mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for encoding account tokens in image files, comprising: receiving, from a user associated with an account identifier, an identification of at least one image; generating (306, 308), with at least one processor, i) at least one token based on the account identifier of the user and ii) at least one false token; encoding, with at least one processor, the at least one token and the at least one false token in the at least one image, resulting in at least one tokenized image, wherein the at least one token and the at least one false token are encoded in an order of placement of the at least one token amongst the at least one false token that is based on one or more intrinsic image qualities or image parameters of the at least one image; and communicating, with at least one processor, the at least one tokenized image to a transaction processing system, the transaction processing system having a configured algorithm able to process the at least one tokenized image, determine its intrinsic image qualities or image parameters, and identify the at least one token as being the correct payment token in the at least one tokenized image based on the determined intrinsic image qualities or image parameters, wherein the transaction processing system is configured to conduct a transaction based on the identified at least one token in the at least one tokenized image. receiving, from a user associated with an account identifier, an identification of at least one image; generating (306, 308), with at least one processor, i) at least one token based on the account identifier of the user and ii) at least one false token; encoding, with at least one processor, the at least one token and the at least one false token in the at least one image, resulting in at least one tokenized image, wherein the at least one token and the at least one false token are encoded in an order of placement of the at least one token amongst the at least one false token that is based on one or more intrinsic image qualities or image parameters of the at least one image; and communicating, with at least one processor, the at least one tokenized image to a transaction processing system, the transaction processing system having a configured algorithm able to process the at least one tokenized image, determine its intrinsic image qualities or image parameters, and identify the at least one token as being the correct payment token in the at least one tokenized image based on the determined intrinsic image qualities or image parameters, wherein the transaction processing system is configured to conduct a transaction based on the identified at least one token in the at least one tokenized image.
Rear-view side mirror assembly for a vehicle, comprising a light signal assembly and a system for optical vision by mirror and/or camera which comprises: - a housing delimited by one or more external covers (C, C1) having at least a first opening oriented backwards; - at least one mirror, placed at said first opening; aid at least one mirror being an element of said system for optical vision; - a support for the fixation of said rear-view side mirror assembly to the bodywork of said vehicle; - a light emitter assembly, placed in said housing or in said support, including a light source (30, 30-A, 30-C, 212, 95) providing a light signal with a light outlet through a second opening of said housing, said light signal being emitted at least in one of a front direction, side direction and rear direction, taken with respect to the circulating direction of the vehicle; characterized by - a transparent light guiding body associated to said light source, which purpose is to provide an internal reflection (32, 32-A, 32bis), refraction or deviation of the light there through before exiting through said second opening; and - an inner reflecting surface (12, 12-X) which surrounds said light guiding body is at least part of the bottom of said light emitter assembly, whereby - said inner reflecting surface (12, 12-X) is dark or black so as to avoid reflecting the exterior light and increasing the contrast of the light internally reflected, deviated or refracted, when traversing and/or travelling along said optical body in said light emission. - a housing delimited by one or more external covers (C, C1) having at least a first opening oriented backwards; - at least one mirror, placed at said first opening; aid at least one mirror being an element of said system for optical vision; - a support for the fixation of said rear-view side mirror assembly to the bodywork of said vehicle; - a light emitter assembly, placed in said housing or in said support, including a light source (30, 30-A, 30-C, 212, 95) providing a light signal with a light outlet through a second opening of said housing, said light signal being emitted at least in one of a front direction, side direction and rear direction, taken with respect to the circulating direction of the vehicle; characterized by - a transparent light guiding body associated to said light source, which purpose is to provide an internal reflection (32, 32-A, 32bis), refraction or deviation of the light there through before exiting through said second opening; and - an inner reflecting surface (12, 12-X) which surrounds said light guiding body is at least part of the bottom of said light emitter assembly, whereby - said inner reflecting surface (12, 12-X) is dark or black so as to avoid reflecting the exterior light and increasing the contrast of the light internally reflected, deviated or refracted, when traversing and/or travelling along said optical body in said light emission.
