mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a shoe , the method comprising: an arrangement step of arranging a first shoe member , a second shoe member , and an adapter at least comprising a first thermoplastic , a second thermoplastic that differs in kind from the first thermoplastic , and a conductive material , so that the first shoe member and the second shoe member forms an interface (A) through indirect contact with the adapter ; and a bonding step of inductively heating the conductive material to add heat to the interface (A) and thereby bond the first shoe member and the second shoe member to each other, wherein the adapter has a first surface and a second surface opposite to the first surface , the first thermoplastic is present at a higher ratio than the second thermoplastic on the first surface , and the second thermoplastic is present at a higher ratio than the first thermoplastic on the second surface , and in the arrangement step, the first shoe member and the second shoe member are arranged to have the first shoe member in abutting contact with the first surface and the second shoe member in abutting contact with the second surface . an arrangement step of arranging a first shoe member , a second shoe member , and an adapter at least comprising a first thermoplastic , a second thermoplastic that differs in kind from the first thermoplastic , and a conductive material , so that the first shoe member and the second shoe member forms an interface (A) through indirect contact with the adapter ; and a bonding step of inductively heating the conductive material to add heat to the interface (A) and thereby bond the first shoe member and the second shoe member to each other, wherein the adapter has a first surface and a second surface opposite to the first surface , the first thermoplastic is present at a higher ratio than the second thermoplastic on the first surface , and the second thermoplastic is present at a higher ratio than the first thermoplastic on the second surface , and in the arrangement step, the first shoe member and the second shoe member are arranged to have the first shoe member in abutting contact with the first surface and the second shoe member in abutting contact with the second surface .
A drug delivery device having holes in it, wherein the device is in the form of at least one hollow wire having a central lumen and the holes are through holes , characterized in that the central lumen is filled with a first agent and the through holes are filled with a second agent, and the second-agent-filled through holes are provided in two or more directions in the wire , wherein the first agent is different than the second agent.
A method of determining the integrity of an aircraft hydraulic braking control system comprising an energy storage device , the method comprising: determining a reduction rate of a hydraulic pressure in the braking control system caused by a discharge of the energy storage device ; and determining the integrity of the braking control system in accordance with the reduction rate; characterised in that the method is performed during flight of the aircraft.
A hybrid imaging system adapted to perform CT imaging and fluoroscopic imaging, the hybrid system comprising an arcuate arm defining a first and a second end the arcuate arm including one or more x-ray generation assemblies, a first detector assembly for 2D-imaging of a patient and a second a second detector assembly for CT imaging of the patient, wherein the imaging system includes an internal drive mechanism for rotating the arcuate arm around the patient, wherein the accurate arm includes a first detector assembly for 2D-imaging, wherein rotating the arcuate arm includes translating the arcuate arm along an arcuate path or rotating the arcuate arm about a rotational axis at a pivot connection point, wherein the first detector assembly is a flat-panel detector assembly, which is configured for fluoroscopic imaging of the patient, and the second detector assembly is an arcuate detector assembly, which is configured for CT imaging, wherein the hybrid imaging system is configured to enable selective deployment of the first and second detector assemblies with respect to the detection region of the arm, wherein the x-ray generation assemblies are included at an x ray generation region of the arm, wherein the detection region is at a first end of the arm and the x-ray generation region is at a second opposite end of the arm or wherein the hybrid imaging system enables selection of an imaging mode whereby a corresponding one of the detection assemblies is deployed with respect to the detection region.
Material blank for the gathering of a container group , consisting of a plurality of containers , in particular such as to form a bundle, with - a connection section with a plurality of container receiving openings to be assigned to the containers of the container group , - a first folding tab , which connects to a first edge of the connection section at the connection section , and - a second folding tab , which connects to the connection section at a second edge of the connection section , opposite the first edge , wherein - the first folding tab and the second folding tab are configured and connected to the connection section in such a way that the two folding tabs can be pivoted opposite the connection section into a bundle position, in which the folding tabs overlap one another at least in some sections and cover an upper side of the connection section , characterised in that - the first folding tab comprises two locking elements , which in the bundle position can be moved out of a folding tab plane into a locking plane, in which the locking elements are in each case in engagement with a carrier opening of the connection section . - a connection section with a plurality of container receiving openings to be assigned to the containers of the container group , - a first folding tab , which connects to a first edge of the connection section at the connection section , and - a second folding tab , which connects to the connection section at a second edge of the connection section , opposite the first edge , wherein - the first folding tab and the second folding tab are configured and connected to the connection section in such a way that the two folding tabs can be pivoted opposite the connection section into a bundle position, in which the folding tabs overlap one another at least in some sections and cover an upper side of the connection section , characterised in that - the first folding tab comprises two locking elements , which in the bundle position can be moved out of a folding tab plane into a locking plane, in which the locking elements are in each case in engagement with a carrier opening of the connection section .
