mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for examining breast tissue, comprising: a flexible dome-shaped substrate defining an internal surface arranged to accommodate breast tissue; a set of substantially circular electrodes (411-415), arranged as concentric rings, located on said substrate; a set of substantially radial electrodes , each overlapping said concentric rings, located on said substrate; an energising circuit configured for energising a transmitter electrode selected from said plurality of electrodes to propagate an electric field through a detection region of said breast tissue during a coupling operation; and a monitoring circuit configured for receiving an output signal from a receiver electrode selected from the remaining electrodes of said plurality of electrodes; and identifying positions within said detection region by coordinates established by said substantially circular electrodes and said substantially radial electrodes. a flexible dome-shaped substrate defining an internal surface arranged to accommodate breast tissue; a set of substantially circular electrodes (411-415), arranged as concentric rings, located on said substrate; a set of substantially radial electrodes , each overlapping said concentric rings, located on said substrate; an energising circuit configured for energising a transmitter electrode selected from said plurality of electrodes to propagate an electric field through a detection region of said breast tissue during a coupling operation; and a monitoring circuit configured for receiving an output signal from a receiver electrode selected from the remaining electrodes of said plurality of electrodes; and identifying positions within said detection region by coordinates established by said substantially circular electrodes and said substantially radial electrodes.
Process for producing 1-(4-isobutylphenyl)ethanol comprising the step S3) reacting 1-(4-isobutylphenyl)ethanone with hydrogen in the presence of a catalyst composition comprising copper and one or more metals other than copper, wherein the catalyst composition comprises the copper in a total amount in the range of from 60 mass-% to 95 mass-%, relative to the total mass of metals present in the catalyst composition and wherein the catalyst composition comprises in addition to the copper c3) one or more metals selected from the group consisting of manganese and zinc, wherein the or at least one metal is manganese. wherein the catalyst composition comprises the copper in a total amount in the range of from 60 mass-% to 95 mass-%, relative to the total mass of metals present in the catalyst composition and wherein the catalyst composition comprises in addition to the copper c3) one or more metals selected from the group consisting of manganese and zinc, wherein the or at least one metal is manganese.
A glass article comprising: a glass core layer disposed between a first glass cladding layer and a second glass cladding layer, the glass core layer having a composition which is different from the composition of the first and second glass layers, wherein the first glass cladding layer and the second glass cladding layer are formed from a glass-ceramic composition comprising: from 60 mol.% to less than 72.0 mol.% SiO 2 ; from 10 mol.% to 17 mol.% Al 2 O 3 ; from 3 mol.% to 15 mol.% Na 2 O; from 1 mol.% to 8 mol.% Li 2 O; from 3 mol.% to 7 mol.% TiO 2 ; and from 0.5 mol.% to 5 mol.% alkaline earth oxide wherein the alkaline earth oxide comprises from 0.5 mol.% to 2 mol.% MgO. from 60 mol.% to less than 72.0 mol.% SiO 2 ; from 10 mol.% to 17 mol.% Al 2 O 3 ; from 3 mol.% to 15 mol.% Na 2 O; from 1 mol.% to 8 mol.% Li 2 O; from 3 mol.% to 7 mol.% TiO 2 ; and from 0.5 mol.% to 5 mol.% alkaline earth oxide wherein the alkaline earth oxide comprises from 0.5 mol.% to 2 mol.% MgO.
Stator wheel of a turbomachine configured to be mounted in an aircraft, the turbomachine extending along an axis (X), the turbomachine comprising a core flow stream (V1) for a first air flow and a bypass flow stream (V2) for a second air flow, wherein the stator wheel is configured to be mounted along the axis (X), the stator wheel comprising a plurality of vanes extending radially from the axis (X), each vane comprising a leading edge and a trailing edge that together define a chord (C1, C2, C31, C32) in a plane of revolution (PR) defined relative to the axis (X), the stator wheel being characterized by the fact that at least two vanes have different chords (C1, C2, C31, C32) at a same radial distance, the difference in chords (C1, C2, C31, C32) between each vanes of the plurality of vanes and the adjacent vane to said vane being less than or equal to 25%.
