mhurhangee/ep-ind-claims huggingface dataset:
Articulated holding device, in particular for a sanitary element, with - an articulated arm, - an articulated head arranged at one end of the articulated arm, which head has a rotationally symmetrical lateral surface, and - a bearing arrangement for the articulated head, which arrangement has a bearing shell, which at least partly surrounds the rotationally symmetrical lateral surface of the articulated head, with a bearing surface corresponding to the lateral surface, characterized in that - the bearing arrangement comprises a bolt screwed into a nut as a pre-stressing means for the bearing shell, wherein the bolt passes through an opening of the articulated head. - an articulated arm, - an articulated head arranged at one end of the articulated arm, which head has a rotationally symmetrical lateral surface, and - a bearing arrangement for the articulated head, which arrangement has a bearing shell, which at least partly surrounds the rotationally symmetrical lateral surface of the articulated head, with a bearing surface corresponding to the lateral surface, characterized in that - the bearing arrangement comprises a bolt screwed into a nut as a pre-stressing means for the bearing shell, wherein the bolt passes through an opening of the articulated head.
An electronic device for identifying a LED driver which is a switched mode power supply, comprising: an interface adapted to be coupled to a high frequency power commutation component which is a high frequency switched power inductor of the switched mode power supply, for sensing switching noise components of the high frequency power commutation of the switched mode power supply in driving the LED, wherein said interface comprises a sensor having a sensor module coil adapted to be electromagnetically coupled to the inductor, wherein the interface is adapted to be coupled to a secondary side power inductor of the switched mode power supply which comprises a transformer with a primary side and the secondary side; a processing circuit, for extracting characteristics of the high frequency components, wherein said characteristics comprises one or more frequencies of the switching noise which follows a switching of the switched mode power supply; a database which stores a mapping between identification of LED drivers which are switched mode power supply and said characteristics of the high frequency components of the high frequency power commutations of a respective switched mode power supply in driving the LED; and a controller for looking up an identification of LED driver with a characteristic of the high frequency components of the high frequency power commutation in driving the LED corresponding to the extracted characteristics of the high frequency components of the high frequency power commutations in driving the LED, according to the stored mapping. an interface adapted to be coupled to a high frequency power commutation component which is a high frequency switched power inductor of the switched mode power supply, for sensing switching noise components of the high frequency power commutation of the switched mode power supply in driving the LED, wherein said interface comprises a sensor having a sensor module coil adapted to be electromagnetically coupled to the inductor, wherein the interface is adapted to be coupled to a secondary side power inductor of the switched mode power supply which comprises a transformer with a primary side and the secondary side; a processing circuit, for extracting characteristics of the high frequency components, wherein said characteristics comprises one or more frequencies of the switching noise which follows a switching of the switched mode power supply; a database which stores a mapping between identification of LED drivers which are switched mode power supply and said characteristics of the high frequency components of the high frequency power commutations of a respective switched mode power supply in driving the LED; and a controller for looking up an identification of LED driver with a characteristic of the high frequency components of the high frequency power commutation in driving the LED corresponding to the extracted characteristics of the high frequency components of the high frequency power commutations in driving the LED, according to the stored mapping.
A composition for use in a method of reducing the allergenicity of a cat, wherein an effective amount of said composition is administered to said cat, and wherein said composition comprises (i) a modified virus-like particle of cucumber mosaic virus with at least one first attachment site; (ii) at least one Fel d1 protein with at least one second attachment site; and wherein said modified VLP comprises at least one modified CMV polypeptide, wherein said modified CMV polypeptide comprises (a) a CMV polypeptide comprising (i) an amino acid sequence of a coat protein of CMV; or (ii) a mutated amino acid sequence, wherein said mutated amino acid sequence and said coat protein of CMV show a sequence identity of at least 90 %; and (b) a T helper cell epitope, wherein said T helper cell epitope is a PADRE sequence or is derived from tetanus toxin; wherein said virus-like particle and said Fel d1 protein are linked through said at least one first and said at least one second attachment site. (i) a modified virus-like particle of cucumber mosaic virus with at least one first attachment site; (ii) at least one Fel d1 protein with at least one second attachment site; and wherein said modified VLP comprises at least one modified CMV polypeptide, wherein said modified CMV polypeptide comprises (a) a CMV polypeptide comprising (i) an amino acid sequence of a coat protein of CMV; or (ii) a mutated amino acid sequence, wherein said mutated amino acid sequence and said coat protein of CMV show a sequence identity of at least 90 %; and (b) a T helper cell epitope, wherein said T helper cell epitope is a PADRE sequence or is derived from tetanus toxin; (a) a CMV polypeptide comprising (i) an amino acid sequence of a coat protein of CMV; or (ii) a mutated amino acid sequence, wherein said mutated amino acid sequence and said coat protein of CMV show a sequence identity of at least 90 %; and (i) an amino acid sequence of a coat protein of CMV; or (ii) a mutated amino acid sequence, wherein said mutated amino acid sequence and said coat protein of CMV show a sequence identity of at least 90 %; and (b) a T helper cell epitope, wherein said T helper cell epitope is a PADRE sequence or is derived from tetanus toxin; wherein said virus-like particle and said Fel d1 protein are linked through said at least one first and said at least one second attachment site.