A hot melt adhesive composition comprising: (A) 28-75 wt.% of a copolymer of butene-1 with at least one comonomer selected from ethylene, propylene, C5-C10 alpha-olefins and mixtures thereof, having copolymerized comonomer content of 0.5-3.0 wt.%, Melt Flow Rate (MFR) values measured according to ISO 1133 (190°C, 2.16kg) of from 200 to 1500 g/10min. and a melting point (TmII) higher than 80°C, measured by Differential Scanning Calorimetry with a scanning speed of 10°C/minute; and (B) 25-72 wt.% of at least one additional component selected from among waxes, resins, plasticizers, additional polymers and mixtures thereof, wherein the amounts of A) and B) are referred to the total weight of A) + B). (A) 28-75 wt.% of a copolymer of butene-1 with at least one comonomer selected from ethylene, propylene, C5-C10 alpha-olefins and mixtures thereof, having copolymerized comonomer content of 0.5-3.0 wt.%, Melt Flow Rate (MFR) values measured according to ISO 1133 (190°C, 2.16kg) of from 200 to 1500 g/10min. and a melting point (TmII) higher than 80°C, measured by Differential Scanning Calorimetry with a scanning speed of 10°C/minute; and (B) 25-72 wt.% of at least one additional component selected from among waxes, resins, plasticizers, additional polymers and mixtures thereof,
A method of analyzing one or more samples arranged in sample receptacles of a platform that is configured to hold a plurality of separate samples , the method comprising the steps of - optionally, illuminating the samples, - setting a wavelength for obtaining a measurement value by measuring electromagnetic radiation transmitted or emitted by each sample , - repeating the measurement a plurality of times at predetermined intervals , - on the basis of each measurement, forming a result matrix comprising a plurality of cells , each cell of the result matrix corresponding to a sample receptacle of the platform , wherein the measurement value of each sample and the set wavelength are used as inputs for determining the visual properties of the respective cell in the result matrix , the visual properties including a color and a transparency of the cell, and wherein the transparency of each cell is determined on the basis of a measurement value of the respective sample and the color of each cell is determined based on the wavelength of the radiation emitted by the samples or based on the wavelength of the radiation used for illuminating the samples, and - displaying the results as consecutive matrixes in respect of time . - optionally, illuminating the samples, - setting a wavelength for obtaining a measurement value by measuring electromagnetic radiation transmitted or emitted by each sample , - repeating the measurement a plurality of times at predetermined intervals , - on the basis of each measurement, forming a result matrix comprising a plurality of cells , each cell of the result matrix corresponding to a sample receptacle of the platform , wherein the measurement value of each sample and the set wavelength are used as inputs for determining the visual properties of the respective cell in the result matrix , the visual properties including a color and a transparency of the cell, and wherein the transparency of each cell is determined on the basis of a measurement value of the respective sample and the color of each cell is determined based on the wavelength of the radiation emitted by the samples or based on the wavelength of the radiation used for illuminating the samples, and - displaying the results as consecutive matrixes in respect of time .
A device comprising circuitry configured to: obtain a plurality of initial two-dimensional, 2D, images ( I 1 , I 2 ) which together represent an initial three-dimensional, 3D, image ( I ), wherein each initial 2D image ( I 1 , I 2 ) is associated with one of a plurality of focal planes ; generate one or more blurred versions ( LPF ( I 1 ,2), LPF ( I 2 , 1)) of each of the initial 2D images ( I 1 , I 2 ) on one or more of the focal planes other than its associated focal plane ; generate a high passed version ( H 1 , H 2 ) of each of the initial 2D images ( I 1 , I 2 ) on its associated focal plane ; and generate a plurality of final 2D images ( I 1 ′ , I 2 ′ ) by generating for each focal plane a final 2D image ( I 1 ′ , I 2 ′ ) based on the high passed version ( H 1 , H 2 ) of the initial 2D image ( I 1 , I 2 ) associated with that focal plane and one or more blurred versions ( LPF ( I 1 ,2), LPF ( I 2 , 1)) generated on that focal plane from one or more of the other initial 2D images ( I 1 , I 2 ). obtain a plurality of initial two-dimensional, 2D, images ( I 1 , I 2 ) which together represent an initial three-dimensional, 3D, image ( I ), wherein each initial 2D image ( I 1 , I 2 ) is associated with one of a plurality of focal planes ; generate one or more blurred versions ( LPF ( I 1 ,2), LPF ( I 2 , 1)) of each of the initial 2D images ( I 1 , I 2 ) on one or more of the focal planes other than its associated focal plane ; generate a high passed version ( H 1 , H 2 ) of each of the initial 2D images ( I 1 , I 2 ) on its associated focal plane ; and generate a plurality of final 2D images ( I 1 ′ , I 2 ′ ) by generating for each focal plane a final 2D image ( I 1 ′ , I 2 ′ ) based on the high passed version ( H 1 , H 2 ) of the initial 2D image ( I 1 , I 2 ) associated with that focal plane and one or more blurred versions ( LPF ( I 1 ,2), LPF ( I 2 , 1)) generated on that focal plane from one or more of the other initial 2D images ( I 1 , I 2 ).
