mhurhangee/ep-ind-claims huggingface dataset:
An energy source for renal neuromodulation configured for connecting to a catheter having a distal portion comprising an energy delivery element configured for placement at a treatment site within a renal blood vessel, the energy source adapted to be coupled to the energy delivery element and configured to deliver energy via the energy delivery element to target neural fibers proximate to a wall of the renal blood vessel, wherein the energy source comprises a component configured to- increase energy delivery to a predetermined first power level over a first period of time; maintain energy delivery at the first power level for a second period of time; and increase energy delivery to a second predetermined power level if the temperature value is less than a preset threshold temperature following the second period of time; and wherein the energy source further comprises a component configured to- obtain a set of treatment data corresponding to a completed treatment performed using the catheter, the energy source, and the energy delivery element; evaluate the set of treatment data in view of one or more criteria to determine if a valuation of the completed treatment is likely within a pre-determined range; and provide an indication as to whether the valuation of the completed treatment is likely within the pre-determined range. wherein the energy source comprises a component configured to- increase energy delivery to a predetermined first power level over a first period of time; maintain energy delivery at the first power level for a second period of time; and increase energy delivery to a second predetermined power level if the temperature value is less than a preset threshold temperature following the second period of time; and increase energy delivery to a predetermined first power level over a first period of time; maintain energy delivery at the first power level for a second period of time; and increase energy delivery to a second predetermined power level if the temperature value is less than a preset threshold temperature following the second period of time; and wherein the energy source further comprises a component configured to- obtain a set of treatment data corresponding to a completed treatment performed using the catheter, the energy source, and the energy delivery element; evaluate the set of treatment data in view of one or more criteria to determine if a valuation of the completed treatment is likely within a pre-determined range; and provide an indication as to whether the valuation of the completed treatment is likely within the pre-determined range. obtain a set of treatment data corresponding to a completed treatment performed using the catheter, the energy source, and the energy delivery element; evaluate the set of treatment data in view of one or more criteria to determine if a valuation of the completed treatment is likely within a pre-determined range; and provide an indication as to whether the valuation of the completed treatment is likely within the pre-determined range.
A gas valve unit, comprising an enclosure provided with an inlet and an outlet, which inlet and outlet comprises an inner pipe and an outer pipe, wherein the inner pipe is arranged to extend from the inlet to the outlet via the enclosure forming a gas tight internal piping inside the enclosure, and the outer pipe is arranged to open into the enclosure via at least one opening, and further the walls of the inner pipe and the outer pipe forming a space there between, which space is a first volume, and the enclosure forming a space inside, which space is a second volume, and the first volume and the second volume are arrangeable in flow communication with each other via the at least one opening in connection with the outer pipe, characterized in that the gas valve unit comprises an at least one blocking unit selectively blocking and unblocking the at least one opening in connection with the outer pipe and the flow communication between the first volume and the second volume.
A high efficiency bypass circuit for multi-stage direct current to direct current (DC-DC) converter, the DC-DC converter comprising a boost converter and a flyback converter, the bypass circuit characterized by: a relay comprising one or more switches, each switch configured to connect an output terminal of the boost converter to an output terminal of the flyback converter when the relay is energized; a boost converter control circuit configured to: adjust an output voltage of the boost converter in response to a battery mode control signal; and a flyback converter control circuit configured to: stop operation of the flyback converter and energize the relay if the battery mode control signal is in a battery mode state; and enable the flyback converter if the battery mode control signal is in another state that is not the battery mode state. a relay comprising one or more switches, each switch configured to connect an output terminal of the boost converter to an output terminal of the flyback converter when the relay is energized; a boost converter control circuit configured to: adjust an output voltage of the boost converter in response to a battery mode control signal; and a flyback converter control circuit configured to: stop operation of the flyback converter and energize the relay if the battery mode control signal is in a battery mode state; and enable the flyback converter if the battery mode control signal is in another state that is not the battery mode state. stop operation of the flyback converter and energize the relay if the battery mode control signal is in a battery mode state; and enable the flyback converter if the battery mode control signal is in another state that is not the battery mode state.
