mhurhangee/ep-ind-claims huggingface dataset:
An enteral tube for placement within a patient, comprising: a tube having a distal end portion and a proximal end portion, said tube having a lumen extending a length of said tube, said tube lumen increasing in cross section from said proximal end portion toward said distal end portion along at least a portion of said tube; a camera positioned adjacent the distal end portion of said tube for positioning said tube during placement in the patient; a tip supported by the distal end portion of said tube, said tip having at least one channel for directing fluid onto a lens of said camera; a light source providing light at a distal end of the tube; and a plurality of fiber optic filaments extending within said tube, positioned adjacent said light source at a proximal end of said tube and guiding light from said light source to the distal end portion of said tube, wherein said camera is positioned within said plurality of fiber optic filaments. a tube having a distal end portion and a proximal end portion, said tube having a lumen extending a length of said tube, said tube lumen increasing in cross section from said proximal end portion toward said distal end portion along at least a portion of said tube; a camera positioned adjacent the distal end portion of said tube for positioning said tube during placement in the patient; a tip supported by the distal end portion of said tube, said tip having at least one channel for directing fluid onto a lens of said camera; a light source providing light at a distal end of the tube; and a plurality of fiber optic filaments extending within said tube, positioned adjacent said light source at a proximal end of said tube and guiding light from said light source to the distal end portion of said tube, wherein said camera is positioned within said plurality of fiber optic filaments.
Turning insert, comprising a corner having two edges (4, 6) formed between a chip-breaking surface and clearance surfaces (11, 12), a first one of which edges Is chip removing and a second surface finishing, wherein the first edge is a major cutting edge, which is straight over its entire length and transforms into the second edge via a sharp transition having a radius of curvature of maximal 0,1 mm wherein also the second, surface finishing edge is straight, characterized in that the first edge has a setting angle (κ), such as the same is defined as the angle between said first edge and a conceived straight line in the extension of the second edge, that amounts to at least 3° and is below 20°.
A method of regenerating a used calcined honeycomb type exhaust gas treatment catalyst comprising TiO 2, WO 3, and V 2 O 5, and having ash adhered to a surface thereof, the method characterized by comprising: crushing the used exhaust gas treatment catalyst in a crushing machine, without a washing treatment step using a washing liquid such as water, such that 70-95% by weight of the exhaust gas treatment catalyst is crushed to coarse pieces exceeding a threshold size not smaller than 0.105 mm and not greater than 1.0 mm; separating the coarse pieces from fine particles having a size not larger than the threshold size using a sieve having a mesh size of the threshold size; disposing of the fine particles via a disposal process; pulverizing the separated coarse pieces into a fine powder using a pulverizing machine, particles of the fine powder having an average size not greater than 0.1mm; kneading the fine powder with water and a binder in a kneading machine to form a uniformly kneaded product; supplying the kneaded product to an extruder to mold the kneaded product into a precursor exhaust gas treatment catalyst having a honeycomb shape; drying the precursor exhaust gas treatment catalyst naturally and with hot air(100 degrees C); and calcining in a calcining furnace the molded precursor of the exhaust gas treatment catalyst at a temperature of between 400 and 600 degrees C. crushing the used exhaust gas treatment catalyst in a crushing machine, without a washing treatment step using a washing liquid such as water, such that 70-95% by weight of the exhaust gas treatment catalyst is crushed to coarse pieces exceeding a threshold size not smaller than 0.105 mm and not greater than 1.0 mm; separating the coarse pieces from fine particles having a size not larger than the threshold size using a sieve having a mesh size of the threshold size; disposing of the fine particles via a disposal process; pulverizing the separated coarse pieces into a fine powder using a pulverizing machine, particles of the fine powder having an average size not greater than 0.1mm; kneading the fine powder with water and a binder in a kneading machine to form a uniformly kneaded product; supplying the kneaded product to an extruder to mold the kneaded product into a precursor exhaust gas treatment catalyst having a honeycomb shape; drying the precursor exhaust gas treatment catalyst naturally and with hot air(100 degrees C); and calcining in a calcining furnace the molded precursor of the exhaust gas treatment catalyst at a temperature of between 400 and 600 degrees C.
