mhurhangee/ep-ind-claims huggingface dataset:
A dental mill blank comprising: an inorganic filler containing an inorganic filler A and an inorganic filler B; and a polymer, the inorganic filler A partly forming an aggregate, and the dental mill blank satisfying the following formulae to, 0.001 ≤ a < 0.3 0.3 ≤ b ≤ 10 10 ≤ x ≤ 80 where a is an average primary particle diameter of the inorganic filler Ain micrometers, b is an average primary particle diameter of the inorganic filler B in micrometers, and x is an average particle diameter of the aggregate in micrometers and wherein the dental mill blank further comprises an island component containing the aggregate, and a sea component containing the inorganic filler A and the inorganic filler B and wherein the island component has an area fraction of 5 to 20% in a cross section observed with a microscope. an inorganic filler containing an inorganic filler A and an inorganic filler B; and a polymer, the inorganic filler A partly forming an aggregate, and the dental mill blank satisfying the following formulae to, 0.001 ≤ a < 0.3 0.3 ≤ b ≤ 10 10 ≤ x ≤ 80 where a is an average primary particle diameter of the inorganic filler Ain micrometers, b is an average primary particle diameter of the inorganic filler B in micrometers, and x is an average particle diameter of the aggregate in micrometers and wherein the dental mill blank further comprises an island component containing the aggregate, and a sea component containing the inorganic filler A and the inorganic filler B and wherein the island component has an area fraction of 5 to 20% in a cross section observed with a microscope.
A method for the recombinant production of DNA single strand molecules, comprising the steps of providing a pseudogene nucleic acid, wherein said pseudogene nucleic acid is a nucleic acid that comprises at least one target DNA oligo- or polynucleotide sequence and two self-cleaving DNA sequences flanking each target DNA oligo- or polynucleotide sequence, integrating the pseudogene nucleic acid into a vector, transforming bacterial cells with said vector and producing a precursor ssDNA from said vector under bacterial culture conditions, wherein said precursor ssDNA comprises the pseudogene nucleic acid; isolating the precursor ssDNA from the bacterial culture; digesting the precursor ssDNA under reaction conditions where the self-cleaving DNA sequences become active; and separating the target single stranded DNA oligo- or polynucleotide(s) and obtaining the target single stranded DNA oligo- or polynucleotide(s). providing a pseudogene nucleic acid, wherein said pseudogene nucleic acid is a nucleic acid that comprises at least one target DNA oligo- or polynucleotide sequence and two self-cleaving DNA sequences flanking each target DNA oligo- or polynucleotide sequence, integrating the pseudogene nucleic acid into a vector, transforming bacterial cells with said vector and producing a precursor ssDNA from said vector under bacterial culture conditions, wherein said precursor ssDNA comprises the pseudogene nucleic acid; isolating the precursor ssDNA from the bacterial culture; digesting the precursor ssDNA under reaction conditions where the self-cleaving DNA sequences become active; and separating the target single stranded DNA oligo- or polynucleotide(s) and obtaining the target single stranded DNA oligo- or polynucleotide(s).
A cassette for dental prostheses intended to be used in a cleaning device or in a dishwasher, said cassette having at least one bottom, one front lateral face, one rear lateral face and two side lateral faces, said faces (10c, 10d, 10f) and the bottom delimiting an internal volume of the cassette configured to house a dental prosthesis, said cassette comprising: - at least one first cooperating tab protruding relative to the internal volume, said first cooperating tab being configured to cooperate with a first retaining housing formed on another adjacent cassette, - at least one first retaining housing configured to cooperate with a first cooperating tab formed on another adjacent cassette, - a dental prostheses holding system housed in the interior volume of the cassette, the holding system comprising a support plate arranged in the internal volume of the cassette, characterized in that the holding system comprises a helical spring configured to be in the rest position when the cassette is empty and in the compression position when the cassette contains a dental prosthesis and a plurality of support fins configured to maintain the support plate on the spring. - at least one first cooperating tab protruding relative to the internal volume, said first cooperating tab being configured to cooperate with a first retaining housing formed on another adjacent cassette, - at least one first retaining housing configured to cooperate with a first cooperating tab formed on another adjacent cassette, - a dental prostheses holding system housed in the interior volume of the cassette, the holding system comprising a support plate arranged in the internal volume of the cassette, characterized in that the holding system comprises a helical spring configured to be in the rest position when the cassette is empty and in the compression position when the cassette contains a dental prosthesis and a plurality of support fins configured to maintain the support plate on the spring.
