mhurhangee/patent-ind-claim-en huggingface dataset:
A catheter comprising: a catheter shaft which includes an inner layer and a braid provided on an outer periphery of the inner layer and including first wires and second wires , wherein the first wires and second wires are woven together in a mesh-pattern, and a tip provided on a distal end of the catheter shaft , characterized in that a bulging portion is provided at distal ends of the first wires and/or at distal ends of the second wires ; and the tip covers the bulging portion , wherein the bulging portion functions as an anchor on the tip , reducing the risk that the tip will be pulled off from the catheter shaft . a catheter shaft which includes an inner layer and a braid provided on an outer periphery of the inner layer and including first wires and second wires , wherein the first wires and second wires are woven together in a mesh-pattern, and a tip provided on a distal end of the catheter shaft , characterized in that a bulging portion is provided at distal ends of the first wires and/or at distal ends of the second wires ; and the tip covers the bulging portion , wherein the bulging portion functions as an anchor on the tip , reducing the risk that the tip will be pulled off from the catheter shaft .
Filtration unit intended for filtering a fluid comprising a rigid housing formed of a first housing element and a second housing element between which a filtration medium is disposed so as to define an inlet compartment for the fluid to be filtered and an outlet compartment for the filtered fluid, said housing including an inlet conduit opening onto the inlet compartment and an outlet conduit opening onto the outlet compartment , each of said housing elements comprising a base surrounded by a peripheral side wall , the base of at least one of said housing elements comprising a main portion and at least one domed portion which is delimited by a perimeter having an inner wall extending from said perimeter to an apex and an outer wall extending from said apex to said perimeter, at least one of the inlet and outlet conduits opening out through the outer wall , said filtration unit being characterised in that the inner and outer walls extend respectively in a median plane (P1, P2, P3, P4) forming therebetween an angle (α1, α2) strictly greater than 90°, the apex having a curved outer profile which extends between said median planes at the junction between the inner and outer walls.
A method for blocking user interface, UI, gestures on a computing device , said computing device comprising a display screen, the method comprising: presenting a UI screen upon said display screen to a user, said UI screen associated with an application that the user is running on said computing device; and receiving a first UI gesture from said user, characterized in that said first UI gesture starts within an active display area of said display screen, said active display area being associated with said application shown on said UI screen, and crosses a first edge of said display screen; and after said first UI gesture, a UI event associated with a second UI gesture is blocked, wherein said second UI gesture starts outside of said active display area of said display screen and crosses an edge of said display screen when moving toward said active display area, and wherein said blocking occurs according to a set of blocking conditions for inadvertent edge-related UI events. presenting a UI screen upon said display screen to a user, said UI screen associated with an application that the user is running on said computing device; and receiving a first UI gesture from said user, characterized in that said first UI gesture starts within an active display area of said display screen, said active display area being associated with said application shown on said UI screen, and crosses a first edge of said display screen; and after said first UI gesture, a UI event associated with a second UI gesture is blocked, wherein said second UI gesture starts outside of said active display area of said display screen and crosses an edge of said display screen when moving toward said active display area, and wherein said blocking occurs according to a set of blocking conditions for inadvertent edge-related UI events.
A method for producing a hydrosilyl group-containing organic silicon resin, wherein after a mixture of one, or two or more of organic silicon compounds represented by following general formulae and with any one or more of a hydrolysable silane represented by following general formula , a partial hydrolysis condensate of the hydrolysable silane, and a metal salt of the hydrolysable silane is hydrolyzed in a presence of an acid catalyst, to a hydrolyzate thereby obtained, one, or two or more of hydrosilyl group-containing organic silicon compounds represented by following general formulae and is added, which is then followed by re-hydrolysis, and thereafter, neutralization is done by adding a base catalyst with an amount of more than a molar equivalent of the acid catalyst, which is followed by condensation to obtain a hydrosilyl group-containing organic silicon resin represented by following average composition formula , which contains a Q-unit (SiO 2 ) and an M-unit ((R 1 3 SiO 1/2 ) and (H n R 2 3-n SiO 1/2 )) as essential components, and which is in a solid form at room temperature without a solvent, R 1 3 SiOSiR 1 3 R 1 3 SiX 1 wherein R 1 may be the same or different with each other, representing an unsubstituted or substituted monovalent hydrocarbon group; and X 1 represents a hydrolysable functional group, SiX 2 4 wherein X 2 represents a hydrolysable functional group, H n R 2 3-n SiOSiR 2 3-n H n H n R 2 3-n SiX 3 wherein R 2 may be the same or different with each other, representing an unsubstituted or substituted monovalent hydrocarbon group; X 3 represents a hydrolysable functional group; and 1≤n≤3, and (R 1 3 SiO 1/2 ) a (H n R 2 3-n SiO 1/2 ) b (SiO 2 ) c (R 4 SiO 3/2 ) d wherein R 1 , R 2 and "n" represents the same as before; R 4 represents an unsubstituted or substituted monovalent hydrocarbon group; and 0<a≤1.5, 0.2≤b≤1.5, 0<c≤1.0, 0≤d≤1.5, and 0.5≤a+b/c≤1.0.