Process for obtaining a solid bitumen material, this process comprising the steps consisting in: a) preparing an emulsion of drops of bitumen in an aqueous phase, said emulsion being stabilized with a mixture of at least two types of solid particles, a first type of solid particles with a diameter of between 30 nm and 3000 nm, and a second type of solid particles with a diameter of between 2 nm and 100 nm, it being understood that the first type of solid particles has a diameter at least three times greater than that of the second type of solid particles; b) optionally, forming a shell around the drops of bitumen obtained in step (a) by reaction of a silicon oxide precursor in acidic aqueous medium; c) drying until a solid bitumen material is obtained. a) preparing an emulsion of drops of bitumen in an aqueous phase, said emulsion being stabilized with a mixture of at least two types of solid particles, a first type of solid particles with a diameter of between 30 nm and 3000 nm, and a second type of solid particles with a diameter of between 2 nm and 100 nm, it being understood that the first type of solid particles has a diameter at least three times greater than that of the second type of solid particles; b) optionally, forming a shell around the drops of bitumen obtained in step (a) by reaction of a silicon oxide precursor in acidic aqueous medium; c) drying until a solid bitumen material is obtained.
A process for preparing Compound 7 of the formula comprising a) reacting compound 4a of the formula where X 3 is Cl, Br, I or F; with N -methyl- N -formylhydrazine and a suitable base to afford Compound 5a of the formula b) which is then nitrated to afford Compound 6a of the formula c) which is subsequently reduced to afford Compound 7. a) reacting compound 4a of the formula where X 3 is Cl, Br, I or F; with N -methyl- N -formylhydrazine and a suitable base to afford Compound 5a of the formula b) which is then nitrated to afford Compound 6a of the formula c) which is subsequently reduced to afford Compound 7.
A film comprising at least one core layer sandwiched between at least two skin layers, the layers comprising: (i) a core layer comprising polypropylene, and within a range of from 20 wt.% to 50 wt.%, by weight of materials in the core layer, of a propylene-α-olefin elastomer having within a range of from 5 wt.% to 25 wt.% α-olefin derived units, by weight of copolymer in the propylene-α-olefin elastomer; and (ii) the at least two skin layers comprising one or more polymers having a melting point within a range of from 125°C to 160°C (ASTM D3418), a Shore D Hardness within a range of from 55 to 70, and a Flexural Modulus (ISO 178) of at least 500 MPa; wherein the film is a shrink film and has a haze value (ASTM D 1003) of less than 10%, and wherein the film is biaxially oriented and secondarily oriented in a chosen direction to produce at least 15% shrinkage above 130°C in the chosen direction comprising a machine direction or a traverse direction. (i) a core layer comprising polypropylene, and within a range of from 20 wt.% to 50 wt.%, by weight of materials in the core layer, of a propylene-α-olefin elastomer having within a range of from 5 wt.% to 25 wt.% α-olefin derived units, by weight of copolymer in the propylene-α-olefin elastomer; and (ii) the at least two skin layers comprising one or more polymers having a melting point within a range of from 125°C to 160°C (ASTM D3418), a Shore D Hardness within a range of from 55 to 70, and a Flexural Modulus (ISO 178) of at least 500 MPa;
