mhurhangee/patent-ind-claim-en huggingface dataset:
A travel speed control method, applied to a computer device, comprising: determining a sampling interval matching a current travel speed; selecting , starting from a current location, sampling points on an expected travel route according to the sampling interval; determining a target curvature according to curvatures of the expected travel route at the respective sampling points; determining , according to the target curvature, a speed limit of traveling on the expected travel route; and controlling a travel speed according to the speed limit; wherein the determining the sampling interval matching the current travel speed comprises: obtaining the current travel speed and a preset length of time; and determining the sampling interval according to a product of the current travel speed and the preset length of time. determining a sampling interval matching a current travel speed; selecting , starting from a current location, sampling points on an expected travel route according to the sampling interval; determining a target curvature according to curvatures of the expected travel route at the respective sampling points; determining , according to the target curvature, a speed limit of traveling on the expected travel route; and controlling a travel speed according to the speed limit; wherein the determining the sampling interval matching the current travel speed comprises: obtaining the current travel speed and a preset length of time; and determining the sampling interval according to a product of the current travel speed and the preset length of time. obtaining the current travel speed and a preset length of time; and determining the sampling interval according to a product of the current travel speed and the preset length of time.
A medicament comprising lidocaine for use in the treatment of bladder pain and/or irritative voiding symptoms by continuous administration over a treatment period of 24 hours or more in an amount effective to achieve a therapeutic effect which is sustained beyond the end of the treatment period, wherein the continuous administration is into a patient's bladder at a mean average amount of from about 10 mg to about 30 mg lidocaine (FBE) per day of the treatment period, and wherein the continuous administration provides a non-zero plasma level of the lidocaine over the treatment period. wherein the continuous administration is into a patient's bladder at a mean average amount of from about 10 mg to about 30 mg lidocaine (FBE) per day of the treatment period, and wherein the continuous administration provides a non-zero plasma level of the lidocaine over the treatment period.
A process for preparing 2,3,4,4-tetramethyl-1-cyclopentenecarbaldehyde of the following formula , the process comprising subjecting a vinylether compound of the following general formula to a hydrolysis reaction to form 2,3,4,4-tetramethyl-1-cyclopentenecarbaldehyde wherein in the general formula , R 1 represents a monovalent hydrocarbon group having 1 to 15 carbon atoms, and the wavy line represents the E-form, the Z-form, or a mixture thereof.
An anti-EphA4 antibody or an EphA4-binding fragment thereof, comprising (a) CDR-H1 comprising the amino acid sequence represented by SEQ ID NO: 27; (b) CDR-H2 comprising the amino acid sequence represented by SEQ ID NO: 29; (c) CDR-H3 comprising the amino acid sequence represented by SEQ ID NO: 30; (d) CDR-L1 comprising the amino acid sequence represented by SEQ ID NO: 31; (e) CDR-L2 comprising the amino acid sequence represented by SEQ ID NO: 32; and (f) CDR-L3 comprising the amino acid sequence represented by SEQ ID NO: 33. (a) CDR-H1 comprising the amino acid sequence represented by SEQ ID NO: 27; (b) CDR-H2 comprising the amino acid sequence represented by SEQ ID NO: 29; (c) CDR-H3 comprising the amino acid sequence represented by SEQ ID NO: 30; (d) CDR-L1 comprising the amino acid sequence represented by SEQ ID NO: 31; (e) CDR-L2 comprising the amino acid sequence represented by SEQ ID NO: 32; and (f) CDR-L3 comprising the amino acid sequence represented by SEQ ID NO: 33.
An artificial disc comprising: - a superior endplate having a bi-convex superior surface and a concave inferior surface, wherein the superior endplate includes a first groove disposed within a side surface of the superior endplate ; - an inferior endplate having a bi-convex inferior surface, wherein the inferior endplate includes a second groove disposed within a side surface of the inferior endplate ; - a core assembly disposed between the superior endplate and the inferior endplate ; and - a support assembly disposed on outer surfaces of both the superior endplate and the inferior endplate , the support assembly configured to couple the superior endplate to the inferior endplate , wherein support assembly comprises a sheath that is disposed within the first and second grooves . - a superior endplate having a bi-convex superior surface and a concave inferior surface, wherein the superior endplate includes a first groove disposed within a side surface of the superior endplate ; - an inferior endplate having a bi-convex inferior surface, wherein the inferior endplate includes a second groove disposed within a side surface of the inferior endplate ; - a core assembly disposed between the superior endplate and the inferior endplate ; and - a support assembly disposed on outer surfaces of both the superior endplate and the inferior endplate , the support assembly configured to couple the superior endplate to the inferior endplate , wherein support assembly comprises a sheath that is disposed within the first and second grooves .