A vehicle seat (S) comprising: a seat cushion (S1); a seat back (S2) covered with a skin material and incorporating left and right side frames ; a headrest (S3); a pressure-receiving member connected rearward-movably to the left and right side frames ; a seat back pad with which at least a front surface of the pressure-receiving member and a seat back frame (F2) are covered; and wherein a rearward motion load received from an upper body of an occupant seated on the seat cushion (S1) and acting on the seat back (S2) causes the pressure-receiving member to move rearward to cause the upper body of the occupant to subside into the seat back (S2), wherein the seat back pad includes a central portion configured to face a back of the upper body of the occupant and side portions configured to face sides of the upper body of the occupant, the side portions being provided continuously to the central portion , the seat back pad having a groove for tucking the skin material therein, the groove being formed at borders between the central portion and the side portions , wherein the groove has a bottom in which a plurality of slot holes are formed along the groove , and wherein each of the plurality of slot holes is disposed in a position outside relative to the pressure-receiving member and inside relative to the left or right side frame , with respect to a lateral direction. a seat cushion (S1); a seat back (S2) covered with a skin material and incorporating left and right side frames ; a headrest (S3); a pressure-receiving member connected rearward-movably to the left and right side frames ; a seat back pad with which at least a front surface of the pressure-receiving member and a seat back frame (F2) are covered; and wherein a rearward motion load received from an upper body of an occupant seated on the seat cushion (S1) and acting on the seat back (S2) causes the pressure-receiving member to move rearward to cause the upper body of the occupant to subside into the seat back (S2), wherein the seat back pad includes a central portion configured to face a back of the upper body of the occupant and side portions configured to face sides of the upper body of the occupant, the side portions being provided continuously to the central portion , the seat back pad having a groove for tucking the skin material therein, the groove being formed at borders between the central portion and the side portions , wherein the groove has a bottom in which a plurality of slot holes are formed along the groove , and wherein each of the plurality of slot holes is disposed in a position outside relative to the pressure-receiving member and inside relative to the left or right side frame , with respect to a lateral direction.
A function operating method of a first electronic device, the method comprising: receiving, by the first electronic device, information on functions performable in a second electronic device; and deactivating, by the first electronic device, at least one of a function or a component of the first electronic device that performs one of the functions performable in the second electronic device based on the received information, wherein the information further comprises information on a remaining amount of battery power of the second electronic device, and deactivating at least one of the function or the component of the first electronic device is performed when the remaining amount of battery power of the second electronic device is greater than a threshold. receiving, by the first electronic device, information on functions performable in a second electronic device; and deactivating, by the first electronic device, at least one of a function or a component of the first electronic device that performs one of the functions performable in the second electronic device based on the received information, wherein the information further comprises information on a remaining amount of battery power of the second electronic device, and deactivating at least one of the function or the component of the first electronic device is performed when the remaining amount of battery power of the second electronic device is greater than a threshold.
Refrigerator and/or freezer device, comprising a carcass that defines a cooled interior, a door that is arranged so as to be pivotable relative to the carcass, and by means of which the cooled interior can be closed, in the closed position of the door, and a closure unit that is arranged on the door and is designed such that it exerts a closing torque, moving the door into the closed position, in the event of a specified door opening angle being reached or not being met, and exerts neither closing nor opening torques in the event of the specified door opening angle being exceeded, wherein the closure unit is connected to a sliding support that is guided in a first straight slot which comprises a first latching element which, in a first position, fixes a lever to the sliding support by means of a positive fit and which, in a second position, releases the lever such that the lever is not fixed to the sliding support , characterised in that the latching element is guided in the first slot by means of a first pin , and is guided in a second slot by means of a second pin , and in the second position thereof, in which the lever is released, is preloaded in the direction of the first position, the second slot comprises a curved slot end region which allows for a pivot movement of the latching element when the second pin is received, in order to allow a release of the lever relative to the latching element .
Rear view mirror arrangement for a motor vehicle , comprising at least one image capture apparatus , comprising a housing and a camera mounted in the housing , wherein the housing has at least one pane , and a display device for displaying a camera image, characterised in that , the rear view mirror arrangement can be operated in a camera mode, in which the pane , whose transparency and mirroring behaviour can be changed, is transparent, and a mirror mode, in which the pane is reflective, wherein in camera mode the camera records the area surrounding the motor vehicle through the transparent pane , which is displayed to a driver by means of the display unit , wherein in mirror mode a mirror image of the surrounding area is visible to the driver in the reflecting pane .
A blending system comprising: a base including a motor and a display system ; a container operably attached to the base; and wherein the display system comprises a projection device configured to project an image on the container. a base including a motor and a display system ; a container operably attached to the base; and wherein the display system comprises a projection device configured to project an image on the container.
