mhurhangee/ep-ind-claims huggingface dataset:
Adhesive tape containing an adhesive comprising - at least one polymer - optionally a tackifier resin - at least one reactive resin, the adhesive comprising at least 104 parts of the at least one reactive resin per 100 parts of polymer and tackifier resin - at least one initiator and/or curing agent and/or accelerator characterized in that the adhesive is a pressure sensitive adhesive, the at least one polymer being present as continuous polymer phase in the uncured state of the pressure sensitive adhesive, the reactive resin being in solution and/or dispersion in the polymer phase, - the reactive resin is an epoxy resin, being a solid having a softening temperature (measured according to the specified measurement method) of at least 45°C or having a viscosity of 25°C of at least 20 Pa s, preferably 50 Pa s, more particularly at least 150 Pa s (measured according to the specified measurement method) - and wherein the at least one polymer is a thermoplastic selected from the group of the polyurethanes, characterized in that the polyurethane is semicrystalline and in the DSC measurement has a melting peak or crystallization peak (measured according to the specified measurement method) which corresponds to an enthalpy of fusion of at least 25 J/g. - at least one polymer - optionally a tackifier resin - at least one reactive resin, the adhesive comprising at least 104 parts of the at least one reactive resin per 100 parts of polymer and tackifier resin - at least one initiator and/or curing agent and/or accelerator characterized in that the adhesive is a pressure sensitive adhesive, the at least one polymer being present as continuous polymer phase in the uncured state of the pressure sensitive adhesive, the reactive resin being in solution and/or dispersion in the polymer phase, - the reactive resin is an epoxy resin, being a solid having a softening temperature (measured according to the specified measurement method) of at least 45°C or having a viscosity of 25°C of at least 20 Pa s, preferably 50 Pa s, more particularly at least 150 Pa s (measured according to the specified measurement method) - and wherein the at least one polymer is a thermoplastic selected from the group of the polyurethanes, characterized in that the polyurethane is semicrystalline and in the DSC measurement has a melting peak or crystallization peak (measured according to the specified measurement method) which corresponds to an enthalpy of fusion of at least 25 J/g.
A lithium ion battery comprising: a positive electrode comprising: a positive current collector comprising aluminum; positive electrode material comprising a lithium-containing metal oxide or a lithium-containing metal phosphate; a binder; and conductive carbon; a negative electrode comprising: a negative current collector comprising copper, aluminum, titanium, or carbon; negative electrode material comprising a lithium titanium oxide, a carbon-containing material capable of intercalating lithium, a metal-alloy containing material capable of intercalating lithium, or a combination thereof; a binder; and conductive carbon; a separator comprising a material having a melt temperature of greater than 150°C; and an electrolyte comprising an organic solvent and a lithium salt; characterized in that the organic solvent comprises a solvent having a boiling point below 140°C; and wherein the lithium salt comprises lithium bis(trifluoromethanesulfonimide) (LiTFSI). a positive electrode comprising: a positive current collector comprising aluminum; positive electrode material comprising a lithium-containing metal oxide or a lithium-containing metal phosphate; a binder; and conductive carbon; a positive current collector comprising aluminum; positive electrode material comprising a lithium-containing metal oxide or a lithium-containing metal phosphate; a binder; and conductive carbon; a negative electrode comprising: a negative current collector comprising copper, aluminum, titanium, or carbon; negative electrode material comprising a lithium titanium oxide, a carbon-containing material capable of intercalating lithium, a metal-alloy containing material capable of intercalating lithium, or a combination thereof; a binder; and conductive carbon; a negative current collector comprising copper, aluminum, titanium, or carbon; negative electrode material comprising a lithium titanium oxide, a carbon-containing material capable of intercalating lithium, a metal-alloy containing material capable of intercalating lithium, or a combination thereof; a binder; and conductive carbon; a separator comprising a material having a melt temperature of greater than 150°C; and an electrolyte comprising an organic solvent and a lithium salt; characterized in that the organic solvent comprises a solvent having a boiling point below 140°C; and wherein the lithium salt comprises lithium bis(trifluoromethanesulfonimide) (LiTFSI).