A communication method for a Bluetooth headset device including a first earpiece and a second earpiece, the method comprising: step S201 in which the first earpiece serving as a Bluetooth master device establishes a Bluetooth connection with a data source device; step S202 in which the first earpiece and the second earpiece establishes a wireless connection therebetween; and step S203 in which according to a preset cyclicity, the first earpiece and the second earpiece exchange control information for Bluetooth communication with the data source device within a first time period of each cycle, one of the first and second earpieces (21, 22) that serves as a primary earpiece sends a Bluetooth transmission request to the data source device, and the first and second earpieces (21, 22) simultaneously receive, using the Bluetooth connection, Bluetooth data sent by the data source device in response to the Bluetooth transmission request, within a second time period of each cycle, wherein the role of the primary earpiece is switched between the first earpiece and the second earpiece in an alternate mode or in switching on-demand mode based on the control information, according to the preset cyclicity, wherein the control information sent in the first cycle by the first earpiece to the second earpiece comprises synchronization information for synchronously receiving the Bluetooth data from the data source device. step S201 in which the first earpiece serving as a Bluetooth master device establishes a Bluetooth connection with a data source device; step S202 in which the first earpiece and the second earpiece establishes a wireless connection therebetween; and step S203 in which according to a preset cyclicity, the first earpiece and the second earpiece exchange control information for Bluetooth communication with the data source device within a first time period of each cycle, one of the first and second earpieces (21, 22) that serves as a primary earpiece sends a Bluetooth transmission request to the data source device, and the first and second earpieces (21, 22) simultaneously receive, using the Bluetooth connection, Bluetooth data sent by the data source device in response to the Bluetooth transmission request, within a second time period of each cycle, wherein the role of the primary earpiece is switched between the first earpiece and the second earpiece in an alternate mode or in switching on-demand mode based on the control information, according to the preset cyclicity, wherein the control information sent in the first cycle by the first earpiece to the second earpiece comprises synchronization information for synchronously receiving the Bluetooth data from the data source device.
A method for controlling machines (M1, M2,...), which are provided for the processing of objects (O1, O2,...), comprising: introducing an object (O1, O2,...) into a working region of a machine (M1, M2,...); accessing, in a local environment of the machine (M1, M2,...), with a reading device a process key (PS1, PS2,...), which is associated with the object (O1, O2,...) and which contains at least one Unified Resource Identifier; wherein the Unified Resource Identifier points to a central resource that is defined in a center associated with the machines, and wherein the central resource contains a reference pointing to global resource that is globally accessible; processing the object (O1, O2,...) with the machine using the Unified Resource Identifier contained in the process key (PS1, PS2,...); wherein for the processing of the object the global resource is accessed, to which the reference contained in the central resource points, to which the Unified Resource Identifier contained in the process key points. introducing an object (O1, O2,...) into a working region of a machine (M1, M2,...); accessing, in a local environment of the machine (M1, M2,...), with a reading device a process key (PS1, PS2,...), which is associated with the object (O1, O2,...) and which contains at least one Unified Resource Identifier; wherein the Unified Resource Identifier points to a central resource that is defined in a center associated with the machines, and wherein the central resource contains a reference pointing to global resource that is globally accessible; processing the object (O1, O2,...) with the machine using the Unified Resource Identifier contained in the process key (PS1, PS2,...); wherein for the processing of the object the global resource is accessed, to which the reference contained in the central resource points, to which the Unified Resource Identifier contained in the process key points.
Surgical instrument, in particular a drilling device, milling device or screwing device, comprising a housing and a drive unit arranged therein, wherein a surgical tool for acting on a body tissue to be worked on, in particular bone, is fixable or fixed distally on the housing, which tool is drivable in rotation or oscillation by the drive unit, and wherein an advance of the instrument (10; 70) relative to the body tissue is achievable when the tool is driven, wherein the instrument (10; 70) comprises an advance-determining device with which the advance of the instrument (10; 70) relative to the body tissue is determinable during the operation of the instrument (10; 70), and which comprises a transmitting unit for transmitting at least one signal, a receiving unit for detecting the at least one signal, and an evaluation unit for determining the advance on the basis of the at least one signal, and wherein at least the transmitting unit or the receiving unit is arranged on the housing or in the housing, characterized in that the advance-determining device has at least one reflection element from which the at least one signal transmitted by the transmitting unit can be reflected at least partially in the direction of the receiving unit, and which can be arranged on the tool and/or on the body tissue.