A method for testing a depth learning chip , comprising: testing a plurality of logic units in the depth learning chip , the plurality of logic units being configured to perform at least one of an inference operation and a training operation for depth learning; obtaining one or more error units that do not pass the testing from the plurality of logic units; and in response to a ratio of a number of the one or more error units to a total number of the plurality of logic units being lower than or equal to a predetermined ratio, determining the depth learning chip as a qualified chip, being characterized in that the plurality of logic units comprises a plurality of inference logic units for performing the inference operation, and a plurality of training logic units for performing the training operation, and the method further comprises: in response to that there is the one or more error units in the plurality of inference logic units, setting the depth learning chip to merely perform the training operation for the depth learning; or in response to that there is the one or more error units in the plurality of training logic units, setting the depth learning chip to merely perform the inference operation for the depth learning. testing a plurality of logic units in the depth learning chip , the plurality of logic units being configured to perform at least one of an inference operation and a training operation for depth learning; obtaining one or more error units that do not pass the testing from the plurality of logic units; and in response to a ratio of a number of the one or more error units to a total number of the plurality of logic units being lower than or equal to a predetermined ratio, determining the depth learning chip as a qualified chip, being characterized in that the plurality of logic units comprises a plurality of inference logic units for performing the inference operation, and a plurality of training logic units for performing the training operation, and the method further comprises: in response to that there is the one or more error units in the plurality of inference logic units, setting the depth learning chip to merely perform the training operation for the depth learning; or in response to that there is the one or more error units in the plurality of training logic units, setting the depth learning chip to merely perform the inference operation for the depth learning. in response to that there is the one or more error units in the plurality of inference logic units, setting the depth learning chip to merely perform the training operation for the depth learning; or in response to that there is the one or more error units in the plurality of training logic units, setting the depth learning chip to merely perform the inference operation for the depth learning.
A method for operating a mobile radio device, comprising: using location/position information of the mobile radio device and a modulo operation, wherein dividend of the modulo operation is based on at least one location coordinate of the mobile radio device, to select, by the mobile radio device, a radio access resource from a plurality of radio access resources shared among a plurality of mobile radio devices, wherein the location/position information of the mobile radio device represents a position relative to a local reference location within an access region with which the plurality of radio access resources are associated; and sending a transmission from the mobile radio device on a wireless shared radio access channel using the selected radio access resource. using location/position information of the mobile radio device and a modulo operation, wherein dividend of the modulo operation is based on at least one location coordinate of the mobile radio device, to select, by the mobile radio device, a radio access resource from a plurality of radio access resources shared among a plurality of mobile radio devices, wherein the location/position information of the mobile radio device represents a position relative to a local reference location within an access region with which the plurality of radio access resources are associated; and sending a transmission from the mobile radio device on a wireless shared radio access channel using the selected radio access resource.
Automated method for making a marbled chocolate coating of a chocolate confectionery, such as a praline, wherein the marbling occurs by the use of at least two types of chocolate of different color, which method comprises the following sequential steps: a. providing a first dose of chocolate of a first color in a first mold half suitable for forming a first half of the coating; b. providing an air flow device; c. subjecting said first dose of chocolate to an air flow in which a part of the first dose of chocolate is blown away from the first mold half; d. letting the aforementioned first dose of chocolate harden; e. providing aforementioned first mold half with a second dose of chocolate, with a color different from the first dose; f. turning the mold in order to drain the excess second dose of chocolate; g. letting the aforementioned second dose of chocolate harden, resulting in a first coating half characterized in that the aforementioned air flow is used with a pressure between 1 and 5 bar on aforementioned said first dose of chocolate. a. providing a first dose of chocolate of a first color in a first mold half suitable for forming a first half of the coating; b. providing an air flow device; c. subjecting said first dose of chocolate to an air flow in which a part of the first dose of chocolate is blown away from the first mold half; d. letting the aforementioned first dose of chocolate harden; e. providing aforementioned first mold half with a second dose of chocolate, with a color different from the first dose; f. turning the mold in order to drain the excess second dose of chocolate; g. letting the aforementioned second dose of chocolate harden, resulting in a first coating half
An ophthalmological device for the treatment of Limbal Stem Cell Deficiency, the device comprising: - a stem cell carrier substrate; and - a culture of limbal epithelial stem cells cultivated on said stem cell carrier substrate; wherein said stem cell carrier substrate comprises a hydrogel containing collagen or collagen-mimicking peptides; and wherein a ring-shaped area on a surface of said stem cell carrier substrate is provided with a pattern of niches , positioned so as to coincide, after transplantation, with the limbus. - a stem cell carrier substrate; and - a culture of limbal epithelial stem cells cultivated on said stem cell carrier substrate; wherein said stem cell carrier substrate comprises a hydrogel containing collagen or collagen-mimicking peptides; and wherein a ring-shaped area on a surface of said stem cell carrier substrate is provided with a pattern of niches , positioned so as to coincide, after transplantation, with the limbus.