A process for manufacturing a part, the process comprising: receiving a plurality of metal materials with different chemical compositions, wherein the metal materials are received as one or more powders of discrete particles, wherein a first of the metal materials is not alloyed with a second of the metal materials; subsequent to said step of receiving, solidifying the metal materials together using an energy beam of an additive manufacturing system to form at least a portion of the part which comprises an alloy of the metal materials, and alloying the first of the metal materials with the second of the metal materials during the solidifying, wherein the first of the metal materials and the second of the metal materials produce an exothermic reaction during the alloying, wherein the plurality of discrete particles includes a core of the first of the metal materials at least partially coated by a coating of the second of the metal materials, wherein the coating of the second of the metal materials is at least partially coated by a coating of another one of the first or second metal materials, or a third of the metal materials. receiving a plurality of metal materials with different chemical compositions, wherein the metal materials are received as one or more powders of discrete particles, wherein a first of the metal materials is not alloyed with a second of the metal materials; subsequent to said step of receiving, solidifying the metal materials together using an energy beam of an additive manufacturing system to form at least a portion of the part which comprises an alloy of the metal materials, and alloying the first of the metal materials with the second of the metal materials during the solidifying, wherein the first of the metal materials and the second of the metal materials produce an exothermic reaction during the alloying, wherein the plurality of discrete particles includes a core of the first of the metal materials at least partially coated by a coating of the second of the metal materials, wherein the coating of the second of the metal materials is at least partially coated by a coating of another one of the first or second metal materials, or a third of the metal materials.
A medical fluid management system, comprising: a first fluid line; a first pump configured to carry distension fluid from a fluid reservoir of the distention fluid through the first line to a body cavity; a second fluid line (555, 555'); a third fluid line; a filter system; a second pump configured to deliver the distension fluid through the second fluid line from the body cavity, through the filter system, and through the third fluid line from the filter system back to the fluid reservoir; a controller (155; 545); and a pressure sensor communicating with a dedicated flow channel communicating with the body cavity for providing intra-cavity pressure signals to the controller, wherein the controller is configured to control the first and second pumps to maintain a selected pressure in the body cavity in response to the intra-cavity pressure signals; wherein the first fluid line is in communication with a fluid flow channel of an endoscope; and wherein the dedicated flow channel extends through the endoscope. a first fluid line; a first pump configured to carry distension fluid from a fluid reservoir of the distention fluid through the first line to a body cavity; a second fluid line (555, 555'); a third fluid line; a filter system; a second pump configured to deliver the distension fluid through the second fluid line from the body cavity, through the filter system, and through the third fluid line from the filter system back to the fluid reservoir; a controller (155; 545); and a pressure sensor communicating with a dedicated flow channel communicating with the body cavity for providing intra-cavity pressure signals to the controller, wherein the controller is configured to control the first and second pumps to maintain a selected pressure in the body cavity in response to the intra-cavity pressure signals; wherein the first fluid line is in communication with a fluid flow channel of an endoscope; and wherein the dedicated flow channel extends through the endoscope.
Doffer gripper for fastening onto a doffer bar, having a fastening element, which comprises two elastic holding straps (6a, 6b) arranged at a distance from one another and one rigid supporting element arranged between the elastic holding straps (6a, 6b), wherein the two elastic holding straps (6a, 6b) are each connected to the fastening element at a first end (27a, 27b) and each is positioned with its second free end (13a, 13b) over at least one spring element (18a, 18b) in a resting position, characterized in that the at least one spring element (18a, 18b) is designed in one piece with the free end (13a, 13b) of the respective elastic holding strap (6a, 6b) and the rigid supporting element.
A colored resin particle dispersion comprising colored resin particles, a basic dispersant, and a non-aqueous solvent, wherein the colored resin particles comprise a colorant, and a phosphorylated solid resin and/or a nitrated solid resin.
A method of classifying a medical image by a computing device operated by at least one processor, the method comprising: obtaining an abnormality score of an input image using an abnormality prediction model; excluding the input image from being subsequently analyzed and classifying the input image as strong normal, when the abnormality score is less than or equal to a cut-off score based on the cut-off score which makes a specific reading sensitivity; and obtaining an analysis result of the input image using a classification model that distinguishes the input image into weak normal or abnormal when the abnormality score is greater than the cut-off score, wherein the classification model includes an artificial intelligence model that has learned a task of distinguishing the input image into weak normal or abnormal, and characterised in that wherein obtaining the abnormality score comprises obtaining calibrated disease prediction scores, through calibration that converts a cut-off score for each disease, which makes the specific reading sensitivity, into the cut-off score, and determining a maximum value among the calibrated disease prediction scores as the abnormality score. obtaining an abnormality score of an input image using an abnormality prediction model; excluding the input image from being subsequently analyzed and classifying the input image as strong normal, when the abnormality score is less than or equal to a cut-off score based on the cut-off score which makes a specific reading sensitivity; and obtaining an analysis result of the input image using a classification model that distinguishes the input image into weak normal or abnormal when the abnormality score is greater than the cut-off score, wherein the classification model includes an artificial intelligence model that has learned a task of distinguishing the input image into weak normal or abnormal, and characterised in that wherein obtaining the abnormality score comprises obtaining calibrated disease prediction scores, through calibration that converts a cut-off score for each disease, which makes the specific reading sensitivity, into the cut-off score, and determining a maximum value among the calibrated disease prediction scores as the abnormality score.