A part transporting device comprising: an outer cylinder; multiple attracting members that are arrayed in a spiral shape about a center axis extending in an axial direction of the outer cylinder, on an inner surface side of the outer cylinder and that form a magnetic field on an outer surface side of the outer cylinder to attract a part to an outer surface of the outer cylinder, a rotary drive unit configured to rotatably move the attracting members about the center axis; and characterized in that the part transporting device further comprises: a restriction member that restricts rotational movement of the part to move the part axially along the outer surface of the outer cylinder. an outer cylinder; multiple attracting members that are arrayed in a spiral shape about a center axis extending in an axial direction of the outer cylinder, on an inner surface side of the outer cylinder and that form a magnetic field on an outer surface side of the outer cylinder to attract a part to an outer surface of the outer cylinder, a rotary drive unit configured to rotatably move the attracting members about the center axis; and characterized in that the part transporting device further comprises: a restriction member that restricts rotational movement of the part to move the part axially along the outer surface of the outer cylinder.
A welded structure comprising: a first metal part derived from a devitrified Al-RE-TM alloy having nanometer-sized grain structures and nanometer sized intermetallic phases; and a second metal part derived from a the same devitrified Al-RE-TM alloy having nanometer-sized grain structures and nanometer sized intermetallic phases; characterised by a friction stir welded joint between the first metal part and the second metal part without leaving coarse microstructures that reduce strength and ductility. a first metal part derived from a devitrified Al-RE-TM alloy having nanometer-sized grain structures and nanometer sized intermetallic phases; and a second metal part derived from a the same devitrified Al-RE-TM alloy having nanometer-sized grain structures and nanometer sized intermetallic phases; characterised by a friction stir welded joint between the first metal part and the second metal part without leaving coarse microstructures that reduce strength and ductility.
Patio radiant heater having a stable housing and at least one combustion chamber for burning biomass, in particular wood pellets, wherein the combustion chamber is designed as an interchangeable burner unit, and wherein the housing has a first receiving space for the interchangeable burner unit, which is designed to interchangeably accommodate the interchangeable burner unit, wherein the interchangeable burner unit is designed to be movable, wherein the interchangeable burner unit has a chassis with at least two wheels or rollers, and wherein preferably the interchangeable burner unit together with the combustion chamber are designed as a mobile burner cart.
A method for vibratory driving of a foundation into a subsoil by introduction of vibrations that are generated by means of a vibration device fastened to the foundation, the vibrations resulting in a fluidization of the subsoil so that the foundation penetrates the subsoil, wherein the penetration speed of the foundation into the subsoil is controlled and/or regulated by a change in the fluidization zone which directly surrounds the subsoil surrounding the foundation, wherein the penetration speed is changed by a change of size of the fluidization zone, wherein means for detecting the penetration progress are provided which detect whether the penetration of the foundation is slowed down so that in this case an effective mass of the foundation is increased and/or the fluidization zone is enlarged, wherein the means for detecting the penetration progress detect one or more insertion parameters, characterised in that the effective mass of the foundation is increased or reduced during penetration into the subsoil by means of pumping liquid from the interior or into the interior of the foundation. wherein the penetration speed of the foundation into the subsoil is controlled and/or regulated by a change in the fluidization zone which directly surrounds the subsoil surrounding the foundation, wherein the penetration speed is changed by a change of size of the fluidization zone, wherein means for detecting the penetration progress are provided which detect whether the penetration of the foundation is slowed down so that in this case an effective mass of the foundation is increased and/or the fluidization zone is enlarged, wherein the means for detecting the penetration progress detect one or more insertion parameters, characterised in that the effective mass of the foundation is increased or reduced during penetration into the subsoil by means of pumping liquid from the interior or into the interior of the foundation.
A method for cleanly extracting metallic silver, comprising the following steps: mixing an acidic solution containing Ce 4+ and NO 3 - with a silver-containing material for leaching; after the leaching is completed, carrying out a solid-liquid separation to obtain a leaching solution; and electrolyzing the leaching solution obtained in step, wherein an oxidation reaction of Ce 3+ occurs at an anode to obtain a solution containing Ce 4+ to achieve a regeneration of Ce 4+, and a reduction reaction of Ag + occurs at a cathode to obtain the metallic silver. mixing an acidic solution containing Ce 4+ and NO 3 - with a silver-containing material for leaching; after the leaching is completed, carrying out a solid-liquid separation to obtain a leaching solution; and electrolyzing the leaching solution obtained in step, wherein an oxidation reaction of Ce 3+ occurs at an anode to obtain a solution containing Ce 4+ to achieve a regeneration of Ce 4+, and a reduction reaction of Ag + occurs at a cathode to obtain the metallic silver.