A method of coating a substrate of a component for use in a water cooled nuclear reactor, the method comprising: heating a pressurized carrier gas to a temperature in a range of 500 °C to 800 °C; adding particles to the heated carrier gas, the particles being selected from the group consisting of pure chromium, chromium-based alloys, and combinations thereof, and having an average diameter of 20 microns or less, and spraying the carrier gas and entrained particles onto a substrate at a velocity of 240 to 1220 m/s (800 to 4000 ft./sec.) to forma coating on the substrate, and following formation of the coating, annealing the coating. heating a pressurized carrier gas to a temperature in a range of 500 °C to 800 °C; adding particles to the heated carrier gas, the particles being selected from the group consisting of pure chromium, chromium-based alloys, and combinations thereof, and having an average diameter of 20 microns or less, and spraying the carrier gas and entrained particles onto a substrate at a velocity of 240 to 1220 m/s (800 to 4000 ft./sec.) to forma coating on the substrate, and following formation of the coating, annealing the coating.
A method for preparing a bimetallic mercaptan conversion catalyst for sweetening liquefied petroleum gas at a low temperature, comprising the following steps: mixing 60-80 parts by mass of aluminum hydroxide xerogel and 20-40 parts by mass of silica xerogel uniformly, adding a pore-forming agent and an aqueous nitric acid solution thereto, followed by mixing and kneading, and then extruding the resultant to produce a formed article; air-drying the formed article by placing it at room temperature for 8-15 hours, drying it at 90-120°C for 3-5 hours, then calcinating it for 3-8 hours by elevating the temperature to 450-620°C at a heating rate of 2-4°C/min, and subsequently crushing and screening the resultant to produce short-rod-like particles having a size of 4-6 mm, thereby producing an Al 2 O 3 -SiO 2 composite oxide carrier; and loading bimetallic active components, vanadium and nickel, separately onto the Al 2 O 3 -SiO 2 composite oxide carrier by using an incipient wet impregnation method, and then drying and calcinating it to obtain the bimetallic mercaptan conversion catalyst for sweetening LPG at a low temperature, wherein the low temperature sweetening treatment of LPG is carried out at a reaction temperature of 55-150°C. mixing 60-80 parts by mass of aluminum hydroxide xerogel and 20-40 parts by mass of silica xerogel uniformly, adding a pore-forming agent and an aqueous nitric acid solution thereto, followed by mixing and kneading, and then extruding the resultant to produce a formed article; air-drying the formed article by placing it at room temperature for 8-15 hours, drying it at 90-120°C for 3-5 hours, then calcinating it for 3-8 hours by elevating the temperature to 450-620°C at a heating rate of 2-4°C/min, and subsequently crushing and screening the resultant to produce short-rod-like particles having a size of 4-6 mm, thereby producing an Al 2 O 3 -SiO 2 composite oxide carrier; and loading bimetallic active components, vanadium and nickel, separately onto the Al 2 O 3 -SiO 2 composite oxide carrier by using an incipient wet impregnation method, and then drying and calcinating it to obtain the bimetallic mercaptan conversion catalyst for sweetening LPG at a low temperature, wherein the low temperature sweetening treatment of LPG is carried out at a reaction temperature of 55-150°C.
A dose setting mechanism for a drug delivery device, said mechanism comprising: an outer housing ; a driver ; an inner housing having an external groove and an internal helical spline ; a coupling member comprising at least one rib that is rotationally coupled to said helical spline of said inner housing ; a dial sleeve disposed between said outer housing and said inner housing , said dial sleeve comprising a helical groove rotatably engaged with said external groove of said inner housing; and a clutch rotationally keyed to the driver and disposed about the driver between the driver and the dial sleeve , wherein the driver , the clutch and the dial sleeve are coupled to rotate together during dose setting; wherein during a dose dispense step, said driver is rotationally decoupled from said dial sleeve and rotationally coupled with said coupler , wherein said inner housing is configured to guide said driver to dispense a dose set by said dose setting mechanism, wherein said dial sleeve is configured to rotate with respect to both said outer housing and said inner housing during dose setting and configured to be translated away from both said outer housing and said inner housing . an outer housing ; a driver ; an inner housing having an external groove and an internal helical spline ; a coupling member comprising at least one rib that is rotationally coupled to said helical spline of said inner housing ; a dial sleeve disposed between said outer housing and said inner housing , said dial sleeve comprising a helical groove rotatably engaged with said external groove of said inner housing; and a clutch rotationally keyed to the driver and disposed about the driver between the driver and the dial sleeve , wherein the driver , the clutch and the dial sleeve are coupled to rotate together during dose setting; wherein during a dose dispense step, said driver is rotationally decoupled from said dial sleeve and rotationally coupled with said coupler , wherein said inner housing is configured to guide said driver to dispense a dose set by said dose setting mechanism, wherein said dial sleeve is configured to rotate with respect to both said outer housing and said inner housing during dose setting and configured to be translated away from both said outer housing and said inner housing .