A solar cell comprising: a laminate having an electrode, a counter electrode, and a photoelectric conversion layer disposed between the electrode and the counter electrode; and an encapsulation material covering the counter electrode to encapsulate the laminate, the photoelectric conversion layer including an organic-inorganic perovskite compound represented by the formula: R-M-X 3, R representing an organic molecule, M representing a metal atom, X representing a halogen atom or a chalcogen atom, characterized in that the encapsulation material includes a (meth)acrylic resin having a C atom/O atom ratio of 4 or more in the molecule and is in direct contact with the photoelectric conversion layer. a laminate having an electrode, a counter electrode, and a photoelectric conversion layer disposed between the electrode and the counter electrode; and an encapsulation material covering the counter electrode to encapsulate the laminate, the photoelectric conversion layer including an organic-inorganic perovskite compound represented by the formula: R-M-X 3, R representing an organic molecule, M representing a metal atom, X representing a halogen atom or a chalcogen atom, characterized in that the encapsulation material includes a (meth)acrylic resin having a C atom/O atom ratio of 4 or more in the molecule and is in direct contact with the photoelectric conversion layer.
Method for adjusting a feedback torque (M FF) on a steering handle of a motor vehicle, wherein, in normal operation in which a driver grips the steering handle, a feedback torque (M FF) on the steering handle can be adjusted according to a steering angle predetermined by means of the steering handle; and wherein the method comprises: - determining whether a hands-free operation, in which the driver does not grip the steering handle, exists based on a sensory detection of a possible contact of the driver and the steering handle, and if a hands-free operation exists: - generating a feedback torque (M FF) which is different from zero and has a lower value compared to normal operation, characterized in that it is additionally determined whether the feedback torque (M FF) acts in a direction in which the steering handle is moved further out of a neutral position, and a reduction in the feedback torque (M FF) in hands-free operation compared to normal operation is only effected when this is the case. wherein, in normal operation in which a driver grips the steering handle, a feedback torque (M FF) on the steering handle can be adjusted according to a steering angle predetermined by means of the steering handle; and wherein the method comprises: - determining whether a hands-free operation, in which the driver does not grip the steering handle, exists based on a sensory detection of a possible contact of the driver and the steering handle, - determining whether a hands-free operation, in which the driver does not grip the steering handle, exists based on a sensory detection of a possible contact of the driver and the steering handle, and if a hands-free operation exists: - generating a feedback torque (M FF) which is different from zero and has a lower value compared to normal operation, - generating a feedback torque (M FF) which is different from zero and has a lower value compared to normal operation,
An upper (2000, 2500) for an article of footwear comprising: a plurality of webbed areas (128, 1800) that include a plurality of courses formed from a first yarn, the webbed areas (128, 1800) having a front surface, the webbed areas (128, 1800) configured to move between a neutral position and an extended position, the webbed areas (128, 1800) being biased to move toward the neutral position; and a plurality of tubular rib structures (126, 146, 602, 1106, 1802) that are adjacent to the webbed areas, the tubular rib structures (126, 146, 602, 1106, 1802) including a plurality of courses; wherein at least one of the webbed areas (128, 1800) or tubular rib structures (126, 146, 602, 1106, 1802) is configured to stretch to move the webbed areas (128, 1800) to the extended position in response to a force applied to the upper (2000, 2500); wherein in the extended position the webbed areas (128, 1800) and tubular rib structures (126, 146, 602, 1106, 1802) are moved apart from neutral positions, characterized in that at least one portion of the webbed areas (128, 1800) is knitted using a first yarn, wherein at least one portion of the plurality of tubular rib structures (126, 146, 602, 1106, 1802) is knitted using a second yarn, and wherein an elasticity of the first yarn is greater than the elasticity of the second yarn. a plurality of webbed areas (128, 1800) that include a plurality of courses formed from a first yarn, the webbed areas (128, 1800) having a front surface, the webbed areas (128, 1800) configured to move between a neutral position and an extended position, the webbed areas (128, 1800) being biased to move toward the neutral position; and a plurality of tubular rib structures (126, 146, 602, 1106, 1802) that are adjacent to the webbed areas, the tubular rib structures (126, 146, 602, 1106, 1802) including a plurality of courses; wherein at least one of the webbed areas (128, 1800) or tubular rib structures (126, 146, 602, 1106, 1802) is configured to stretch to move the webbed areas (128, 1800) to the extended position in response to a force applied to the upper (2000, 2500); wherein in the extended position the webbed areas (128, 1800) and tubular rib structures (126, 146, 602, 1106, 1802) are moved apart from neutral positions, characterized in that at least one portion of the webbed areas (128, 1800) is knitted using a first yarn, wherein at least one portion of the plurality of tubular rib structures (126, 146, 602, 1106, 1802) is knitted using a second yarn, and wherein an elasticity of the first yarn is greater than the elasticity of the second yarn.