A method for producing a negative electrode for a secondary battery, comprising: preparing a carbon-based active material; preparing a pre-dispersion slurry by mixing a silicon-based active material, a conductive material, and a polymer binder in a dispersion medium; mixing the carbon-based active material with the pre-dispersion slurry; preparing a negative electrode slurry by mixing a water-based binder with the mixture in which the carbon-based active material is mixed; applying the prepared negative electrode slurry on a current collector; and forming a negative electrode by removing moisture from the negative electrode slurry. preparing a carbon-based active material; preparing a pre-dispersion slurry by mixing a silicon-based active material, a conductive material, and a polymer binder in a dispersion medium; mixing the carbon-based active material with the pre-dispersion slurry; preparing a negative electrode slurry by mixing a water-based binder with the mixture in which the carbon-based active material is mixed; applying the prepared negative electrode slurry on a current collector; and forming a negative electrode by removing moisture from the negative electrode slurry.
A computer-implemented method (200,400) of reporting coronary plaque vulnerability from patient-specific anatomic image data, the method comprising: acquiring anatomical image data of at least part of the patient's vascular system; constructing a patient-specific geometric model from the anatomical image data; performing flow dynamics and structural mechanics simulations on geometrical features and on image features of the model; extracting geometrical, image, hemodynamic and/or biomechanical features from the patient-specific geometric model; creating feature vectors for points in the patient-specific geometric model, the feature vector for a point comprising a numerical description of the geometry, biophysical hemodynamic, and wall and plaque biomechanical characteristic at that point, as well as estimates of physiological or phenotypic parameters of the patient; using feature weights to produce estimates of a probability of plaque rupture or probability of a myocardial infarction event; and reporting the estimates of probability of plaque rupture or a myocardial infarction event. acquiring anatomical image data of at least part of the patient's vascular system; constructing a patient-specific geometric model from the anatomical image data; performing flow dynamics and structural mechanics simulations on geometrical features and on image features of the model; extracting geometrical, image, hemodynamic and/or biomechanical features from the patient-specific geometric model; creating feature vectors for points in the patient-specific geometric model, the feature vector for a point comprising a numerical description of the geometry, biophysical hemodynamic, and wall and plaque biomechanical characteristic at that point, as well as estimates of physiological or phenotypic parameters of the patient; using feature weights to produce estimates of a probability of plaque rupture or probability of a myocardial infarction event; and reporting the estimates of probability of plaque rupture or a myocardial infarction event.
An image pickup apparatus comprising: a pixel-shift processing section (23, 30, 45) configured to perform pixel shift photographing in a certain focus position to acquire a plurality of image data and perform pixel-shift combination processing of the acquired plurality of image data to generate pixel-shift combined image data; a depth processing section (31, 45) configured to cause the pixel-shift processing section (23, 30, 45) to perform processing on a plurality of focus positions, cause the pixel-shift processing section (23, 30, 45) to generate a plurality of pixel-shift combined image data in different focus positions, and perform depth combination processing of the plurality of pixel-shift combined image data to generate an image having a large depth of field; and a focused-region extracting section configured to extract a focused region in at least one of the plurality of focus positions, characterized in that the pixel-shift processing section (23, 30, 45) is configured to perform, concerning image data in a focus position where the focused region is extracted, the pixel-shift combination processing concerning only a partial image region including the focused region. a pixel-shift processing section (23, 30, 45) configured to perform pixel shift photographing in a certain focus position to acquire a plurality of image data and perform pixel-shift combination processing of the acquired plurality of image data to generate pixel-shift combined image data; a depth processing section (31, 45) configured to cause the pixel-shift processing section (23, 30, 45) to perform processing on a plurality of focus positions, cause the pixel-shift processing section (23, 30, 45) to generate a plurality of pixel-shift combined image data in different focus positions, and perform depth combination processing of the plurality of pixel-shift combined image data to generate an image having a large depth of field; and a focused-region extracting section configured to extract a focused region in at least one of the plurality of focus positions, characterized in that the pixel-shift processing section (23, 30, 45) is configured to perform, concerning image data in a focus position where the focused region is extracted, the pixel-shift combination processing concerning only a partial image region including the focused region.