A system for secure handling of sensitive data, the system comprising: a sensing device configured to measure electrophysiological signals and to encrypt the measured electrophysiological signals to generate encrypted electrophysiological signals using a public data key; a remote server configured to receive the encrypted electrophysiological signals from the sensing device, and to store an encrypted private data key, wherein the remote server is further configured to decrypt the private data key based on a user's key phrase and to decrypt the encrypted electrophysiological signals based on the decrypted private data key to generate classified data based on the decrypted electrophysiological signals. a sensing device configured to measure electrophysiological signals and to encrypt the measured electrophysiological signals to generate encrypted electrophysiological signals using a public data key; a remote server configured to receive the encrypted electrophysiological signals from the sensing device, and to store an encrypted private data key, wherein the remote server is further configured to decrypt the private data key based on a user's key phrase and to decrypt the encrypted electrophysiological signals based on the decrypted private data key to generate classified data based on the decrypted electrophysiological signals.
A seal structure for a fuel pump in which a fuel pump insertion port is formed in a fuel tank for stocking fuel, and an annular double seal is disposed between the fuel pump insertion port and a flange provided to the fuel pump, characterized in that the double seal has an outer seal and an inner seal which are configured as separate bodies, the outer seal is provided with outer seal inward projecting portions projecting inwards in a radial direction thereof, the inner seal is provided with inner seal outward projecting portions projecting outwards in the radial direction, any one of the fuel pump and the fuel tank is provided with positioning portions (48, 49) in which the outer seal inward projecting portions and the inner seal outward projecting portions are fitted, and the outer seal inward projecting portions and the inner seal outward projecting portions are alternately arranged along a peripheral direction of the seals and located within the same width in the radial direction.
Electrical appliance having two movably interconnected components (2, 3) which can be displaced from an open position into a closed position for use, and having a cable, wherein an edge cable receptacle is formed on one of the moveable components (2, 3) and a cable routing area (14, 15) is formed on the other of the moveable components (2, 3), wherein the cable routing area (14, 15) is designed to receive the cable, which is connected or can be connected to the electrical appliance and which is wound around the electrical appliance when the electrical appliance is not in use in the closed position in such a way that the two components (2, 3) are held in the closed position, characterised in that two cable routing areas (14, 15) are arranged on both sides of the cable receptacle such that the cable receptacle, at its entry end and at its exit end for the cable, can be clamped relative to the other component (2, 3) by means of the cable, wherein the cable is deflected from the cable routing area (14, 15) of one component (2, 3) to the cable receptacle of the other component (2, 3), wherein the cable receptacle is arranged diametrically to a connection formed as a joint between the components (2, 3).
Baking oven having a baking chamber, having a heat accumulator, having a heating circuit for the baking chamber, said heating circuit being connected to the heat accumulator, and having a solar collector which is connected to a charging circuit for the heat accumulator, characterised in that the baking oven comprises a heat-insulated housing and the heat accumulator and the baking chamber provided above the heat accumulator are arranged in the heat-insulated housing, and in that the baking chamber comprises a fireclay lining and the heating circuit is laid on the outer side of the fireclay lining of the baking chamber.