An apparatus comprising: - means for storing training data in a memory; - means for providing a trusted execution environment, - means for running, in the trusted execution environment, a training process configured to obtain parameters of a neural network, using the training data, characterized by , wherein the apparatus is configured to add, in the trusted execution environment, after the parameters of the neural network have been optimized, random noise to the parameters of the neural network, and to provide the parameters to a computer distinct from the apparatus after the adding of the random noise. - means for storing training data in a memory; - means for providing a trusted execution environment, - means for running, in the trusted execution environment, a training process configured to obtain parameters of a neural network, using the training data, characterized by , wherein
A high-flow valve arrangement in an electro-hydraulic safety control unit to discharge oil volume on instructions from a steam turbine safety system to actuate actuators to stop steam flow in steam turbines to shut-off, the high-flow valve comprising: a valve body defining opposite distal ends , the valve body having an integral radially extending flange configured at the end , the radially extending flange of a diameter 'd' adapted to configure a plurality of spaced-apart through holes , the valve body defining, at other distal end , an inlet to allow fluid to enter there-through, and outlets defined via the plurality of spaced-apart through holes to enable exit of the fluid therefrom; a flat-circular plate cartridge movably disposed on the valve body at the flange to cover the outlets , the flat-circular plate cartridge configuring a diameter 'D', the flat-circular plate cartridge having a non-jamming profile along edges ; and a valve housing having a chamber to accommodate oil volume therein, an inlet/outlet port to enable the oil volume to enter and exit therefrom, and a peripheral seat to receive the plate cartridge and a portion of the valve body there along, wherein the plate cartridge is capable of being moved slight upwards or downwards, defining a very short stroke 'S', upon the increase or decrease of the oil volume in the chamber to open and close the outlets defined via the plurality of spaced-apart through holes to enable and stop the fluid flow therefrom. a valve body defining opposite distal ends , the valve body having an integral radially extending flange configured at the end , the radially extending flange of a diameter 'd' adapted to configure a plurality of spaced-apart through holes , the valve body defining, at other distal end , an inlet to allow fluid to enter there-through, and outlets defined via the plurality of spaced-apart through holes to enable exit of the fluid therefrom; a flat-circular plate cartridge movably disposed on the valve body at the flange to cover the outlets , the flat-circular plate cartridge configuring a diameter 'D', the flat-circular plate cartridge having a non-jamming profile along edges ; and a valve housing having a chamber to accommodate oil volume therein, an inlet/outlet port to enable the oil volume to enter and exit therefrom, and a peripheral seat to receive the plate cartridge and a portion of the valve body there along, a chamber to accommodate oil volume therein, an inlet/outlet port to enable the oil volume to enter and exit therefrom, and a peripheral seat to receive the plate cartridge and a portion of the valve body there along, wherein the plate cartridge is capable of being moved slight upwards or downwards, defining a very short stroke 'S', upon the increase or decrease of the oil volume in the chamber to open and close the outlets defined via the plurality of spaced-apart through holes to enable and stop the fluid flow therefrom.
A method for operating a limit level sensor, in which the limit level sensor, in order to determine a resonance frequency (f res ) of a vibration system, excites the vibration system in a frequency range between a lower limit frequency (f min ) and an upper limit frequency (fmax), and a frequency response (E) is subsequently detected characterized in that the frequency range is divided into a plurality of partial ranges (I, II, III, IV, ..., n), and a) in case of an unknown resonance frequency (f res ), the vibration system sequentially excites in each case in successive partial ranges (I, II, III, IV, ..., n), and the frequency response (E I , E II , E III , E IV ,..., E n ) is detected after each partial range (I, II, III, IV, ..., n), b) in case of a known resonance frequency (f res ), the vibration system excites only in the partial range (n) in which the resonance frequency (f res ) is located, and the frequency response (E n ) is then detected. a) in case of an unknown resonance frequency (f res ), the vibration system sequentially excites in each case in successive partial ranges (I, II, III, IV, ..., n), and the frequency response (E I , E II , E III , E IV ,..., E n ) is detected after each partial range (I, II, III, IV, ..., n), b) in case of a known resonance frequency (f res ), the vibration system excites only in the partial range (n) in which the resonance frequency (f res ) is located, and the frequency response (E n ) is then detected.