A method for coating the bottom surface of at least one well of a multiwell plate by a polyelectrolyte multilayer film, said method comprising n successive sequences, n being an integer from 1 to 2000, wherein each sequence comprises the steps of: a) robotic deposit of a volume V PE 1 of a solution of a first polyelectrolyte PE 1 on the bottom surface of at least one well of a multiwell plate, wherein the first polyelectrolyte PE 1 is either a cationic polymer comprising amino groups, or an anionic polymer, then b) robotic aspiration of an aspirated volume V aspPE 1 of a mixture of said solution of PE 1 which has been deposited and of air, wherein the aspirated volume V aspPE 1 is higher than or equal to V PE 1, then c) robotic deposit of a volume V PE 2 of a solution of a second polyelectrolyte PE 2 on said bottom surface, wherein the second polyelectrolyte PE 2 is a cationic polymer comprising amino groups when PE 1 is an anionic polymer, or PE 2 is an anionic polymer when PE 1 is a cationic polymer comprising amino groups, then d) robotic aspiration of an aspirated volume V aspPE 2 of a mixture of said solution of PE 2 which has been deposited and of air, wherein the aspirated volume V aspPE 2 is higher than or equal to V PE 2. a) robotic deposit of a volume V PE 1 of a solution of a first polyelectrolyte PE 1 on the bottom surface of at least one well of a multiwell plate, wherein the first polyelectrolyte PE 1 is either a cationic polymer comprising amino groups, or an anionic polymer, then b) robotic aspiration of an aspirated volume V aspPE 1 of a mixture of said solution of PE 1 which has been deposited and of air, wherein the aspirated volume V aspPE 1 is higher than or equal to V PE 1, then c) robotic deposit of a volume V PE 2 of a solution of a second polyelectrolyte PE 2 on said bottom surface, wherein the second polyelectrolyte PE 2 is a cationic polymer comprising amino groups when PE 1 is an anionic polymer, or PE 2 is an anionic polymer when PE 1 is a cationic polymer comprising amino groups, then d) robotic aspiration of an aspirated volume V aspPE 2 of a mixture of said solution of PE 2 which has been deposited and of air, wherein the aspirated volume V aspPE 2 is higher than or equal to V PE 2.
A method for extending an object schema-based application programming interface, API, comprising: receiving, from a user, a schema defining an extension to the API and a reference to a parent node of the extension in a graph projection of the API, wherein the graph projection includes a root node and plurality of child nodes, with each child node representing a function exposed by the API, and wherein the graph projection of the API comprises a number of navigable paths, each navigable path being an access path for any function exposed by the API from the root node to a child node; verifying that the schema defines a valid extension to the API based at least in part on whether a navigable path exists in the graph projection of the API to a node representing the extension, wherein verifying that a navigable path exists to a node representing the extension comprises determining that the parent node of the extension is an existing node in the graph projection of the API; updating the graph projection of the API to include the node representing the extension and the navigable path to the node representing the extension, wherein updating the graph projection of the API to include the extension comprises generating a node associated with the extension and setting the node to depend from the parent node of the extension; and processing a request from the user by traversing through the updated graph projection of the API, the request representing the navigable path to the node representing the extension. receiving, from a user, a schema defining an extension to the API and a reference to a parent node of the extension in a graph projection of the API, wherein the graph projection includes a root node and plurality of child nodes, with each child node representing a function exposed by the API, and wherein the graph projection of the API comprises a number of navigable paths, each navigable path being an access path for any function exposed by the API from the root node to a child node; verifying that the schema defines a valid extension to the API based at least in part on whether a navigable path exists in the graph projection of the API to a node representing the extension, wherein verifying that a navigable path exists to a node representing the extension comprises determining that the parent node of the extension is an existing node in the graph projection of the API; updating the graph projection of the API to include the node representing the extension and the navigable path to the node representing the extension, wherein updating the graph projection of the API to include the extension comprises generating a node associated with the extension and setting the node to depend from the parent node of the extension; and processing a request from the user by traversing through the updated graph projection of the API, the request representing the navigable path to the node representing the extension.
Kitchen appliance, in particular food processor, hand blender or mixing wand, having at least one stirring device, in particular whisk, for processing food, wherein the stirring device comprises a drive shaft, at the one end of which a coupling point is arranged for coupling with the kitchen appliance and at the other end of which a plurality, in particular two, loop-type brackets (11, 15) active areas are arranged, wherein at least two active elements are arranged on the brackets (11, 15) in each case and increase the active surface on the food to be processed, wherein the respective active element has a height, width and maximum length dimension at the ratio of 1:1:2, in particular at the ratio of 1:1:1.5, preferably at the ratio of 1:1:1, characterised in that the active elements of the brackets (11, 15) are each arranged at different levels in symmetry with the axis of rotation of the drive shaft on the respective bracket (11, 15) and are therefore in contact with the food at different levels.