A lens assembly comprising a lens element and a protective cover, wherein: the lens element comprises a contact lens surface and a faceted optical body comprising a faceted portion and a distal portion; the faceted portion is disposed between the contact lens surface and the distal portion; the faceted portion comprises one or more mirror facets comprising respective one or more internal, optically reflective facets and one or more external facets disposed opposite respective internal, optically reflective facets; the one or more internal, optically reflective facets comprise respective one or more total-internal-reflective surfaces; the one or more internal, optically reflective facets and the contact lens surface form a pathway for TIR activity; the protective cover comprises a contact aperture shaped to receive the contact lens surface, a grip portion, and a facet housing portion comprising an interior surface and disposed between the contact aperture and the grip portion; the contact aperture of the protective cover is stretch-fit about a periphery of the contact lens surface to maintain a proximal-side fluid seal; the grip portion of the protective cover is stretch-fit about the distal portion of the lens element to maintain a distal-side fluid seal; and one or more TIR-inducing air gaps are defined by the facet housing portion of the protective cover between the interior surface of the facet housing portion of the protective cover and the one or more external facets of the faceted portion of the faceted optical body. the lens element comprises a contact lens surface and a faceted optical body comprising a faceted portion and a distal portion; the faceted portion is disposed between the contact lens surface and the distal portion; the faceted portion comprises one or more mirror facets comprising respective one or more internal, optically reflective facets and one or more external facets disposed opposite respective internal, optically reflective facets; the one or more internal, optically reflective facets comprise respective one or more total-internal-reflective surfaces; the one or more internal, optically reflective facets and the contact lens surface form a pathway for TIR activity; the protective cover comprises a contact aperture shaped to receive the contact lens surface, a grip portion, and a facet housing portion comprising an interior surface and disposed between the contact aperture and the grip portion; the contact aperture of the protective cover is stretch-fit about a periphery of the contact lens surface to maintain a proximal-side fluid seal; the grip portion of the protective cover is stretch-fit about the distal portion of the lens element to maintain a distal-side fluid seal; and one or more TIR-inducing air gaps are defined by the facet housing portion of the protective cover between the interior surface of the facet housing portion of the protective cover and the one or more external facets of the faceted portion of the faceted optical body.
A container for collecting a cell-containing biological sample, preferably a blood sample, wherein the container comprises a composition suitable for stabilizing a cell-containing biological sample, the composition comprising: a) at least one compound according to formula 1, wherein R1 is a C2-alkyl residue, R2 and R3 are identical or different hydrocarbon residues with a length of the carbon chain of 1 - 20 atoms arranged in a linear or branched manner, and R4 is an oxygen residue, and wherein said compound according to formula 1 is an N,N-dialkylpropanamide; and comprising at least one further compound selected from b) and c), wherein b) is at least one caspase inhibitor; and c) is at least one anticoagulant, preferably a chelating agent. a) at least one compound according to formula 1, wherein R1 is a C2-alkyl residue, R2 and R3 are identical or different hydrocarbon residues with a length of the carbon chain of 1 - 20 atoms arranged in a linear or branched manner, and R4 is an oxygen residue, and wherein said compound according to formula 1 is an N,N-dialkylpropanamide; and comprising at least one further compound selected from b) and c), wherein b) is at least one caspase inhibitor; and c) is at least one anticoagulant, preferably a chelating agent.
A terminal configured to be connected to a mating terminal having a flat surface portion, the terminal comprising: a conductive main body having an abutment surface configured to face the flat surface portion; a terminal spring formed of a coil spring formed by spirally winding a metal wire material with both end portions of the coil spring joined to each other by bending the coil spring into an annular shape; and a fastener holding the annular terminal spring on the abutment surface, wherein the fastener includes: a main body shaft being inserted into a central space of the annular terminal spring, a first end of the main body shaft fixed to the conductive main body, characterized in that the fastener further includes: a plurality of arm portions extending outward in a radial direction of the fastener from a second end of the main body shaft, the second end being opposite to the first end, the plurality of arm portions being configured to hold the annular terminal spring at a contacting portion of the annular terminal spring, the contacting portion contacting the abutment surface. a conductive main body having an abutment surface configured to face the flat surface portion; a terminal spring formed of a coil spring formed by spirally winding a metal wire material with both end portions of the coil spring joined to each other by bending the coil spring into an annular shape; and a fastener holding the annular terminal spring on the abutment surface, wherein the fastener includes: a main body shaft being inserted into a central space of the annular terminal spring, a first end of the main body shaft fixed to the conductive main body, characterized in that the fastener further includes: a plurality of arm portions extending outward in a radial direction of the fastener from a second end of the main body shaft, the second end being opposite to the first end, the plurality of arm portions being configured to hold the annular terminal spring at a contacting portion of the annular terminal spring, the contacting portion contacting the abutment surface.