to store a fuel to be supplied to the fuel cell, the tanks (4, 5) being respectively disposed in front of and behind the motor drive unit such that a longitudinal direction of each of the tanks corresponds to the width direction of the f uel cell vehicle, characterized in that, a high-voltage wiring portion is disposed on one side of the motor drive unit; and the tanks (4, 5) are disposed such that respective end portions of the tanks (4a,5a) on a side on which the high-voltage wiring portion is positioned are outside the high-voltage wiring portion in the width direction of the vehicle, and the respective end portions (4a, 5a) of the tanks overlap a tire-wheel assembly in a front-rear direction of the fuel cell vehicle.
A process for the production of a colored polyimide molded article comprising the steps of molding a polyamic acid solution composition containing a polyamic acid solution obtained from at least a tetracarboxylic acid component and a diamine component and a coloring precursor, or a polyimide solution composition containing a polyimide solution and a coloring precursor; and then thermally treating the molded product at 250°C or higher, wherein the coloring precursor is a polymer obtained from an acrylonitrile-containing monomer and/or a ferrocene compound.
A method for preparing metal-organic frameworks comprising: preparing a reaction solution containing a mixture of at least one inorganic metal precursor, at least one organic compound which may act as a ligand, and a solvent (step 1), wherein a molar ratio of the solvent to the inorganic metal precursor in the reaction solution is 50 or less; and forming crystalline metal-organic frameworks by reacting the reaction solution (step 2), wherein the reaction is conducted under the pressure of 3 atm (3.039 x 10 5 Pa) or less; and wherein the metal precursor is at least one metal selected from the group consisting of Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, Mn, Re, Fe, Ru, Os, Co, Rh, Ir, Ni, Pd, Pt, Cu, Ag, Au, Zn, Cd, Hg, Mg, Ca, Sr, Ba, Sc, Y, Al, Ga, In, Tl, Si, Ge, Sn, Pb, As, Sb and Bi, or at least one compound comprising thereof. preparing a reaction solution containing a mixture of at least one inorganic metal precursor, at least one organic compound which may act as a ligand, and a solvent (step 1), wherein a molar ratio of the solvent to the inorganic metal precursor in the reaction solution is 50 or less; and forming crystalline metal-organic frameworks by reacting the reaction solution (step 2), wherein the reaction is conducted under the pressure of 3 atm (3.039 x 10 5 Pa) or less; and wherein the metal precursor is at least one metal selected from the group consisting of Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, Mn, Re, Fe, Ru, Os, Co, Rh, Ir, Ni, Pd, Pt, Cu, Ag, Au, Zn, Cd, Hg, Mg, Ca, Sr, Ba, Sc, Y, Al, Ga, In, Tl, Si, Ge, Sn, Pb, As, Sb and Bi, or at least one compound comprising thereof.
Method for separating and determining the hydrodynamic radius of the constituents of an admixture M, which comprises the following steps: the constituents of the admixture M are separated by using the technique of capillary electrophoresis, and by leaving them within the capillary; at one of the ends of the capillary obtained in this manner, containing, in different zones, the constituents separated in step, a detectable marker is injected in the region of a detection device which is placed at the side of the other end of the capillary; a positive hydrostatic pressure difference is induced between the end of the capillary via which the marker of step was introduced and the other end of the capillary, whereby a displacement of the different species present in the capillary is induced, associated with a phenomenon of Taylor dispersion, and the various constituents separated during step and finally the marker introduced during step are allowed to migrate in front of the detector at the outlet of the capillary; and by analysing the Taylor dispersion obtained, the hydrodynamic radius is determined for each of the constituents, based on the detection time of the marker and the elution profile of each of the constituents. the constituents of the admixture M are separated by using the technique of capillary electrophoresis, and by leaving them within the capillary; at one of the ends of the capillary obtained in this manner, containing, in different zones, the constituents separated in step, a detectable marker is injected in the region of a detection device which is placed at the side of the other end of the capillary; a positive hydrostatic pressure difference is induced between the end of the capillary via which the marker of step was introduced and the other end of the capillary, whereby a displacement of the different species present in the capillary is induced, associated with a phenomenon of Taylor dispersion, and the various constituents separated during step and finally the marker introduced during step are allowed to migrate in front of the detector at the outlet of the capillary; and by analysing the Taylor dispersion obtained, the hydrodynamic radius is determined for each of the constituents, based on the detection time of the marker and the elution profile of each of the constituents.