A controller for controlling a wireless network comprising a plurality of nodes to perform radiofrequency-based motion detection, wherein each unique pair of the plurality of nodes forms a respective node pair and collectively results in a plurality of node pairs, wherein the controller is configured to: - select a reference node pair from the plurality of node pairs; - obtain at least one reference characteristic of the reference node pair; - select a subset of node pairs from the plurality of node pairs, wherein each respective node pair in the subset of node pairs comprises a respective characteristic matching the at least one reference characteristic; - perform the radiofrequency-based motion detection with only said subset of node pairs. - select a reference node pair from the plurality of node pairs; - obtain at least one reference characteristic of the reference node pair; - select a subset of node pairs from the plurality of node pairs, wherein each respective node pair in the subset of node pairs comprises a respective characteristic matching the at least one reference characteristic; - perform the radiofrequency-based motion detection with only said subset of node pairs.
Fluid supply system having one component , having - a bypass valve , disposed in a control channel , having a valve body which can be adjusted at least between a first and a second position, - wherein the valve body divides the control channel into a first and a second chamber and has a leakage opening which connects the first chamber with the second chamber , - wherein the second chamber is connected via a leakage channel with a fluid reservoir , - wherein in the leakage channel is disposed a switchable valve for the at least partial opening/closing of the leakage channel , - wherein at least one detecting device is provided, which detects a characteristic of the fluid and transmits it to a controlling device , which in turn is configured such that it closes the valve when a predefined characteristic is reached and therewith blocks the leakage channel , - a second bypass valve which is designed such that a transient oscillation of the first bypass valve at a system start is at least reduced, characterised in that the second bypass valve is disposed in the leakage opening of the valve body , that the second bypass valve has a spring-loaded valve body , which - is disposed in the leakage opening , - is preloaded with a sealing element sealingly against an edge of the leakage opening , - has a choke opening which is smaller than the leakage opening . - a bypass valve , disposed in a control channel , having a valve body which can be adjusted at least between a first and a second position, - wherein the valve body divides the control channel into a first and a second chamber and has a leakage opening which connects the first chamber with the second chamber , - wherein the second chamber is connected via a leakage channel with a fluid reservoir , - wherein in the leakage channel is disposed a switchable valve for the at least partial opening/closing of the leakage channel , - wherein at least one detecting device is provided, which detects a characteristic of the fluid and transmits it to a controlling device , which in turn is configured such that it closes the valve when a predefined characteristic is reached and therewith blocks the leakage channel , - a second bypass valve which is designed such that a transient oscillation of the first bypass valve at a system start is at least reduced, characterised in that the second bypass valve is disposed in the leakage opening of the valve body , that the second bypass valve has a spring-loaded valve body , which - is disposed in the leakage opening , - is preloaded with a sealing element sealingly against an edge of the leakage opening , - has a choke opening which is smaller than the leakage opening .
A method for calculation of power flow in a distribution grid, comprising the steps of: - dividing the distribution grid into two parts, middle voltage grid and one or more low voltage grids; - pre-processing all low voltage grids in order to estimate a total equivalent power; - performing a backward/forward type sweep algorithm upon the middle voltage grid only; - after middle voltage power flow computation, refining all low voltage grid parameters based on middle voltage grid parameter obtained in the previous step, said parameter being one of voltage, current, power, and impedance. - dividing the distribution grid into two parts, middle voltage grid and one or more low voltage grids; - pre-processing all low voltage grids in order to estimate a total equivalent power; - performing a backward/forward type sweep algorithm upon the middle voltage grid only; - after middle voltage power flow computation, refining all low voltage grid parameters based on middle voltage grid parameter obtained in the previous step, said parameter being one of voltage, current, power, and impedance.