A method of making silica-layered double hydroxide microspheres having the formula I (SiO 2 ) p @{[M z+ (1-x) M' y+ x (OH) 2 ] a+ (X n- ) a/n •bH 2 O• c (AMO-solvent)} q (I) wherein, M z+ and M' y+ are two different charged metal cations; z = 1 or 2; y = 3 or 4; 0 < x < 0.9; b is 0 to 10; c has a value which is greater than zero and up to 10; p > 0, q > 0, X n- is an anion; with n > 0 a = z(1-x) + xy-2; and the AMO-solvent is an 100% aqueous miscible organic solvent; which method comprises the steps: (a) contacting silica microspheres and a metal ion containing solution containing metal ions M z+ and M' y+ in the presence of a base and an anion solution; (b) collecting the product; and (c) treating the product with AMO-solvent and recovering the solvent treated material to obtain the silica-layered double hydroxide microspheres of formula (I). M z+ and M' y+ are two different charged metal cations; z = 1 or 2; y = 3 or 4; 0 < x < 0.9; b is 0 to 10; c has a value which is greater than zero and up to 10; p > 0, q > 0, X n- is an anion; with n > 0 a = z(1-x) + xy-2; and the AMO-solvent is an 100% aqueous miscible organic solvent; (a) contacting silica microspheres and a metal ion containing solution containing metal ions M z+ and M' y+ in the presence of a base and an anion solution; (b) collecting the product; and (c) treating the product with AMO-solvent and recovering the solvent treated material to obtain the silica-layered double hydroxide microspheres of formula (I).
A propulsion device for a ship , comprising: an input shaft connected to a driving source; a forward gear provided on the input shaft ; a reverse gear provided on the input shaft ; an output gear engaged with the forward gear and the reverse gear ; an output shaft configured to receive driving power transmitted from the output gear ; a forward and reverse switching clutch configured to transmit driving power from the input shaft to the forward gear or the reverse gear ; characterized in that a forward one-way clutch disposed between the input shaft and the forward gear , the forward one-way clutch connecting the forward gear and the input shaft to each other in a case where the forward gear is rotated at a higher speed than a speed at which the input shaft is rotated; and a reverse one-way clutch disposed between the input shaft and the reverse gear , the reverse one-way clutch connecting the reverse gear and the input shaft to each other in a case where the reverse gear is rotated at a higher speed than a speed at which the input shaft is rotated. an input shaft connected to a driving source; a forward gear provided on the input shaft ; a reverse gear provided on the input shaft ; an output gear engaged with the forward gear and the reverse gear ; an output shaft configured to receive driving power transmitted from the output gear ; a forward and reverse switching clutch configured to transmit driving power from the input shaft to the forward gear or the reverse gear ; characterized in that a forward one-way clutch disposed between the input shaft and the forward gear , the forward one-way clutch connecting the forward gear and the input shaft to each other in a case where the forward gear is rotated at a higher speed than a speed at which the input shaft is rotated; and a reverse one-way clutch disposed between the input shaft and the reverse gear , the reverse one-way clutch connecting the reverse gear and the input shaft to each other in a case where the reverse gear is rotated at a higher speed than a speed at which the input shaft is rotated.
A biometric feature attack object , comprising a substrate , wherein the substrate comprises a biometric feature attachment part, a conductive part , and an identity identifier , wherein the substrate comprises a biometric feature carrying area and a pressing area , and the biometric feature carrying area and the pressing area are respectively disposed on two opposite sides of the substrate , wherein the pressing area indicates an area which is to be pressed to perform a biometric recognition attack test; the biometric feature attachment part is disposed in the biometric feature carrying area ; the conductive part is disposed in the pressing area or the biometric feature carrying area ; and the identity identifier is located on a side of the substrate on which the pressing area is located, the identity identifier is located in an area different from the pressing area , and the identity identifier and the pressing area are used to determine a placement position of the biometric feature attack object . the substrate comprises a biometric feature carrying area and a pressing area , and the biometric feature carrying area and the pressing area are respectively disposed on two opposite sides of the substrate , wherein the pressing area indicates an area which is to be pressed to perform a biometric recognition attack test; the biometric feature attachment part is disposed in the biometric feature carrying area ; the conductive part is disposed in the pressing area or the biometric feature carrying area ; and the identity identifier is located on a side of the substrate on which the pressing area is located, the identity identifier is located in an area different from the pressing area , and the identity identifier and the pressing area are used to determine a placement position of the biometric feature attack object .