An assembly for a combustion chamber of a turbomachine, comprising an annular shell extending along a longitudinal axis , said shell comprising an inner wall intended to be turned towards a furnace of the combustion chamber and an outer wall opposite the inner wall , a projecting element extending radially from an area of the outer wall , characterized in that the shell has at least one plurality of deflectors projecting from the outer wall and located downstream of the projecting element with respect to a direction of gas flow along the outer wall , oriented along the longitudinal axis , each deflector extending circumferentially, the deflectors being axially offset from each other, perforations being provided in the shell , axially between the projecting element and the or each deflector , and axially between the deflectors , with the perforations opening at the inner wall and the outer wall , at least one deflector being inclined axially in the upstream direction with respect to the outer wall.
A device comprising a 3D item obtainable by a method for producing a 3D item by means of fused deposition modelling, wherein the device comprises a lighting device , wherein the 3D item is configured as one or more of (i) at least part of a lighting device housing, (ii) at least part of a wall of a lighting chamber, and (iii) an optical element, wherein the 3D item comprises a plurality of layers of 3D printed material , and an opening in the 3D printed material , the opening having an opening edge that is at least partly defined by one or more interruptions in a subset of one or more layers of the plurality of layers , wherein each interruption is defined by oppositely arranged turns , wherein each turn connects a first layer part and a second layer part , wherein each turn has a path length (Lr) with a radius of curvature (r1), and wherein each path length (Lr) is selected from the range of 0.9 ∗ π ∗ r1≤ Lr ≤π ∗ r1, wherein the layer parts form legs of the turns , wherein the turns comprise U-turns , which layer parts are configured adjacent, wherein for the U-turns applies that a second layer part having a second length (L2) is shorter than a first layer part having a first length (L1) such that over only part of the layer , the layer parts are configured adjacent.
A method, comprising the steps of: constructing a left atrial model of a heart of a living subject, the heart having a left atrium, an interatrial septum and a foramen ovale in the septum, wherein the constructing of the left atrial model comprises forming a 3-dimensional bounding box centered on a point of the left atrial model that corresponds to a center of mass of the left atrium, the bounding box having borders, a length dimension, a width dimension and a height dimension; selecting a global catheter that is dimensioned to conform to the left atrial model, the catheter having a length axis, wherein the selecting a global catheter comprises referencing a database of global catheters to identify a selected catheter that conforms to the bounding box according to predefined box-conforming criteria; representing the catheter in the left atrial model; in the left atrial model extending the length axis of the catheter to form an intersection with the foramen ovale ; and reporting the intersection as a recommended site of transseptal puncture for insertion of the catheter therethrough. constructing a left atrial model of a heart of a living subject, the heart having a left atrium, an interatrial septum and a foramen ovale in the septum, wherein the constructing of the left atrial model comprises forming a 3-dimensional bounding box centered on a point of the left atrial model that corresponds to a center of mass of the left atrium, the bounding box having borders, a length dimension, a width dimension and a height dimension; selecting a global catheter that is dimensioned to conform to the left atrial model, the catheter having a length axis, wherein the selecting a global catheter comprises referencing a database of global catheters to identify a selected catheter that conforms to the bounding box according to predefined box-conforming criteria; representing the catheter in the left atrial model; in the left atrial model extending the length axis of the catheter to form an intersection with the foramen ovale ; and reporting the intersection as a recommended site of transseptal puncture for insertion of the catheter therethrough.
A pulse wave detector comprising: a sensor unit which includes an element array including a plurality of pressure detection elements arranged in one direction (B); a pressing part which is configured to press the sensor unit to a body surface of a living body in a state where the one direction (B) intersects with an extension direction of an artery (T) under the body surface; a rotation mechanism which is configured to rotate the sensor unit about a second axis (Y) extending in a direction perpendicular to each of a pressing direction of the pressing part and the one direction (B); a rotation drive unit which is configured to drive the rotation mechanism ; and the pulse wave detector is configured by a control unit which is configured to control the rotation drive unit so as to control a rotating angle of the sensor unit , characterized in that the pressing part functions as an air bag which is configured to press the sensor unit to the body surface in accordance with an air amount introduced therein, and the rotation mechanism , the pressing part and the sensor unit are arranged in this order in the pressing direction. a sensor unit which includes an element array including a plurality of pressure detection elements arranged in one direction (B); a pressing part which is configured to press the sensor unit to a body surface of a living body in a state where the one direction (B) intersects with an extension direction of an artery (T) under the body surface; a rotation mechanism which is configured to rotate the sensor unit about a second axis (Y) extending in a direction perpendicular to each of a pressing direction of the pressing part and the one direction (B); a rotation drive unit which is configured to drive the rotation mechanism ; and the pulse wave detector is configured by a control unit which is configured to control the rotation drive unit so as to control a rotating angle of the sensor unit , characterized in that the pressing part functions as an air bag which is configured to press the sensor unit to the body surface in accordance with an air amount introduced therein, and the rotation mechanism , the pressing part and the sensor unit are arranged in this order in the pressing direction.
