mhurhangee/patent-ind-claim-en huggingface dataset:
A curable silicone composition comprising: (A) a diorganopolysiloxane having at least two alkenyl groups in a molecule and containing siloxane units represented by the formula: R 1 2 SiO 2/2 (in the formula, R 1 represents an aryl group); (B) at least two types of resinous organopolysiloxanes having different mass average molecular weights based on standard polystyrene conversion gel permeation chromatography, and comprising siloxane units represented by the formula: SiO 4/2 , siloxane units represented by the formula: R 2 2 R 3 SiO 1/2 (in the formula, R 2 represents a monovalent hydrocarbon group lacking aliphatic unsaturated bonds, R 3 represents an alkenyl group), and siloxane units represented by the formula: R 2 3 SiO 1/2 (in the formula, R 2 has the same significance as above), in an amount of 10 to 100 parts by mass per 100 parts by mass of component (A); (C) an organopolysiloxane having at least two silicon-bonded hydrogen atoms in a molecule, in an amount so that the amount of silicon-bonded hydrogen atoms in component (C) is from 0.1 to 10 mol per 1 mol of total alkenyl groups in components (A) and (B); and (D) a catalytic amount of hydrosilylation reaction catalyst. (A) a diorganopolysiloxane having at least two alkenyl groups in a molecule and containing siloxane units represented by the formula: R 1 2 SiO 2/2 (in the formula, R 1 represents an aryl group); (B) at least two types of resinous organopolysiloxanes having different mass average molecular weights based on standard polystyrene conversion gel permeation chromatography, and comprising siloxane units represented by the formula: SiO 4/2 , siloxane units represented by the formula: R 2 2 R 3 SiO 1/2 (in the formula, R 2 represents a monovalent hydrocarbon group lacking aliphatic unsaturated bonds, R 3 represents an alkenyl group), and siloxane units represented by the formula: R 2 3 SiO 1/2 (in the formula, R 2 has the same significance as above), in an amount of 10 to 100 parts by mass per 100 parts by mass of component (A); (C) an organopolysiloxane having at least two silicon-bonded hydrogen atoms in a molecule, in an amount so that the amount of silicon-bonded hydrogen atoms in component (C) is from 0.1 to 10 mol per 1 mol of total alkenyl groups in components (A) and (B); and (D) a catalytic amount of hydrosilylation reaction catalyst.
A heat treatment method for a rod-shaped workpiece (W), comprising a heating step of inductively heating a rod-shaped workpiece (W) having an outer peripheral surface with a circular cross section to a quenching temperature while continuously conveying the rod-shaped workpiece (W) at a predetermined velocity along an axial direction of the rod-shaped workpiece (W), wherein, in the heating step, the rod-shaped workpiece (W) being currently conveyed is heated to a predetermined temperature equal to or lower than the quenching temperature by a first heating coil , which is electrically connected to a first high-frequency power supply to keep an output from the first heating coil constant, said first heating coil has an axial dimension that is longer than an axial dimension of the rod-shaped workpiece (W), and then the rod-shaped workpiece (W) being currently conveyed is heated to be maintained at the quenching temperature by a second heating coil , which is electrically connected to a second high-frequency power supply to keep an output from the second heating coil constant, said second heating coil has an axial dimension that is longer than the axial dimension of the rod-shaped workpiece (W). wherein, in the heating step, the rod-shaped workpiece (W) being currently conveyed is heated to a predetermined temperature equal to or lower than the quenching temperature by a first heating coil , which is electrically connected to a first high-frequency power supply to keep an output from the first heating coil constant, said first heating coil has an axial dimension that is longer than an axial dimension of the rod-shaped workpiece (W), and then the rod-shaped workpiece (W) being currently conveyed is heated to be maintained at the quenching temperature by a second heating coil , which is electrically connected to a second high-frequency power supply to keep an output from the second heating coil constant, said second heating coil has an axial dimension that is longer than the axial dimension of the rod-shaped workpiece (W).