Sorting facility for piece goods with a number of destination points , comprising - a first channel element and a second channel element , which are each supported on an axis of rotation , and also - a tilt mechanism , which in its activated state brings about a tilting movement of the two channel elements about their respective axis of rotation , wherein the channel elements are able to be moved using the tilt mechanism between a number of positions in each case for sorting piece goods into one of the number of destination points ; characterised in that the first channel element forms a first channel , the second channel element forms a second channel and a first type of position of the channel elements is embodied in such a way that the first channel of the first channel element opens out into the second channel of the second channel element . - a first channel element and a second channel element , which are each supported on an axis of rotation , and also - a tilt mechanism , which in its activated state brings about a tilting movement of the two channel elements about their respective axis of rotation , wherein the channel elements are able to be moved using the tilt mechanism between a number of positions in each case for sorting piece goods into one of the number of destination points ; characterised in that the first channel element forms a first channel , the second channel element forms a second channel and a first type of position of the channel elements is embodied in such a way that the first channel of the first channel element opens out into the second channel of the second channel element . wherein the channel elements are able to be moved using the tilt mechanism between a number of positions in each case for sorting piece goods into one of the number of destination points ; characterised in that the first channel element forms a first channel , the second channel element forms a second channel and a first type of position of the channel elements is embodied in such a way that the first channel of the first channel element opens out into the second channel of the second channel element .
A detection apparatus arranged to locate defects within a flexible pipe at least partially surrounded by seawater, the detection apparatus comprising: a seawater electrode arranged to be in contact with seawater surrounding at least part of a flexible pipe and to move relative to the flexible pipe ; an impedance monitor arranged to measure , at two or more positions of the seawater electrode relative to the flexible pipe , the impedance between a metallic structural component of the flexible pipe extending at least partially along the length of the flexible pipe and the seawater electrode in response to an electrical test signal applied to the seawater electrode ; a processor arranged to determine , using the measured impedance, for each position of the seawater electrode relative to the flexible pipe , the distance from the seawater electrode to a pipe defect electrically connecting the metallic structural component to seawater; and to triangulate the location of the pipe defect using the determined distance for each position of the seawater electrode relative to the flexible pipe ; wherein the seawater electrode is arranged to be lowered through the seawater surrounding the flexible pipe or the seawater electrode can be coupled to a steering mechanism such that the location of the seawater electrode relative to the flexible pipe can be controlled. a seawater electrode arranged to be in contact with seawater surrounding at least part of a flexible pipe and to move relative to the flexible pipe ; an impedance monitor arranged to measure , at two or more positions of the seawater electrode relative to the flexible pipe , the impedance between a metallic structural component of the flexible pipe extending at least partially along the length of the flexible pipe and the seawater electrode in response to an electrical test signal applied to the seawater electrode ; a processor arranged to determine , using the measured impedance, for each position of the seawater electrode relative to the flexible pipe , the distance from the seawater electrode to a pipe defect electrically connecting the metallic structural component to seawater; and to triangulate the location of the pipe defect using the determined distance for each position of the seawater electrode relative to the flexible pipe ; wherein the seawater electrode is arranged to be lowered through the seawater surrounding the flexible pipe or the seawater electrode can be coupled to a steering mechanism such that the location of the seawater electrode relative to the flexible pipe can be controlled.
A mobile tester for VLF testing of a measurement object , especially a high-voltage or medium-voltage cable, comprising - means for generating an a.c. voltage, used as the test voltage, with rms amplitude greater than or equal to 1 kV and a frequency in the range between 0.01 and 1 Hz, - a terminal element for connection of the measurement object to be subjected to the test voltage and - means for measurement and evaluation of the test voltage present at the measurement object and of the test current caused hereby, wherein the tester is set up in a first mode of operation for autonomous performance of a VLF test with the test voltage generated by it, characterized in that the tester additionally has a communications interface for transmitting a synchronization signal (S) and/or for receiving an externally generated synchronization signal (S) and in that the tester is set up, in a second mode of operation, the parallel mode, to synchronize the generated test voltage as a function of the synchronization signal (S) with the test voltage generated by at least one further tester of the same type. - means for generating an a.c. voltage, used as the test voltage, with rms amplitude greater than or equal to 1 kV and a frequency in the range between 0.01 and 1 Hz, - a terminal element for connection of the measurement object to be subjected to the test voltage and - means for measurement and evaluation of the test voltage present at the measurement object and of the test current caused hereby,
Paper punch comprising a hollow drill as a punching tool and a drive for the hollow drill , wherein the hollow drill oscillates by activation of the drive, wherein two hingedly interconnected arms are provided, wherein the hollow drill is attached to the pivotable end of one arm and the pivotable end of the other, telescopic arm is arranged or can be arranged such that it can serve as an abutment for the hollow drill during punching.