A method for manufacturing a cable sheathing, wherein the method comprises the following steps: applying an extruder comprising: - a supply of molten Pb-Ca-Sn alloy, and - a die-head adapted to receive the power cable to be coated and to exit the cable and simultaneously form a coating of supplied Pb-Ca-Sn alloy onto the power cable, characterised in that the Pb-Ca-Sn alloy has a composition comprising of from 0.03 to 0.05 weight% Ca and of from 0.4 to 0.8 weight% Sn, based on the total mass of the alloy and where the balance is Pb and unavoidable impurities, - the extruder further comprises a stem adapted to solidify the Pb-Ca-Sn alloy and having an inlet fluidly connected to the supply of molten Pb-Ca-Sn alloy and an outlet for solidified Pb-Ca-Sn alloy, and - the die-head has a cavity fluidly connected to the outlet for solidified Pb-Ca-Sn alloy and the method further comprises the steps of: supplying the Pb-Ca-Sn alloy at a temperature of from 350 to 380 °C to the stem of the extruder, and cooling and solidifying the Pb-Ca-Sn alloy inside the stem of the extruder to a temperature in the range of from 180 to 250 °C when exiting the stem and entering the cavity of the die-head. - a supply of molten Pb-Ca-Sn alloy, and - a die-head adapted to receive the power cable to be coated and to exit the cable and simultaneously form a coating of supplied Pb-Ca-Sn alloy onto the power cable, - the extruder further comprises a stem adapted to solidify the Pb-Ca-Sn alloy and having an inlet fluidly connected to the supply of molten Pb-Ca-Sn alloy and an outlet for solidified Pb-Ca-Sn alloy, and - the die-head has a cavity fluidly connected to the outlet for solidified Pb-Ca-Sn alloy and supplying the Pb-Ca-Sn alloy at a temperature of from 350 to 380 °C to the stem of the extruder, and cooling and solidifying the Pb-Ca-Sn alloy inside the stem of the extruder to a temperature in the range of from 180 to 250 °C when exiting the stem and entering the cavity of the die-head.
CNC machining centre, comprising: - at least one work surface; - at least one horizontal cross member arranged above said work surface and with at least one reciprocal movement between said cross member and said work surface along a controlled horizontal first machining axis; - at least one first support movable on said cross member along a controlled horizontal second machining axis; - at least one second support movable with respect to said first support along a controlled vertical third machining axis; - at least one machining unit arranged on said second support with the possibility of assuming at least one work position in which it can perform a machining operation on a workpiece arranged on said work surface; - at least one third support movable on said first support by means of coupling means for slidingly coupling said third support and said first support in a vertical direction, said third support being provided with vertical sliding means for slidingly coupling said third support and said second support in a vertical direction, said third support being movable in vertical direction between at least one upper position, in which said vertical sliding means is further away from said work surface, and at least one lower position, in which said vertical sliding means is closer to said work surface; characterized in that said first support is provided with vertical sliding means for sliding coupling said second support along said third machining axis. - at least one work surface; - at least one horizontal cross member arranged above said work surface and with at least one reciprocal movement between said cross member and said work surface along a controlled horizontal first machining axis; - at least one first support movable on said cross member along a controlled horizontal second machining axis; - at least one second support movable with respect to said first support along a controlled vertical third machining axis; - at least one machining unit arranged on said second support with the possibility of assuming at least one work position in which it can perform a machining operation on a workpiece arranged on said work surface; - at least one third support movable on said first support by means of coupling means for slidingly coupling said third support and said first support in a vertical direction, said third support being provided with vertical sliding means for slidingly coupling said third support and said second support in a vertical direction, said third support being movable in vertical direction between at least one upper position, in which said vertical sliding means is further away from said work surface, and at least one lower position, in which said vertical sliding means is closer to said work surface;