An electronic sensor for detecting a root of a plant in a soil location, the electronic sensor comprising: a first conductor plate (126, 452) configured to be disposed in soil; a switch electrically coupled to the first conductor plate, wherein the switch is configured to switch between a first mode and a second mode; a power supply electrically coupled to the switch, wherein the power supply is configured to provide a first electrical charge to the first conductor plate in the first mode of the switch; and a signal extractor electrically coupled to the switch, wherein, in the second mode of the switch, the signal extractor is configured to extract a signal at the first conductor plate based on the first electrical charge provided to the first conductor plate in the first mode of the switch. a first conductor plate (126, 452) configured to be disposed in soil; a switch electrically coupled to the first conductor plate, wherein the switch is configured to switch between a first mode and a second mode; a power supply electrically coupled to the switch, wherein the power supply is configured to provide a first electrical charge to the first conductor plate in the first mode of the switch; and a signal extractor electrically coupled to the switch, wherein, in the second mode of the switch, the signal extractor is configured to extract a signal at the first conductor plate based on the first electrical charge provided to the first conductor plate in the first mode of the switch.
A secondary filter element for a filter assembly, comprising a central tube comprising a grid-shaped, fluid-permeable, oval-shaped cross-sectional support section that carries a filter medium and a circumferential sealing means for sealing the secondary filter element with respect to a filter seat for the secondary filter element, wherein the sealing means completely surrounds the secondary filter element; and wherein the sealing means comprises an outer surface and an inner surface opposing the outer surface; and wherein the secondary element comprises a radial direction perpendicular to a central axis and oriented away from it; and wherein the central axis extends parallel to a longitudinal direction of the filter element; wherein the sealing means, when viewed in the longitudinal direction, features an oval geometry having a center point and two symmetry axes intersecting therein, in particular a long side as the principal axis and a short side as the secondary axis, and wherein the outer surface of the sealing means, when viewed along the short side, projects radially further beyond the filter medium than when viewed along the long side, and wherein the inner surface of the sealing means, when viewed along the short side, projects radially further beyond the inner contour of the central tube than when viewed along the long side. a circumferential sealing means for sealing the secondary filter element with respect to a filter seat for the secondary filter element, wherein the sealing means completely surrounds the secondary filter element; and wherein the sealing means comprises an outer surface and an inner surface opposing the outer surface; and wherein the secondary element comprises a radial direction perpendicular to a central axis and oriented away from it; and wherein the central axis extends parallel to a longitudinal direction of the filter element; wherein the sealing means, when viewed in the longitudinal direction, features an oval geometry having a center point and two symmetry axes intersecting therein, in particular a long side as the principal axis and a short side as the secondary axis, and wherein the outer surface of the sealing means, when viewed along the short side, projects radially further beyond the filter medium than when viewed along the long side, and wherein the inner surface of the sealing means, when viewed along the short side, projects radially further beyond the inner contour of the central tube than when viewed along the long side.
A device for performing a biological or chemical transformation, or physical or chemical trapping in a fluidic media comprising: a flow distributor having a body and a lid, the body having a cylindrical wall and a bottom wall, the body being puck-shaped and circular in cross section, and the body and the lid defining a rotated confinement; an insert (62, 63, 64); and a means for rotating the flow distributor, wherein said flow distributor having at least one central fluid medium inlet located in the bottom wall and a plurality of peripherally located fluid medium outlets being formed as a plurality of holes drilled in the cylindrical wall of the body, wherein the confinement is split into a plurality of sectors by the insert (62, 63, 64), said insert (62, 63, 64) being interchangeable and constructed with radially arranged dividing elements, each sector being connected with the at least one central fluid medium inlet and designated peripherally located fluid medium outlets, and wherein said transformation or trapping is performed in said confinement and said confinement being located in such a way that a fluid medium flows through said confinement before it diverges to the peripherally located fluid medium outlets, and wherein said sectorized confinement being adapted for containing one or more cartridges housing one or more solid reaction member(s) allowing at least one agent distributed with the flow to undergo a biological or chemical transformation in the confinement.
A method of monitoring a condition of a rotating airfoil comprising: obtaining a signal comprising a waveform indicative of an airfoil path past a sensor; determining at least two features of the waveform; comparing the at least two features of the waveform to predetermined waveform characteristics indicative of a vibrational mode; and identifying a vibrational mode of the airfoil based on the comparison between the predetermined waveform characteristics and the waveform indicative of the airfoil path, characterised by generating a model of a plurality of airfoil vibratory modes that correspond with a time of arrival and at least one of a time of positive and negative peaks of the signal and a slope of the signal at a zero crossing point, and identifying the vibrational mode of at least one fan blade based on the generated model. obtaining a signal comprising a waveform indicative of an airfoil path past a sensor; determining at least two features of the waveform; comparing the at least two features of the waveform to predetermined waveform characteristics indicative of a vibrational mode; and identifying a vibrational mode of the airfoil based on the comparison between the predetermined waveform characteristics and the waveform indicative of the airfoil path, characterised by generating a model of a plurality of airfoil vibratory modes that correspond with a time of arrival and at least one of a time of positive and negative peaks of the signal and a slope of the signal at a zero crossing point, and identifying the vibrational mode of at least one fan blade based on the generated model.