A pharmaceutical formulation comprising: the quinolone compound 1-(6-amino-3,5-difluoropyridin-2-yl)-8-chloro-6-fluoro-7-(3-hydroxyazetidin-1-yl)-4-oxo-1,4-dihydroquinoline-3-carboxylic acid or pharmaceutically acceptable salt or ester thereof having less than about 0.40% of dimeric impurity of the quinolone compound; and optionally a pharmaceutically acceptable carrier; wherein the dimeric impurity is 1-amino-3-(azetidin-3-yloxy)-propan-2-ol-bis( N , N '-quinolone carboxylic acid), or a pharmaceutically acceptable salt or ester thereof; and wherein the formulation is formulated for intravenous administration or for oral administration. the quinolone compound 1-(6-amino-3,5-difluoropyridin-2-yl)-8-chloro-6-fluoro-7-(3-hydroxyazetidin-1-yl)-4-oxo-1,4-dihydroquinoline-3-carboxylic acid or pharmaceutically acceptable salt or ester thereof having less than about 0.40% of dimeric impurity of the quinolone compound; and optionally a pharmaceutically acceptable carrier; wherein the dimeric impurity is 1-amino-3-(azetidin-3-yloxy)-propan-2-ol-bis( N , N '-quinolone carboxylic acid), or a pharmaceutically acceptable salt or ester thereof; and wherein the formulation is formulated for intravenous administration or for oral administration.
A processing device , in particular for processing workpieces made of wood, wood materials, plastic or the like, - with a device stand with a movable workpiece holder by means of which a workpiece is held movable and can be moved past a tool in order to process the workpiece by means of the tool , - with a guiding device with a tool slide , which is arranged on the guiding device in a shiftable manner, with at least one tool arranged thereon so that the tool is arranged in a shiftable manner, - with a shiftable workpiece supply device by means of which the workpiece can be supplied to the workpiece holder , characterised in that at least one additional aggregate for the processing of the workpiece is arranged on the workpiece holder , on the guiding device and/or on the workpiece supply device , wherein - at least one additional aggregate is arranged on the shiftable workpiece holder and can be shifted with the workpiece holder and/or - at least one additional aggregate is arranged on the shiftable workpiece supply device and can be shifted with the workpiece supply device and/or - at least one additional aggregate is arranged on the fixed guiding device in a fixed manner. - with a device stand with a movable workpiece holder by means of which a workpiece is held movable and can be moved past a tool in order to process the workpiece by means of the tool , - with a guiding device with a tool slide , which is arranged on the guiding device in a shiftable manner, with at least one tool arranged thereon so that the tool is arranged in a shiftable manner, - with a shiftable workpiece supply device by means of which the workpiece can be supplied to the workpiece holder , - at least one additional aggregate is arranged on the shiftable workpiece holder and can be shifted with the workpiece holder and/or - at least one additional aggregate is arranged on the shiftable workpiece supply device and can be shifted with the workpiece supply device and/or - at least one additional aggregate is arranged on the fixed guiding device in a fixed manner.
A hair styling device (10; 210) for imparting a wave to a section of hair , the device having a first forming member and a second forming member , a hair-receiving region between the first forming member and the second forming member, and a primary driving element which is movable relative to the first forming member and the second forming member and which is adapted to move a part of the section of hair in the hair-receiving region in a hair-deforming direction (D2), characterised in that the device having a secondary driving element which is movable relative to the first forming member and the second forming member and which is adapted to move the part of the section of hair in the hair-receiving region in a direction opposed to the hair-deforming direction.
A power supply module, comprising a lead frame, an integrated circuit, passive devices, and two semiconductor bare chips, wherein: at least one magnetic device in the passive devices is a discrete magnetic device obtained by assembling a magnetic core and an electrical winding; and one end of the electrical winding is electrically connected to the lead frame, so that the one end of the electrical winding is electrically connected to the integrated circuit and the passive devices except all magnetic devices by means of the lead frame; characterized in that a source of one of the two semiconductor bare chips is electrically connected to a gate of the other semiconductor bare chip; and the other end of the electrical winding is electrically connected to the source of the one semiconductor bare chip directly, and the other end of the electrical winding is further electrically connected to the gate of the other semiconductor bare chip directly. wherein the electrical winding is an aluminum strip, the one end of the electrical winding is electrically connected to the lead frame in a bonding manner or an adhering manner, and the other end of the electrical winding is electrically connected to the semiconductor bare chip in a bonding manner or an adhering manner directly. at least one magnetic device in the passive devices is a discrete magnetic device obtained by assembling a magnetic core and an electrical winding; and one end of the electrical winding is electrically connected to the lead frame, so that the one end of the electrical winding is electrically connected to the integrated circuit and the passive devices except all magnetic devices by means of the lead frame; characterized in that a source of one of the two semiconductor bare chips is electrically connected to a gate of the other semiconductor bare chip; and the other end of the electrical winding is electrically connected to the source of the one semiconductor bare chip directly, and the other end of the electrical winding is further electrically connected to the gate of the other semiconductor bare chip directly. wherein the electrical winding is an aluminum strip, the one end of the electrical winding is electrically connected to the lead frame in a bonding manner or an adhering manner, and the other end of the electrical winding is electrically connected to the semiconductor bare chip in a bonding manner or an adhering manner directly.