Illumination apparatus for an optical observation device, having - a light source (3, 52, 100), comprising a first individual light source (3b, 102b) and a second individual light source (3a, 102a), which are arranged in a light source plane, wherein the first individual light source (3b, 102b) has a first midpoint M1 and the second individual light source has a second midpoint M2 and wherein a first axis direction A1 is defined by a vector from the second midpoint M2 to the first midpoint M1; - an illumination optical unit, through which an optical axis Z is defined that is arranged perpendicular to the light source plane and intersects the light source plane at an intersection point, wherein the light source (3, 52, 100) is imaged to infinity by the illumination optical unit, - wherein the first individual light source (3b, 102b) has a first extent L1 along the first axis direction A1, wherein the midpoint M1 is offset by an absolute value Δ in a positive direction along the axis direction A1 with respect to the intersection point of the optical axis Z with the light source plane, wherein the following relationship is satisfied for the offset: 0.2 * L 1 ≤ Δ ≤ 0.5 * L 1. - a light source (3, 52, 100), comprising a first individual light source (3b, 102b) and a second individual light source (3a, 102a), which are arranged in a light source plane, wherein the first individual light source (3b, 102b) has a first midpoint M1 and the second individual light source has a second midpoint M2 and wherein a first axis direction A1 is defined by a vector from the second midpoint M2 to the first midpoint M1; - an illumination optical unit, through which an optical axis Z is defined that is arranged perpendicular to the light source plane and intersects the light source plane at an intersection point, wherein the light source (3, 52, 100) is imaged to infinity by the illumination optical unit, - wherein the first individual light source (3b, 102b) has a first extent L1 along the first axis direction A1, wherein the midpoint M1 is offset by an absolute value Δ in a positive direction along the axis direction A1 with respect to the intersection point of the optical axis Z with the light source plane, wherein the following relationship is satisfied for the offset: 0.2 * L 1 ≤ Δ ≤ 0.5 * L 1.
An internal gear pump comprising: a housing having a pump chamber; an inner rotor arranged in the pump chamber, rotating about a first rotational axis and having external teeth on its outer end; an outer rotor arranged in the pump chamber, rotating about a second rotational axis and having internal teeth on its inner end; a suction port that is formed at the housing and through which a fluid is sucked into the pump chamber; a discharge port that is formed at the housing and through which the fluid is discharged from the pump chamber; a suction path in communication with the suction port; and a discharge path in communication with the discharge port, wherein the pump chamber includes an inner wall extending in a rotating direction of the outer rotor, the inner wall includes a suction region located close to the suction port with respect to a boundary, which is a plane including the first rotational axis and the second rotational axis, and a discharge region located close to the discharge port with respect to the boundary, the suction region includes a first suction region extending in a circumferential direction towards the suction path from a pressing point, which is located at a position in the suction region and where the outer rotor is pressed when the internal gear pump is in operation, and a second suction region located between the first suction region and the discharge region, characterized in that a groove (13, 13A, 13B, 13C) that enlarges a clearance between the outer rotor and the inner wall is formed at least at a portion of the first suction region, and the groove (13, 13A, 13B, 13C) is not formed in the second suction region. a housing having a pump chamber; an inner rotor arranged in the pump chamber, rotating about a first rotational axis and having external teeth on its outer end; an outer rotor arranged in the pump chamber, rotating about a second rotational axis and having internal teeth on its inner end; a suction port that is formed at the housing and through which a fluid is sucked into the pump chamber; a discharge port that is formed at the housing and through which the fluid is discharged from the pump chamber; a suction path in communication with the suction port; and a discharge path in communication with the discharge port, wherein the pump chamber includes an inner wall extending in a rotating direction of the outer rotor,
A polymer-based ocular insert for drug delivery by noninvasive insertion into the upper or lower fornix conjunctiva of the eye, where the ocular insert has a spherical or spherical dome shape or hemispherical shape, comprises at least one polymeric layer with a drug core and allows the sustained release of at least one drug, characterized in that the drug core comprises a first drug and is configured to release such first drug at a first rate and the at least one polymeric layer comprises a second drug and is configured to release such second drug at a second rate, wherein the drug core and the at least one polymeric layer are configured to completely release the first and second drugs such that the first and second release rates are different, in that the at least one polymeric layer comprises a copolymer of polycaprolactone and polyethylene glycol; and wherein the molecular weight of PCL varies from 500 up to 30, 000 and the molecular weight of PEG varies from 200 up to 40,000. the drug core comprises a first drug and is configured to release such first drug at a first rate and the at least one polymeric layer comprises a second drug and is configured to release such second drug at a second rate, wherein the drug core and the at least one polymeric layer are configured to completely release the first and second drugs such that the first and second release rates are different, in that the at least one polymeric layer comprises a copolymer of polycaprolactone and polyethylene glycol; and wherein the molecular weight of PCL varies from 500 up to 30, 000 and the molecular weight of PEG varies from 200 up to 40,000.