A cathode active material comprising: lithium transition metal oxide particles; and composite particles, wherein the composite particles comprise any one selected from the group consisting of yttria stabilized zirconia, wherein the YSZ is Zr (1-x) Y x O 2-x/2 with 0.01≤x≤0.30, gadolinia-doped ceria, lanthanum strontium gallate magnesite (LSGM), lanthanum strontium manganite, calcium (Ca)-doped zirconia or calcia stabilized zirconia, scandium (Sc)-doped zirconia, and nickel (Ni)-YSZ, or a mixture of two or more thereof, and the composite particles have a single-phase peak when analyzed by X-ray diffraction, wherein the lithium transition metal oxide particles comprise a compound of Chemical Formula 1: <Chemical Formula 1> Li (1+a) Ni (1-b-c) Mn (b) Co (c) M' (s) M" (v) O 2 where M' comprises any one selected from the group consisting of Y, Zr, lanthanum (La), strontium (Sr), gallium (Ga), Mg, manganese (Mn), Ca, Sc, and Ni, or mixed elements of two or more thereof, M" is at least one element of Ca, Nb, W, Mg, Ti, B, Mo, Sc, and Zr, and 0≤a<0.2, 0≤b≤1, 0≤c≤1, 0≤s≤0.2, and 0≤v≤0.2, wherein the composite particles are coated on outer surfaces of the lithium transition metal oxide particles to form a coating layer, and wherein the coating layer further comprises an oxide including at least one element of calcium (Ca), niobium (Nb), tungsten, magnesium (Mg), titanium (Ti), boron, molybdenum (Mo), scandium (Sc), and zirconium (Zr). lithium transition metal oxide particles; and composite particles, wherein the composite particles comprise any one selected from the group consisting of yttria stabilized zirconia, wherein the YSZ is Zr (1-x) Y x O 2-x/2 with 0.01≤x≤0.30, gadolinia-doped ceria, lanthanum strontium gallate magnesite (LSGM), lanthanum strontium manganite, calcium (Ca)-doped zirconia or calcia stabilized zirconia, scandium (Sc)-doped zirconia, and nickel (Ni)-YSZ, or a mixture of two or more thereof, and the composite particles have a single-phase peak when analyzed by X-ray diffraction, wherein the lithium transition metal oxide particles comprise a compound of Chemical Formula 1: <Chemical Formula 1> Li (1+a) Ni (1-b-c) Mn (b) Co (c) M' (s) M" (v) O 2 where M' comprises any one selected from the group consisting of Y, Zr, lanthanum (La), strontium (Sr), gallium (Ga), Mg, manganese (Mn), Ca, Sc, and Ni, or mixed elements of two or more thereof, M" is at least one element of Ca, Nb, W, Mg, Ti, B, Mo, Sc, and Zr, and 0≤a<0.2, 0≤b≤1, 0≤c≤1, 0≤s≤0.2, and 0≤v≤0.2, where M' comprises any one selected from the group consisting of Y, Zr, lanthanum (La), strontium (Sr), gallium (Ga), Mg, manganese (Mn), Ca, Sc, and Ni, or mixed elements of two or more thereof, M" is at least one element of Ca, Nb, W, Mg, Ti, B, Mo, Sc, and Zr, and 0≤a<0.2, 0≤b≤1, 0≤c≤1, 0≤s≤0.2, and 0≤v≤0.2, wherein the composite particles are coated on outer surfaces of the lithium transition metal oxide particles to form a coating layer, and wherein the coating layer further comprises an oxide including at least one element of calcium (Ca), niobium (Nb), tungsten, magnesium (Mg), titanium (Ti), boron, molybdenum (Mo), scandium (Sc), and zirconium (Zr).
Device for continuous infusion for the administration of medications, comprising a housing, in which an infusion device can be inserted, with at least one infusion liquid container which can be pressed out, an actuating device for pressing out the infusion device, a drive unit for repositioning the actuating device, which comprises a mechanical energy storage device, and a mechanical control arrangement, by means of which the speed of the actuating device can be adjusted, characterised in that the control arrangement comprises a brake device, which provides at least one brake element which can be braked, which is movement-coupled to the drive unit, and magnetic means, by means of which a magnetic field can be generated, which imposes a braking force on the brake element, wherein the magnetic means can be adjusted in order to adjust the braking force in relation to the braking element in its position.