A device for automatic injection of a product into an injection site, comprising: - a housing capable of receiving a container containing the product and equipped with a needle, this container being movable relative to the housing between an initial position and an insertion position, distally spaced relative to the initial position, and - a safety shield member coupled to and movable with respect to the housing to a first position in which movement of the container from its initial position to its insertion position is possible, and to a second position in which the safety shield member is locked, the safety shield member having a free end that is distally spaced beyond a distal end of the needle when the safety shield member is in the second position, - activating means selectively movable from a first position to a second position in which the container is able to be moved from its initial position to its insertion position; - first and second locking means (16; 12) for locking said activating means; characterized in that: - the first and second locking means (16; 12) are formed to engage each other and allow the locking of the activating means in at least one position intermediate the first and second position of the activating means; - the first and second locking means (16; 12) being formed to disengage from each other when the safety shield member is in said first position, and to engage each other when the safety shield member is out of the first position. - a housing capable of receiving a container containing the product and equipped with a needle, this container being movable relative to the housing between an initial position and an insertion position, distally spaced relative to the initial position, and - a safety shield member coupled to and movable with respect to the housing to a first position in which movement of the container from its initial position to its insertion position is possible, and to a second position in which the safety shield member is locked, the safety shield member having a free end that is distally spaced beyond a distal end of the needle when the safety shield member is in the second position, - activating means selectively movable from a first position to a second position in which the container is able to be moved from its initial position to its insertion position; - first and second locking means (16; 12) for locking said activating means; - the first and second locking means (16; 12) are formed to engage each other and allow the locking of the activating means in at least one position intermediate the first and second position of the activating means; - the first and second locking means (16; 12) being formed to disengage from each other when the safety shield member is in said first position, and to engage each other when the safety shield member is out of the first position.
A permanent interpositional ophthalmological implant between the sclera and the uveal tissue, the implant comprises a body (20; 30; 40; 50) with uveal compatibility, formed as a single part, the thin body having three dimensions in space, namely a length and a width which are perpendicular to a thickness, the thin body having a substantially uniform single thickness (e) which is at least less than 10 times the smaller of the other two dimensions of the body, the body of the implant comprising two opposite edges (22, 24; 32, 34; 42; 44; 52, 54) which are distant from one another along one of the two dimensions perpendicular to the thickness, one of the edges, called anterior edge (22; 32; 42; 52), having, in projection in a plane perpendicular to the thickness, a concave curvature facing toward the outside of the body, the two opposite edges (22, 24; 32, 34; 42; 44; 52, 54) of the body, namely the anterior edge and the opposite posterior edge, being distant from one another along the smaller of the two dimensions perpendicular to the thickness, the concave curvature of the anterior edge allowing the implant to be positioned as close as possible to the trabecular meshwork in order to permanently collect the aqueous humor as close as possible to the uveoscleral flow.
A base station apparatus configured to perform measurement gap configuration, the base station apparatus comprising: baseband circuitry configured to decode uplink data with an initial communication from a user device, wherein the initial communication comprises capabilities of the user device; and to determine, based on an indication of a capability to support new radio frequency layers and Long Technology Evolution, LTE, frequency layers from the capabilities for the user device, a measurement gap configuration for the new radio frequency layers and for the LTE frequency layers, wherein the measurement gap configuration comprises a single measurement gap for both the new radio frequency layers for the user device and the LTE frequency layers for the user device; and an interface configured to send a frame comprising the measurement gap configuration to the user device. baseband circuitry configured to decode uplink data with an initial communication from a user device, wherein the initial communication comprises capabilities of the user device; and to determine, based on an indication of a capability to support new radio frequency layers and Long Technology Evolution, LTE, frequency layers from the capabilities for the user device, a measurement gap configuration for the new radio frequency layers and for the LTE frequency layers, wherein the measurement gap configuration comprises a single measurement gap for both the new radio frequency layers for the user device and the LTE frequency layers for the user device; and an interface configured to send a frame comprising the measurement gap configuration to the user device.