A method of producing a multi-layered confectionery shell comprising the steps of: (i) depositing a first edible liquid into a mould cavity; (ii) pressing the first edible liquid against the wall of the mould cavity using a stamp having a surface temperature below the solidification temperature of the first edible liquid so as to shape and at least partially solidify the first edible liquid in the mould cavity; (iii) removing the stamp from the mould cavity; (iv) depositing a second edible liquid into the mould cavity; (v) pressing the second edible liquid against the layer formed from the first edible liquid using a stamp having a surface temperature below the solidification temperature of the second edible liquid so as to shape and at least partially solidify the second edible liquid in the mould cavity; and (vi) removing at least one of the first and second edible liquids which has been ejected from the mould cavity or material formed from ejected edible liquid by passing scraping means outwardly over the boundary of the mould cavity in two or more different outward directions; wherein the distance x the stamp is pressed into the mould cavity in step (v) is shorter than the distance x the stamp is pressed into the mould cavity in step (ii). (i) depositing a first edible liquid into a mould cavity; (ii) pressing the first edible liquid against the wall of the mould cavity using a stamp having a surface temperature below the solidification temperature of the first edible liquid so as to shape and at least partially solidify the first edible liquid in the mould cavity; (iii) removing the stamp from the mould cavity; (iv) depositing a second edible liquid into the mould cavity; (v) pressing the second edible liquid against the layer formed from the first edible liquid using a stamp having a surface temperature below the solidification temperature of the second edible liquid so as to shape and at least partially solidify the second edible liquid in the mould cavity; and (vi) removing at least one of the first and second edible liquids which has been ejected from the mould cavity or material formed from ejected edible liquid by passing scraping means outwardly over the boundary of the mould cavity in two or more different outward directions;
A gas cup for a damper assembly comprising: a body including an upper surface, a lower surface, an exterior surface and an interior surface; said body defining an aperture extending through said upper surface and said lower surface; a decoupler located in said aperture and secured to said body; and a bridging member located between said decoupler and said body and coupled to said decoupler and said body, said decoupler and said bridging member being made from materials having different elasticity to allow said decoupler to move in said aperture in response to a volumetric change in the damper assembly and to provide variable tuning of the damper assembly, wherein the gas cup further includes at least one stopper (72, 74) located in said aperture and coupled to said interior surface for restricting movement of said decoupler, wherein said at least one stopper (72, 74) includes an upper stopper and a lower stopper, said upper stopper being located adjacent to said upper surface and coupled to said body for restricting an axial movement of said decoupler toward said upper surface; and said lower stopper being located adjacent to said lower surface and coupled to said body for restricting an axial movement of said decoupler toward said lower surface, characterized in that said upper stopper defines a first orifice bounded by a first periphery, said first periphery extends about a center axis and includes at least one first peak and at least one first trough. a body including an upper surface, a lower surface, an exterior surface and an interior surface; said body defining an aperture extending through said upper surface and said lower surface; a decoupler located in said aperture and secured to said body; and a bridging member located between said decoupler and said body and coupled to said decoupler and said body, said decoupler and said bridging member being made from materials having different elasticity to allow said decoupler to move in said aperture in response to a volumetric change in the damper assembly and to provide variable tuning of the damper assembly, wherein the gas cup further includes at least one stopper (72, 74) located in said aperture and coupled to said interior surface for restricting movement of said decoupler, wherein said at least one stopper (72, 74) includes an upper stopper and a lower stopper, said upper stopper being located adjacent to said upper surface and coupled to said body for restricting an axial movement of said decoupler toward said upper surface; and said lower stopper being located adjacent to said lower surface and coupled to said body for restricting an axial movement of said decoupler toward said lower surface, characterized in that said upper stopper defines a first orifice bounded by a first periphery, said first periphery extends about a center axis and includes at least one first peak and at least one first trough.
An integrated current-measuring apparatus for measuring a current by integrally using a Hall sensor and a shunt resistor, the integrated current-measuring apparatus comprising: a printed circuit board; a shunt resistor comprising a resistive element having a preset resistance and terminals (23, 25) extending from both sides of the resistive element, the shunt resistor being attached to a bottom surface of the printed circuit board; and a Hall sensor mounted on a top surface of the printed circuit board to face the shunt resistor with the printed circuit board being interposed between the Haall sensor and the shunt resistor, characterised in that first screw holes are respectively provided in the terminals (23, 25) of the shunt resistor with the resistive element being interposed between the first screw holes, and in that the integrated current-measuring apparatus further comprises joint members (41, 42) integrally coupled to the first screw holes and voltage-measuring nodes (13a, 13b) provided on the printed circuit board, to fix the shunt resistor to the bottom surface of the printed circuit board and electrically connect the terminals (23, 25) to the voltage-measuring nodes (13a, 13b). a printed circuit board; a shunt resistor comprising a resistive element having a preset resistance and terminals (23, 25) extending from both sides of the resistive element, the shunt resistor being attached to a bottom surface of the printed circuit board; and a Hall sensor mounted on a top surface of the printed circuit board to face the shunt resistor with the printed circuit board being interposed between the Haall sensor and the shunt resistor, characterised in that first screw holes are respectively provided in the terminals (23, 25) of the shunt resistor with the resistive element being interposed between the first screw holes, and in that the integrated current-measuring apparatus further comprises joint members (41, 42) integrally coupled to the first screw holes and voltage-measuring nodes (13a, 13b) provided on the printed circuit board, to fix the shunt resistor to the bottom surface of the printed circuit board and electrically connect the terminals (23, 25) to the voltage-measuring nodes (13a, 13b).