System for fixing a balise in a three rail track, comprising: a) two outer rails (4, 6) and a further rail arranged between the two outer rails (4, 6), b) two cross members which are arranged at a distance from one another and are fixed in each case to the rail feet of the outer rails (4, 6); c) a mounting plate for the balise, which is fixed to the cross members and has mounting points (26, 28) for fixing the balise; d) a balise, which is essentially rectangular when viewed from above, arranged on the mounting plate, wherein on account of the available mounting points (26, 28) the balise can be mounted aligned transversely to or along the course of the two outer rails (4, 6), and wherein: e) the mounting plate is designed in the shape of the capital letter H and the two perpendicular limbs (14a, 14b) of the H are arranged in the direction of the course of the cross members and are arranged abutting the rail arranged between the two outer rails (4, 6). a) two outer rails (4, 6) and a further rail arranged between the two outer rails (4, 6), b) two cross members which are arranged at a distance from one another and are fixed in each case to the rail feet of the outer rails (4, 6); c) a mounting plate for the balise, which is fixed to the cross members and has mounting points (26, 28) for fixing the balise; d) a balise, which is essentially rectangular when viewed from above, arranged on the mounting plate, wherein on account of the available mounting points (26, 28) the balise can be mounted aligned transversely to or along the course of the two outer rails (4, 6), and wherein: e) the mounting plate is designed in the shape of the capital letter H and the two perpendicular limbs (14a, 14b) of the H are arranged in the direction of the course of the cross members and are arranged abutting the rail arranged between the two outer rails (4, 6).
A switching and mixing device, in particular for a ventilation-techology facility, with at least a first main flow path from an exhaust connection to an outgoing air connection, a second main flow path from an outdoor air connection to a supply air connection, and a housing that comprises both flow paths, wherein the switching and mixing device has at least two connection flow paths connected to the main flow paths and is also designed as a split double duct guide or comprises at least two switching ducts (20.1, 20.2) routed in parallel to each other, wherein flaps are arranged integrated into the switching and mixing device or arranged on the switching and mixing device, said flaps permitting bypassing of a heat exchanger switched in the main flow paths (1, 3) based on special flap circuits and/or flap controls, and the main flow paths (1, 3) being switchable so that the outdoor air will be connected to the outgoing air and the exhaust air to the supply air, and wherein the heat exchanger is a plate heat exchanger in cross-counterflow that is inserted at a closed housing end, the deflection end, of the switching and mixing device and that is thus formed as deflection chamber for the first main flow path and the second main flow path.
An optical scanning apparatus, comprising: a light source, configured to emit a light beam; a first optical unit, configured to collimate the light beam emitted from the light source along a primary scanning direction and focus the light beam from the light source along a secondary scanning direction; an optical deflector, configured to deflect the light beam emitted from the first optical unit; and a second optical unit, configured to guide the light beam deflected by the optical deflector on a scanned target surface for forming an image, wherein: an image height on the scanned target surface satisfies an expression: Y=fc×tan(B×θ), wherein Y denotes the image height on the scanned target surface, fc denotes an image-forming characteristic coefficient of the second optical unit, B denotes a scanning coefficient of the second optical unit, θ denotes an effective scanning angle of the optical scanning apparatus, characterized in that, all region or the partial region in effective scanning range of the second optical unit satisfies a condition: 0.76≤B≤0.82. a light source, configured to emit a light beam; a first optical unit, configured to collimate the light beam emitted from the light source along a primary scanning direction and focus the light beam from the light source along a secondary scanning direction; an optical deflector, configured to deflect the light beam emitted from the first optical unit; and a second optical unit, configured to guide the light beam deflected by the optical deflector on a scanned target surface for forming an image, wherein: an image height on the scanned target surface satisfies an expression: Y=fc×tan(B×θ), wherein Y denotes the image height on the scanned target surface, fc denotes an image-forming characteristic coefficient of the second optical unit, B denotes a scanning coefficient of the second optical unit, θ denotes an effective scanning angle of the optical scanning apparatus, characterized in that, all region or the partial region in effective scanning range of the second optical unit satisfies a condition: 0.76≤B≤0.82. an image height on the scanned target surface satisfies an expression: Y=fc×tan(B×θ), wherein Y denotes the image height on the scanned target surface, fc denotes an image-forming characteristic coefficient of the second optical unit, B denotes a scanning coefficient of the second optical unit, θ denotes an effective scanning angle of the optical scanning apparatus, characterized in that, all region or the partial region in effective scanning range of the second optical unit satisfies a condition: 0.76≤B≤0.82.