A photosensitive resin composition for flexographic printing, comprising: at least (A) a hydrophilic copolymer; (B) an elastomer; (C) a polymerizable unsaturated monomer; and (D) a photopolymerization initiator, wherein a proportion (area percentage) of a phase comprising the hydrophilic copolymer (A) in a cross-section of a cured product of the resin composition, S A , is 15% or more and less than 60%, and a proportion of a phase having a phase area of 3 μm 2 or more and less than 100 μm 2 in the phase comprising the hydrophilic copolymer (A) in the cross-section is 20 (% by area) or more. (A) a hydrophilic copolymer; (B) an elastomer; (C) a polymerizable unsaturated monomer; and (D) a photopolymerization initiator, wherein
Method for manufacturing a soundproofing part , of the mass/spring type, especially for an automotive vehicle, comprising the following steps: - providing a textile of fibrous material, comprising fusible fibres and/or resins, - heating and thermoforming the textile of fibrous material to obtain a thermoformed textile , - providing a mould having a lower part and an upper part , the lower part having a shape complementary to the shape of the thermoformed felt , - arranging the thermoformed textile on the lower part of the mould, - dispersing an adhesive over the thermoformed textile , - providing a sheet of material of the heavy mass type, - heating the sheet of heavy mass to its softening temperature, - following heating of the sheet of heavy mass , spreading the sheet of heavy mass over the thermoformed textile so that it moulds to the shape thereof, - closing the mould and compressing the superposed thermoformed textile and sheet of heavy mass so as to form the soundproofing part , - opening the mould and removing the soundproofing part . - providing a textile of fibrous material, comprising fusible fibres and/or resins, - heating and thermoforming the textile of fibrous material to obtain a thermoformed textile , - providing a mould having a lower part and an upper part , the lower part having a shape complementary to the shape of the thermoformed felt , - arranging the thermoformed textile on the lower part of the mould, - dispersing an adhesive over the thermoformed textile , - providing a sheet of material of the heavy mass type, - heating the sheet of heavy mass to its softening temperature, - following heating of the sheet of heavy mass , spreading the sheet of heavy mass over the thermoformed textile so that it moulds to the shape thereof, - closing the mould and compressing the superposed thermoformed textile and sheet of heavy mass so as to form the soundproofing part , - opening the mould and removing the soundproofing part .
Cable net façade for a building, comprising at least one group of first cables , façade elements , wherein the first cables consist of one or more lamellae of a fibre-composite material, wherein the group of first cables is pretensioned, and wherein the façade elements are arranged in the plane spanned by the cable network.