A method for manufacturing a solid state battery comprises the following steps (S10)-(S60) of: (S10) preparing at least one negative electrode, at least one positive electrode and at least one solid electrolyte layer; (S20) carrying out stacking in such a manner that the solid electrolyte layer is interposed between the negative electrode and the positive electrode to prepare a stacked structure; (S30) pressing the stacked structure to form an electrode assembly (a); (S40) mixing an organic peroxide-based crosslinking initiator with a nonpolar solvent to prepare a crosslinking agent solution; (S50) impregnating the electrode assembly (a) with the solution; and (S60) warming the impregnated electrode assembly (a) to form an electrode assembly (a'), wherein step (S60) is carried out in such a temperature range that crosslinking may be initiated and performed in the electrode assembly (a'), wherein the positive electrode, the negative electrode and the solid electrolyte layer comprise a binder polymer resin, and the binder polymer resin of the electrode assembly (a') is crosslinked to form an interlayer continuous phase at the interface between the negative electrode and the solid electrolyte layer and at the interface between the positive electrode and the solid electrolyte layer, the negative electrode, the positive electrode and the solid electrolyte layer comprise a sulfide based solid electrolyte, and the negative electrode and the positive electrode comprise a rubber-based binder resin. (S10) preparing at least one negative electrode, at least one positive electrode and at least one solid electrolyte layer; (S20) carrying out stacking in such a manner that the solid electrolyte layer is interposed between the negative electrode and the positive electrode to prepare a stacked structure; (S30) pressing the stacked structure to form an electrode assembly (a); (S40) mixing an organic peroxide-based crosslinking initiator with a nonpolar solvent to prepare a crosslinking agent solution; (S50) impregnating the electrode assembly (a) with the solution; and (S60) warming the impregnated electrode assembly (a) to form an electrode assembly (a'), wherein step (S60) is carried out in such a temperature range that crosslinking may be initiated and performed in the electrode assembly (a'), wherein the positive electrode, the negative electrode and the solid electrolyte layer comprise a binder polymer resin, and the binder polymer resin of the electrode assembly (a') is crosslinked to form an interlayer continuous phase at the interface between the negative electrode and the solid electrolyte layer and at the interface between the positive electrode and the solid electrolyte layer, the negative electrode, the positive electrode and the solid electrolyte layer comprise a sulfide based solid electrolyte, and the negative electrode and the positive electrode comprise a rubber-based binder resin.
A handheld user device comprising: a processor configured to enable a digital signature scheme based on a mnemonic-aided secret for user authentication that uses a combination of one or more secrets, first user defined motion actions and second user defined motion actions implemented on the user device and associated with the secrets; and a device input system coupled to the processor and configured to detect a plurality of atomic motion actions implemented on the user device, wherein the mnemonic-aided secret is a image based mnemonic comprising an image displayed on a touch screen including one or more image objects that allows a user to remember the secrets, and wherein the secrets correspond to one or more points that coincide with the image objects; wherein the first and second user defined motion action comprise a series of determined distinguishing atomic motion actions; wherein the first user defined motion actions comprise making a drawing on the touch screen using the image objects and wherein the second user defined motion actions comprise at least one of shaking, translating, and rotating the handheld device. a processor configured to enable a digital signature scheme based on a mnemonic-aided secret for user authentication that uses a combination of one or more secrets, first user defined motion actions and second user defined motion actions implemented on the user device and associated with the secrets; and a device input system coupled to the processor and configured to detect a plurality of atomic motion actions implemented on the user device, wherein the mnemonic-aided secret is a image based mnemonic comprising an image displayed on a touch screen including one or more image objects that allows a user to remember the secrets, and wherein the secrets correspond to one or more points that coincide with the image objects; wherein the first and second user defined motion action comprise a series of determined distinguishing atomic motion actions; wherein the first user defined motion actions comprise making a drawing on the touch screen using the image objects and wherein the second user defined motion actions comprise at least one of shaking, translating, and rotating the handheld device.