The TLR7 agonist [ -1-[(2S,4R,5R)-5-(5-amino-2-oxo-thiazolo[4,5-d]pyrimidin-3-yl)-4-hydroxy-tetrahydrofuran-2-yl]propyl] acetate and the HBV capsid assembly inhibitor 3-[ -7-[[ -5-ethoxycarbonyl-4-(3-fluoro-2-methyl-phenyl)-2-thiazol-2-yl-1,4-dihydropyrimidin-6-yl]methyl]-3-oxo-5,6,8,8a-tetrahydro-1H-imidazo[1,5-a]pyrazin-2-yl]-2,2-dimethyl-propanoic acid for use in the treatment of hepatitis B virus infection, which are co-administered in the same formulation or different formulation.
A method for manufacturing an electrode, comprising a step of applying a composition for forming an active layer containing a binder, a conductive material and an active material on a current collector, followed by drying, wherein the step of drying comprises the following steps 1) to 4): 1) a step of preheating a current collector applied with a composition for forming an active layer; 2) a step of fixed rate evaporating said preheated current collector; 3) a step of lapse rate evaporating; and 4) a step of removing a residual solvent at a temperature lower than said preheating step, wherein the step 1) is carried out in a range of 150°C to 180°C. wherein the step 2) is carried out at a lower temperature in the range of 25°C to 60°C relative to the step 1), wherein the step 2) is carried out in a range of 105°C to 130°C, wherein the residual solvent in the electrode is in a range of 1% by weight to 5% by weight after completing the step 2). wherein the step 3) is carried out in a range of 90°C to 105°C, wherein the residual solvent in the electrode is in a range of 0.05% by weight to 0.8% by weight after completing the step 3). wherein the step 4) is carried out in a range of 130°C to 145°C, wherein the residual solvent in the electrode is 0.05% by weight or less after completing the step 4), wherein each temperature in the steps 1) to 4) is a hot air temperature. 1) a step of preheating a current collector applied with a composition for forming an active layer; 2) a step of fixed rate evaporating said preheated current collector; 3) a step of lapse rate evaporating; and 4) a step of removing a residual solvent at a temperature lower than said preheating step,
Method for performing a dosing of reducing agent in an SCR catalytic converter system of an internal combustion engine, wherein the SCR catalytic converter system has a first SCR exhaust-gas purification device and, positioned downstream thereof, an SCR catalytic converter, and also has a reducing agent dosing device for dosing a reducing agent into an exhaust-gas flow upstream of the first SCR exhaust-gas purification device, characterized in that, if an exhaust-gas mass flow (m_Abgas) is higher than a predetermined exhaust-gas mass flow threshold (m_max) and a temperature (T_SCR) of the downstream SCR catalytic converter is higher than a predetermined minimum temperature (T_SCR_min), the dosing of reducing agent switches to a high-load operating mode in which a reducing agent setpoint fill level (NH3_SPF_soll) of the first SCR exhaust-gas purification device is reduced or is lowered to zero.
A method for friction stir welding using a device, a tool, which is designed as a friction stir welding tool, being driven by means of a spindle with a spindle axis, a force acting on the spindle being measured and the method being controlled depending on the force measured at the spindle, characterized in that an adapter, particularly an angled head, is arranged between the spindle and the tool, so that the tool axis, about which the tool rotates, does not coincide with the spindle axis.