Method for providing a range of potential parameters that can be used for recording a future medical image data set by a magnetic resonance scanner or a computer tomography scanner, wherein the parameters of the range of potential parameters define a setting of a device for recording the medical image data set, wherein the range of potential parameters forms an interval or discrete values, wherein the parameters define a duration of a scan, a frequency of measuring, a time between two inversion pulses or a trigger for measuring, comprising: - providing an algorithm for performing a quantitative analysis of the future medical image data set , wherein the quantitative analysis is performed in addition to reconstructing the recorded medical imaging data set for visualizing the recorded medical imaging data set, wherein a set of key values is provided as a result of the quantitative analysis, wherein the key values allow a further specification of a defined region of the visualized medical imaging data set and presents an additional information, the algorithm comprising an inline fit routine and - providing patient information specifying a status of a patient, namely a cardiac cycle or a pulse frequency representing the patient information , wherein for reducing a probability of an invalid quantitative analysis the range of potential parameters is set depending on the patient information and the algorithm before recording the future medical image data set , in order to provide the possibility to choose a parameter from the set range of parameters , wherein a user sets the parameter by means of an input device, wherein the range of potential parameters is visualized to the user and the user chooses the parameter to correspond to a value in the range of potential parameters. - providing an algorithm for performing a quantitative analysis of the future medical image data set , wherein the quantitative analysis is performed in addition to reconstructing the recorded medical imaging data set for visualizing the recorded medical imaging data set, wherein a set of key values is provided as a result of the quantitative analysis, wherein the key values allow a further specification of a defined region of the visualized medical imaging data set and presents an additional information, the algorithm comprising an inline fit routine and - providing patient information specifying a status of a patient, namely a cardiac cycle or a pulse frequency representing the patient information ,
A microelectromechanical (MEMS) force sensor , comprising: a cap for receiving an applied force; a sensor bonded to the cap , the sensor comprising: a trench informed in the sensor along at least a portion of a peripheral edge of the sensor , and a cavity formed in the sensor , the cavity defining an outer wall and at least one flexible sensing element , the outer wall being arranged between the trench and the cavity , and the cavity being sealed between the cap and the sensor ; and a sensor element formed on the at least one flexible sensing element , wherein the sensor element is configured to change an electrical characteristic in response to deflection of the at least one flexible sensing element . a cap for receiving an applied force; a sensor bonded to the cap , the sensor comprising: a trench informed in the sensor along at least a portion of a peripheral edge of the sensor , and a cavity formed in the sensor , the cavity defining an outer wall and at least one flexible sensing element , the outer wall being arranged between the trench and the cavity , and the cavity being sealed between the cap and the sensor ; and a sensor element formed on the at least one flexible sensing element , wherein the sensor element is configured to change an electrical characteristic in response to deflection of the at least one flexible sensing element . a trench informed in the sensor along at least a portion of a peripheral edge of the sensor , and a cavity formed in the sensor , the cavity defining an outer wall and at least one flexible sensing element , the outer wall being arranged between the trench and the cavity , and the cavity being sealed between the cap and the sensor ; and a sensor element formed on the at least one flexible sensing element , wherein the sensor element is configured to change an electrical characteristic in response to deflection of the at least one flexible sensing element .
Moulding element for an external thermal insulation composite system (ETICS), comprising: a. a core, b. a coating covering at least the visible surface of the core when the latter is installed on an exterior, optionally a finishing coat, characterized in that the core consists of at least one incombustible, thermally insulating material selected from inorganic foams, foam concrete, foam mortar, foam glass, glass wool, rock wool, silicone aerogel, wollastonite, vermiculite, plaster, staff, combinations thereof and composites produced from said materials; the core having a single density, said density, expressed in kg/m3, being between [50-400]; preferably between [60-300]; and more preferably between [80-200].
The compound represented by: for use in a method of treating a localized tenosynovial giant cell tumor in a patient in need thereof, comprising orally administering to the patient a therapeutically effective amount of the compound or a pharmaceutically acceptable salt thereof.
Assembly comprising a portable object of small dimensions and a tool for actuating a corrective pushbutton fitted to said portable object of small dimensions, this actuation tool comprising a body which extends between a rear end defining a gripping zone of the actuation tool and a front end defining an actuation zone of the actuation tool , at least the front end of the actuation tool being magnetised, the portable object comprising a middle having an opening inside of which a corrective push-button is arranged, at least one element of the corrective push-button , or at least one portion of the middle of the portable object immediately surrounding the corrective push-button , being made of a ferromagnetic material or of a magnetised material, a first magnetic polarity of which is opposite to a second magnetic polarity of the magnetised actuation tool .
A method for thermally treating an annular region of an inner surface of a glass container made of a borosilicate tubular glass, said annular region being located on a tubular portion of said glass container and adjoining a glass container bottom , comprising the steps of: - Forming the glass container bottom from the tubular glass, - Blow out the glass container with a gas, - heating the annular region of the inner surface of the tubular section adjoining the glass container base to a treatment temperature T Beh above the transformation temperature T G , - Maintaining the treatment temperature T Beh for a certain period of time, - Cool down the glass container to room temperature. characterized in that the annular region is heated to a treatment temperature T Beh between 700 and 1000°C and that the annular region is thermally treated from outside the glass container by means of a gas burner or a laser , wherein the entire glass container wall in the annular region is heated through and the step of blowing out is performed between the step of forming the glass container bottom from the tubular glass and the heating of the annular region . - Forming the glass container bottom from the tubular glass, - Blow out the glass container with a gas, - heating the annular region of the inner surface of the tubular section adjoining the glass container base to a treatment temperature T Beh above the transformation temperature T G , - Maintaining the treatment temperature T Beh for a certain period of time, - Cool down the glass container to room temperature.