A mobile riveting and punching tool comprising - a drive piston that can be moved hydraulically between an initial position and an end position, - a hydraulic tool housing comprising a cylinder portion that guides the drive piston , and - a pulling tool unit or pushing tool unit that can be releasably connected to the drive piston and the hydraulic tool housing , characterized in that - a tool unit can be arranged on both sides of the hydraulic tool housing - viewed in the direction of the longitudinal axis of the drive piston, along which the drive piston can be moved within the hydraulic tool housing - and can be connected to the drive piston, and - the hydraulic tool housing is designed, - on one side, for the arrangement of the pulling tool unit that can be connected to the drive piston and, - on the other side, for the arrangement of the pushing tool unit that can be connected to the drive piston . - a drive piston that can be moved hydraulically between an initial position and an end position, - a hydraulic tool housing comprising a cylinder portion that guides the drive piston , and - a pulling tool unit or pushing tool unit that can be releasably connected to the drive piston and the hydraulic tool housing , characterized in that - a tool unit can be arranged on both sides of the hydraulic tool housing - viewed in the direction of the longitudinal axis of the drive piston, along which the drive piston can be moved within the hydraulic tool housing - and can be connected to the drive piston, and - the hydraulic tool housing is designed, - on one side, for the arrangement of the pulling tool unit that can be connected to the drive piston and, - on the other side, for the arrangement of the pushing tool unit that can be connected to the drive piston . - on one side, for the arrangement of the pulling tool unit that can be connected to the drive piston and, - on the other side, for the arrangement of the pushing tool unit that can be connected to the drive piston .
Aircraft (A) comprising a skin (P) forming an outer surface of the aircraft, the aircraft (A) being equipped with a system for estimating the parameters of an impact comprising an array of sensors attached to the skin (P) and a central processing unit connected to said array and configured for assessing the parameters ( F , I, T ) of an impact, said parameters comprising at least the position ( F ) of the point of impact, the intensity (I) and the duration ( T ) of the impact, the sensor array comprising a first set of sensors providing data relating to the elastic waves, the sensors of the first set of sensors being located at neutral points of the skin (P) of the aircraft (A) relative to the discriminant vibration eigenmodes of said skin (P), the central processing unit assessing the parameters ( F , I, T ) of an impact from the data of the array of sensors and a response model of the skin to external excitations calculated from the modal properties of the skin (P) .
An emulsion comprising; (i) 65 to 74% by weight of an aqueous phase, and (ii) 26 to 35% by weight of an oil phase comprising; (a) 65 to 75% by weight of capric/caprylic triglyceride; and (b) 20 to 35% by weight of at least one polyunsaturated fatty acid and/or derivative thereof; (iii) less than 4% by weight of at least one emulsifier, wherein the emulsifier is selected from an alkoxylated sorbitan ester; and (iv) less than 7% by weight of the aqueous phase of at least one stabiliser selected from acacia gum and xanthan gum. (i) 65 to 74% by weight of an aqueous phase, and (ii) 26 to 35% by weight of an oil phase comprising; (a) 65 to 75% by weight of capric/caprylic triglyceride; and (b) 20 to 35% by weight of at least one polyunsaturated fatty acid and/or derivative thereof; (a) 65 to 75% by weight of capric/caprylic triglyceride; and (b) 20 to 35% by weight of at least one polyunsaturated fatty acid and/or derivative thereof; (iii) less than 4% by weight of at least one emulsifier, wherein the emulsifier is selected from an alkoxylated sorbitan ester; and (iv) less than 7% by weight of the aqueous phase of at least one stabiliser selected from acacia gum and xanthan gum.