A formulation comprising Lactobacillus reuteri MM4-1A (ATCC-PTA-6475) and/or a bioactive extract or fraction thereof for use in a method of treating or preventing one or more social behavioral deficiencies in an individual with autism spectrum disorder, comprising the steps of providing to the individual and/or the mother during gestation of the individual a therapeutically effective amount of the formulation.
A light emitting device comprising: a substrate; a first electrode provided on the substrate, and a second electrode disposed on a plane identical with a plane of the first electrode at a position spaced apart from the first electrode; at least one light emitting element provided on the substrate, and including a first end and a second end with respect to a longitudinal direction; a conductive bridge pattern provided on the light emitting element, and electrically coupled to the second end of the light emitting element; an insulating pattern (INSP) provided on the conductive bridge pattern;a first contact electrode provided on the substrate, and electrically coupling the first electrode with the first end of the light emitting element; a second contact electrode provided on the substrate, and electrically coupling the conductive bridge pattern with the second electrode; and a void enclosed by a portion of an upper surface of the light emitting element, a first end (S1_BRP) of the conductive bridge pattern, a first end of the insulating pattern (INSP), and a portion of the first contact electrode. a substrate; a first electrode provided on the substrate, and a second electrode disposed on a plane identical with a plane of the first electrode at a position spaced apart from the first electrode; at least one light emitting element provided on the substrate, and including a first end and a second end with respect to a longitudinal direction; a conductive bridge pattern provided on the light emitting element, and electrically coupled to the second end of the light emitting element; an insulating pattern (INSP) provided on the conductive bridge pattern;a first contact electrode provided on the substrate, and electrically coupling the first electrode with the first end of the light emitting element; a second contact electrode provided on the substrate, and electrically coupling the conductive bridge pattern with the second electrode; and a void enclosed by a portion of an upper surface of the light emitting element, a first end (S1_BRP) of the conductive bridge pattern, a first end of the insulating pattern (INSP), and a portion of the first contact electrode.
A control device intended to control a function of a motor vehicle, the control device comprising: - a touch panel comprising an outer surface provided with one or several control areas each assigned to a specific function of the motor vehicle, the touch panel supporting one or several elementary sensors each positioned in vertical alignment with one of said control areas, said elementary sensor(s) being likely to generate at least one signal in response to an action applied by the user on at least one of said control areas, - at least one actuator configured to provide a user with haptic feedback by a translational displacement of the touch panel in a plane, called the vibration plane, and in a single displacement direction (Dx), - a monitoring unit configured to receive said at least one signal generated by said elementary sensor(s) and to monitor said at least one actuator in response to said signal, said control device including support and guide means intended to maintain the touch panel aligned in the vibration plane and being characterized in that each of the elementary sensors comprises at least one insulating substrate on which are deposited conductive tracks (221, 222) forming at least one capacitive sensor and an assembly of conductive or semiconductive nanoparticles in a colloidal suspension in an electrically insulating ligand, said assembly forming at least one force sensor. - a touch panel comprising an outer surface provided with one or several control areas each assigned to a specific function of the motor vehicle, the touch panel supporting one or several elementary sensors each positioned in vertical alignment with one of said control areas, said elementary sensor(s) being likely to generate at least one signal in response to an action applied by the user on at least one of said control areas, - at least one actuator configured to provide a user with haptic feedback by a translational displacement of the touch panel in a plane, called the vibration plane, and in a single displacement direction (Dx), - a monitoring unit configured to receive said at least one signal generated by said elementary sensor(s) and to monitor said at least one actuator in response to said signal,
A method for controlling cell activation, comprising: receiving, by a base station, a radio resource control, RRC, reconfiguration message; characterized in that the method further comprises, according to the RRC reconfiguration message, if a secondary cell served by the base station participates in multi-flow transmission and is a cell that participates in the multi-flow transmission before the base station receives the RRC reconfiguration message, keeping, by the base station, an activated or deactivated state of the secondary cell unchanged; and, if the secondary cell served by the base station participates in the multi-flow transmission but is not a cell that participates in the multi-flow transmission before the base station receives the RRC reconfiguration message, activating the secondary cell. receiving, by a base station, a radio resource control, RRC, reconfiguration message; characterized in that the method further comprises, according to the RRC reconfiguration message, if a secondary cell served by the base station participates in multi-flow transmission and is a cell that participates in the multi-flow transmission before the base station receives the RRC reconfiguration message, keeping, by the base station, an activated or deactivated state of the secondary cell unchanged; and, if the secondary cell served by the base station participates in the multi-flow transmission but is not a cell that participates in the multi-flow transmission before the base station receives the RRC reconfiguration message, activating the secondary cell.