An ultrasonic probe, comprising a Capacitive Micro-machined Ultrasonic Transducer, the Capacitive Micro-machined Ultrasonic Transducer including a substrate having a first electrode and a diaphragm having a second electrode, wherein the diaphragm is secured at its peripheral edge to the substrate by a supporting wall which rises from the substrate, and a cavity is formed between the substrate and the diaphragm, wherein the substrate thickness is set such that a lateral-wave sound velocity that propagates in the substrate is not less than a longitudinal-wave sound velocity of a medium, in contact with the substrate or the diaphragm, at least in a fractional frequency band within a sensitive band of the ultrasonic probe; characterized in that a coincidence frequency of the substrate for a medium in contact with the substrate or the diaphragm is present in the sensitive band. the Capacitive Micro-machined Ultrasonic Transducer including a substrate having a first electrode and a diaphragm having a second electrode, wherein the diaphragm is secured at its peripheral edge to the substrate by a supporting wall which rises from the substrate, and a cavity is formed between the substrate and the diaphragm, wherein the substrate thickness is set such that a lateral-wave sound velocity that propagates in the substrate is not less than a longitudinal-wave sound velocity of a medium, in contact with the substrate or the diaphragm, at least in a fractional frequency band within a sensitive band of the ultrasonic probe; characterized in that a coincidence frequency of the substrate for a medium in contact with the substrate or the diaphragm is present in the sensitive band.
An adrenergic beta-3-receptor agonist for use as a medicament for treatment of an aging-related disease, wherein the aging-related disease is myocardial fibrosis or renal failure.
A process for the preparation of 1-(2-methyl-4-(2,3,4,5-tetrahydro-1-benzazepin-1-ylcarbonyl)benzylcarbamoyl)-L-proline- N, N -dimethylamide, comprising the steps of: i) adding 1-(2-methyl-4-(2,3,4,5-tetrahydro-1-benzazepin-1-ylcarbonyl)benzylcarbamoyl)-L-proline- N, N -dimethylamide to an organic solvent; ii) heating the mixture until an emulsion is formed; iii) cooling the emulsion until a clear solution is obtained; iv) stirring the clear solution until a suspension is obtained; and v) isolating the resulting crystalline form of 1-(2-methyl-4-(2,3,4,5-tetrahydro-1-benzazepin-1-ylcarbonyl)benzylcarbamoyl)-L-proline- N, N -dimethylamide. i) adding 1-(2-methyl-4-(2,3,4,5-tetrahydro-1-benzazepin-1-ylcarbonyl)benzylcarbamoyl)-L-proline- N, N -dimethylamide to an organic solvent; ii) heating the mixture until an emulsion is formed; iii) cooling the emulsion until a clear solution is obtained; iv) stirring the clear solution until a suspension is obtained; and v) isolating the resulting crystalline form of 1-(2-methyl-4-(2,3,4,5-tetrahydro-1-benzazepin-1-ylcarbonyl)benzylcarbamoyl)-L-proline- N, N -dimethylamide.
A gas combustion tool of the type comprising: - an elongated gripping member (3, 204); - a burner disposed at the front of the gripping member (3, 204), in an extension of the latter, the burner including a fuel gas intake; - a primary air path which opens into the burner, downstream of the fuel gas intake; characterised in that the gripping member (3, 204) includes at least one primary air intake and that the primary air path is organised, at least partially, through the gripping member (3, 204), from this primary air intake, the primary air getting in the burner being sucked from the gripping member (3, 204). - an elongated gripping member (3, 204); - a burner disposed at the front of the gripping member (3, 204), in an extension of the latter, the burner including a fuel gas intake; - a primary air path which opens into the burner, downstream of the fuel gas intake;
Safety sensor for monitoring a danger area of a machine or installation, comprising a sensor unit with at least one transmitter emitting light beams and at least one receiver receiving light beams for monitoring a field of protection as well as an evaluating unit in which in the case of detection of an object in the field of protection a switch-off command for the machine or installation is generated as a safety function, wherein an external or internal bridging-over unit is provided, by means of which the safety function of the safety sensor is bridged over when a respective object-present signal from two independent signal sources is registered within a time interval, and wherein one of the signal sources is integrated in the safety sensor itself, characterised in that the safety sensor is transferred by the bridging-over unit into a secure locking state, which leads to switching-off of the machine or installation, when the second object-present signal is not registered in the bridging-over unit within the time interval after registration of the first object-present signal.
A drum cartridge comprising: a drum frame to which a developing cartridge is detachably attachable, the developing cartridge including a storage medium having an electrical contact surface; a photosensitive drum rotatable about a first axis extending in a first direction, the photosensitive drum being positioned at a first end portion of the drum frame in a second direction; a transfer roller rotatable about a second axis extending in the first direction, the transfer roller being in contact with a surface of the photosensitive drum; and a conveying roller rotatable about a third axis extending in the first direction, the conveying roller being separated from the transfer roller in the second direction, characterized in that the drum frame has a first opening, the first opening being positioned between the transfer roller and the conveying roller in the second direction, the configuration is such that the electrical contact surface is exposed to an outside of the drum frame through the first opening in a case where the developing cartridge is attached to the drum frame. a drum frame to which a developing cartridge is detachably attachable, the developing cartridge including a storage medium having an electrical contact surface; a photosensitive drum rotatable about a first axis extending in a first direction, the photosensitive drum being positioned at a first end portion of the drum frame in a second direction; a transfer roller rotatable about a second axis extending in the first direction, the transfer roller being in contact with a surface of the photosensitive drum; and a conveying roller rotatable about a third axis extending in the first direction, the conveying roller being separated from the transfer roller in the second direction, characterized in that the drum frame has a first opening, the first opening being positioned between the transfer roller and the conveying roller in the second direction, the configuration is such that the electrical contact surface is exposed to an outside of the drum frame through the first opening in a case where the developing cartridge is attached to the drum frame.