A manufacturing management device , which is applied to a production line configured to install multiple production devices (2 to 8) each including a component mounter configured to mount an electronic component on a circuit board in a conveyance direction of the circuit board , the manufacturing management device comprising: a determination section configured to determine whether maintenance is necessary on any of the multiple production devices (2 to 8) during production by the production line ; characterized by: a conveyance management section configured to stop loading circuit boards , at a predetermined time, onto a reference device (Sd) among the multiple production devices (2 to 8) when it is determined that maintenance is necessary, the reference device (Sd) being positioned upstream in the production line from a maintenance target device (Rd) having a cause for maintenance. a determination section configured to determine whether maintenance is necessary on any of the multiple production devices (2 to 8) during production by the production line ; characterized by: a conveyance management section configured to stop loading circuit boards , at a predetermined time, onto a reference device (Sd) among the multiple production devices (2 to 8) when it is determined that maintenance is necessary, the reference device (Sd) being positioned upstream in the production line from a maintenance target device (Rd) having a cause for maintenance.
A method for object segmentation in an image , comprising the steps of - inputting the image to a trained machine learning system, and - estimating, by the trained machine learning system, a representation of a segmentation contour of an object in the image , wherein the segmentation contour is a closed two-dimensional parametric curve, characterized by - reconstructing the segmentation contour of the object having any contours, including concave shaped contours from the estimated representation of the segmentation contour , wherein - each point of the segmentation contour is defined by two coordinate components, wherein both coordinate components of the segmentation contour are independently parametrized, and - the estimated representation comprises - at least one parameter of a geometric transformation estimated by the trained machine learning system, and - a representation of a reference contour belonging to a typical appearance of the object estimated by the trained machine learning system. - inputting the image to a trained machine learning system, and - estimating, by the trained machine learning system, a representation of a segmentation contour of an object in the image , wherein the segmentation contour is a closed two-dimensional parametric curve, - reconstructing the segmentation contour of the object having any contours, including concave shaped contours from the estimated representation of the segmentation contour , - each point of the segmentation contour is defined by two coordinate components, wherein both coordinate components of the segmentation contour are independently parametrized, and - the estimated representation comprises - at least one parameter of a geometric transformation estimated by the trained machine learning system, and - a representation of a reference contour belonging to a typical appearance of the object estimated by the trained machine learning system. - at least one parameter of a geometric transformation estimated by the trained machine learning system, and - a representation of a reference contour belonging to a typical appearance of the object estimated by the trained machine learning system.
A composition consisting essentially of an extract of each of the following aromatic plants: aromatic plants of the Lamiaceae family, aromatic plants of the Asteraceae family, and aromatic plants of the Poaceae family, and eventually aromatic plants of the Fabaceae family said composition consisting of a mixture of a lemon balm extract, a thyme extract, a rosemary extract, a wormwood extract and a lemongrass extract. aromatic plants of the Lamiaceae family, aromatic plants of the Asteraceae family, and aromatic plants of the Poaceae family, and eventually aromatic plants of the Fabaceae family
A method of forming a polycrystalline diamond element, the method comprising: forming a polycrystalline diamond compact from diamond particles at a temperature and a pressure sufficient to form diamond-to-diamond bonds in the presence of a catalyst comprising one of a Group VIII element and an alloy thereof; substantially removing the catalyst from an entirety of the polycrystalline diamond compact ; and securing the polycrystalline diamond compact having the catalyst substantially removed therefrom to a supporting substrate at a temperature and a pressure sufficiently high to maintain stability of diamond-to-diamond bonds in the polycrystalline diamond compact in the presence of a binder material differing at least in part from a material of the catalyst and comprising one of a Group VIII element and an alloy thereof, and to introduce the binder material into interstitial voids between diamond particles of the polycrystalline diamond compact and substantially fill the polycrystalline diamond compact with the binder material , wherein at least one of the temperature and pressure for forming the diamond compact is lower than the respective temperature and/or pressure for securing the polycrystalline diamond compact having the catalyst substantially removed therefrom to the supporting substrate . forming a polycrystalline diamond compact from diamond particles at a temperature and a pressure sufficient to form diamond-to-diamond bonds in the presence of a catalyst comprising one of a Group VIII element and an alloy thereof; substantially removing the catalyst from an entirety of the polycrystalline diamond compact ; and securing the polycrystalline diamond compact having the catalyst substantially removed therefrom to a supporting substrate at a temperature and a pressure sufficiently high to maintain stability of diamond-to-diamond bonds in the polycrystalline diamond compact in the presence of a binder material differing at least in part from a material of the catalyst and comprising one of a Group VIII element and an alloy thereof, and to introduce the binder material into interstitial voids between diamond particles of the polycrystalline diamond compact and substantially fill the polycrystalline diamond compact with the binder material , wherein at least one of the temperature and pressure for forming the diamond compact is lower than the respective temperature and/or pressure for securing the polycrystalline diamond compact having the catalyst substantially removed therefrom to the supporting substrate .