A fuel cell system comprising: - a fuel cell stack - a catalytic reformer - an evaporator for evaporating a mixture of methanol and water to be fed through the catalytic reformer for producing portions of free hydrogen - the fuel cell stack being composed of a number of proton exchange membrane fuel cells each featuring electrodes in form of an anode and a cathode for delivering an electric current, the reaction of free hydrogen into ionic form with contact to the anode being proportional to the flow of electric current between the electrodes - the fuel cell system further comprising a fluid fuel burner for providing heat for heating the system to a temperature level on which the fuel cell system can enter a state of steady current production - a burner fuel evaporator for heating of liquid fuel for the burner, the burner fuel evaporator being arranged in proximity to the burner in such a way that it can absorb energy in form of thermal heat from the burner in order to accelerate the evaporation of liquid fuel into a fine mist of fuel to be led to the burner, for producing thermal heat Characterized in, that the burner fuel evaporator features: a first section forming a pre-evaporator, for partly evaporating the liquid fuel into drops, droplets and mist followed by: a second section forming a nozzle for atomizing the liquid fuel into a fine mist before being passed to the third section being a path for further heating and stabilizing the liquid fuel into its gas phase where the pre-evaporator is formed by at least one well-formed cavity with substantially vertical orientated walls within which cavity is arranged at least one protruding rod, the walls and the at least one protruding rod are forming heating elements for heating the liquid fuel. - a fuel cell stack - a catalytic reformer - an evaporator for evaporating a mixture of methanol and water to be fed through the catalytic reformer for producing portions of free hydrogen - the fuel cell stack being composed of a number of proton exchange membrane fuel cells each featuring electrodes in form of an anode and a cathode for delivering an electric current, the reaction of free hydrogen into ionic form with contact to the anode being proportional to the flow of electric current between the electrodes - the fuel cell system further comprising a fluid fuel burner for providing heat for heating the system to a temperature level on which the fuel cell system can enter a state of steady current production - a burner fuel evaporator for heating of liquid fuel for the burner, the burner fuel evaporator being arranged in proximity to the burner in such a way that it can absorb energy in form of thermal heat from the burner in order to accelerate the evaporation of liquid fuel into a fine mist of fuel to be led to the burner, for producing thermal heat
A processing machine comprising a main spindle a guide bush device comprising a guide bush; and a supporting base provided at a front section of said processing machine along an axial direction of the main spindle, the guide bush device being supported in a removable manner by the supporting base, wherein the main spindle is disposed in a position to the rear of the guide bush device along the axial direction when the guide bush device is attached to the supporting base, and the processing machine is configured such that the main spindle (11, 111) can be moved to a region of the guide bush device where the guide bush device has been attached so that the main spindle (11, 111) is disposed in a front position along the axial direction when the guide bush device is removed from the supporting base, characterized in that the supporting base is fixedly provided with a seal member which has contact with an outer circumference surface of a main spindle cover over an entire circumference of the main spindle cover when the main spindle is disposed in the front position, wherein the seal member is disposed outside an outer circumference surface of the guide bush device when the guide bush device is attached to the supporting base (20, 120), and an inner diameter of the seal member is formed smaller than an outer diameter of the main spindle cover. a main spindle a guide bush device comprising a guide bush; and a supporting base provided at a front section of said processing machine along an axial direction of the main spindle, the guide bush device being supported in a removable manner by the supporting base, wherein the main spindle is disposed in a position to the rear of the guide bush device along the axial direction when the guide bush device is attached to the supporting base, and the processing machine is configured such that the main spindle (11, 111) can be moved to a region of the guide bush device where the guide bush device has been attached so that the main spindle (11, 111) is disposed in a front position along the axial direction when the guide bush device is removed from the supporting base, characterized in that the supporting base is fixedly provided with a seal member which has contact with an outer circumference surface of a main spindle cover over an entire circumference of the main spindle cover when the main spindle is disposed in the front position, wherein the seal member is disposed outside an outer circumference surface of the guide bush device when the guide bush device is attached to the supporting base (20, 120), and an inner diameter of the seal member is formed smaller than an outer diameter of the main spindle cover.
An X-ray emitter (9a, 9b), comprising an X-ray tube, a housing, a shield, a beam forming aperture and a collimator, wherein the beam forming aperture includes at least one aperture pair (67a, 67b, 67c, 67d) which is asymmetrically adjustable with reference to a central beam (29, 31) of the X-ray tube, characterized in that at least one aperture element (67a, 67b, 67c, 67d) extends in a lateral direction and in axial direction, characterized in that axially extending components of two adjacent aperture elements (67a, 67b, 67c, 67d) are configured staggerable.
A nasal plug for a nasal oxygen catheter, comprising a body, which comprises a casing and a cavity positioned in the casing, and is provided with at least one gas outlet, wherein the nasal plug further comprises a stop structure, characterized in that the stop structure surrounds the at least one gas outlet and extends from an inner wall of the casing toward the cavity, so that condensed water on the inner wall of the cavity has to flow over the stop structure before it can be discharged from the gas outlet.
A spark plug, comprising: a cylindrical insulator having an axial hole formed therethrough in an axis direction of the spark plug; a center electrode inserted in an front side of the axial hole; a cylindrical metal shell arranged on an outer circumference of the insulator; and a ground electrode joined to a front end portion of the metal shell so as to form a gap between the ground electrode and the center electrode, the ground electrode including an electrode base portion extending from the front end portion of the metal shell toward the front in the axis direction, a curved bent portion connected at one end thereof to a front end of the electrode base portion; and an electrode distal end portion extending from the other end of the bent portion in a direction different from the direction of extension of the electrode base portion and forming the gap with the center electrode, wherein the ground electrode comprises a base material and a coating layer applied to the base material and made of a material having higher oxidation resistance than that of the base material so as to cover at least a distal end face; and wherein the base material of the ground electrode is exposed at least at a part of the electrode base portion, characterized in that the coating layer is applied to an outer circumferential surface other than a center-electrode-side surface of the electrode distal end portion. a cylindrical insulator having an axial hole formed therethrough in an axis direction of the spark plug; a center electrode inserted in an front side of the axial hole; a cylindrical metal shell arranged on an outer circumference of the insulator; and a ground electrode joined to a front end portion of the metal shell so as to form a gap between the ground electrode and the center electrode, the ground electrode including an electrode base portion extending from the front end portion of the metal shell toward the front in the axis direction, a curved bent portion connected at one end thereof to a front end of the electrode base portion; and an electrode distal end portion extending from the other end of the bent portion in a direction different from the direction of extension of the electrode base portion and forming the gap with the center electrode, wherein the ground electrode comprises a base material and a coating layer applied to the base material and made of a material having higher oxidation resistance than that of the base material so as to cover at least a distal end face; and wherein the base material of the ground electrode is exposed at least at a part of the electrode base portion,
A method for forming an electrode for a bushing intended for high voltage applications, the method comprising obtaining (30, 32, 34) an electrode comprising an electrically conducting metal, oxidizing the edges of the electrode in order for the edges to comprise metal oxide of the same metal as field grading material, and sintering the electrode in steps of decreasing time and/or decreasing temperature along a direction from the center of the electrode towards the outermost part of the edge or in the opposite direction from the outermost part of the edge towards the center of the electrode using increasing steps so that different parts of the oxidized electrode have different conductivities and resistivities for improving the field-grading.
A compound of the following formula: wherein: - n represents 1 or 2, - A 1, A 2 and A 3, which may be identical or different, represent a hydrogen atom, a halogen atom or a linear or branched alkyl group having from 1 to 4 carbon atoms, - R 1, R 2 and R 3 represent independently a hydrogen atom or a linear or branched alkyl group having from 1 to 4 carbon atoms, and - Y represents -OH, =O or -SH; or a pharmaceutically acceptable salt, hydrate or solvate thereof, for use in the prevention or treatment of a disease associated with a dysregulation of the mTOR pathway in an individual, wherein the disease associated with a dysregulation of the mTOR pathway is a hamartoma syndrome. - n represents 1 or 2, - A 1, A 2 and A 3, which may be identical or different, represent a hydrogen atom, a halogen atom or a linear or branched alkyl group having from 1 to 4 carbon atoms, - R 1, R 2 and R 3 represent independently a hydrogen atom or a linear or branched alkyl group having from 1 to 4 carbon atoms, and - Y represents -OH, =O or -SH; or a pharmaceutically acceptable salt, hydrate or solvate thereof, for use in the prevention or treatment of a disease associated with a dysregulation of the mTOR pathway in an individual, wherein the disease associated with a dysregulation of the mTOR pathway is a hamartoma syndrome.