A system comprising a tubular member and a door lock fixture fixed thereto by a top bolt and a bottom bolt , the tubular member having a wall with an elongated rectangular slot therein, the elongated rectangular slot extending in a longitudinal direction and having an top short side and a bottom short side , the door lock fixture comprising a faceplate and a fixture body , the door lock fixture being configured to be mounted with its fixture body through said elongated rectangular slot with the faceplate engaging an outer surface of said wall, the faceplate comprising a top opening through which said top bolt extends and a bottom opening through which said bottom bolt extends, characterized in that the elongated rectangular slot comprises a top notch at the top short side and a bottom notch at the bottom short side, the notches extending away from one another, said top bolt extending at least partially through said top notch and said bottom bolt extending at least partially through said bottom notch, the system further comprising a top nut and a bottom nut for fastening a respective bolt, wherein the elongated rectangular slot has a width (W) comprised between 10 and 35 mm. characterized in that the elongated rectangular slot comprises a top notch at the top short side and a bottom notch at the bottom short side, the notches extending away from one another, said top bolt extending at least partially through said top notch and said bottom bolt extending at least partially through said bottom notch, the system further comprising a top nut and a bottom nut for fastening a respective bolt, wherein the elongated rectangular slot has a width (W) comprised between 10 and 35 mm.
Method for assigning the spatial position (OPG) to a device (G), in particular in the context of the commissioning of the device (G), the method comprising the following steps: (VS1) Determining the spatial position (OPG) of a mobile communication terminal (MG) located in the spatial vicinity of the device (G) by way of a positioning system (IPS); (VS2) Transmitting the spatial position (OPG) from the mobile communication terminal (MG) to the device (G), wherein the transmission of the spatial position (OPG) from the mobile communication terminal (MG) to the device (G) takes place via a third device (DG); (VS3) Querying a planned setpoint spatial position (SOPG) of the device (G) from a building model (BIM) recorded in a database (DB) by way of the mobile communication terminal (MG) ; wherein the transmission of the spatial position (OPG) from the mobile communication terminal (MG) to the device (G) only takes place when the spatial position (OPG), ascertained by the positioning system (IPS), of the mobile communication terminal (MG) located in the spatial vicinity of the device (G) matches the planned setpoint spatial position (SOPG). (VS1) Determining the spatial position (OPG) of a mobile communication terminal (MG) located in the spatial vicinity of the device (G) by way of a positioning system (IPS); (VS2) Transmitting the spatial position (OPG) from the mobile communication terminal (MG) to the device (G), wherein the transmission of the spatial position (OPG) from the mobile communication terminal (MG) to the device (G) takes place via a third device (DG); (VS3) Querying a planned setpoint spatial position (SOPG) of the device (G) from a building model (BIM) recorded in a database (DB) by way of the mobile communication terminal (MG) ; wherein the transmission of the spatial position (OPG) from the mobile communication terminal (MG) to the device (G) only takes place when the spatial position (OPG), ascertained by the positioning system (IPS), of the mobile communication terminal (MG) located in the spatial vicinity of the device (G) matches the planned setpoint spatial position (SOPG).