mhurhangee/patent-ind-claim-en huggingface dataset:
An antifouling coating composition for use to make an antifouling coating film, the antifouling coating composition containing a solid content which is a constituent component of the antifouling coating film, the solid content containing a resin component (A) and a filler (B), the resin component (A) including a fluorine-containing copolymer (a1) with or without a silicon-containing copolymer (a2), the fluorine-containing copolymer (a1) including a fluorine-containing segment and an acrylic segment containing no fluorine or silicon, the silicon-containing copolymer (a2) including a silicon-containing segment and an acrylic segment containing no fluorine or silicon; the filler (B) having a mean particle size falling within a range from 10 nm to 200 nm, the mean particle size referring to either a volume-based particle size calculated based on the filler's (B) specific surface area measured by the BET method or an arithmetic mean of volume-based particle sizes calculated based on the filler's (B) particle size distribution measured by the dynamic light scattering method. the solid content containing a resin component (A) and a filler (B), the resin component (A) including a fluorine-containing copolymer (a1) with or without a silicon-containing copolymer (a2), the fluorine-containing copolymer (a1) including a fluorine-containing segment and an acrylic segment containing no fluorine or silicon, the silicon-containing copolymer (a2) including a silicon-containing segment and an acrylic segment containing no fluorine or silicon; the filler (B) having a mean particle size falling within a range from 10 nm to 200 nm, the mean particle size referring to either a volume-based particle size calculated based on the filler's (B) specific surface area measured by the BET method or an arithmetic mean of volume-based particle sizes calculated based on the filler's (B) particle size distribution measured by the dynamic light scattering method.
A method for determining colors of a dental object, comprising a color selection auxiliary body , to which at least one reference feature , preferably 4, for recognition of the color selection auxiliary body is attached, and wherein, with respect to the at least one reference feature , a plurality of color fields is arranged on the color selection auxiliary body , characterized in that by means of a camera app a camera is activated and an image recording is provided, and in that upon recognition, by means of image evaluation, of the at least one reference feature image recording is triggered automatically such that an image or an image sequence of the dental object is recorded photographically with a color selection auxiliary body adjacent to the dental object, and in that a color of the dental object is subsequently determined by means of the camera app based on the color selection auxiliary body and this image or this image sequence.
An assembly for active laminar flow control, comprising a panel comprising an outer skin , an inner skin and a plurality of plenums between the outer skin and the inner skin , each of the plurality of plenums fluidly coupled with a respective array of perforations through the outer skin , wherein the panel is constructed from fiber-reinforced composite material, the panel further comprises a plurality of corrugations arranged between the outer skin and the inner skin , and the plurality of corrugations form sidewalls of the plurality of plenums ; characterised in that : the panel further comprises a spacer ; a first of the plurality of corrugations is connected directly to one of the outer skin and the inner skin ; and a second of the plurality of corrugations is connected indirectly to the one of the outer skin and the inner skin through the spacer . the panel further comprises a spacer ; a first of the plurality of corrugations is connected directly to one of the outer skin and the inner skin ; and a second of the plurality of corrugations is connected indirectly to the one of the outer skin and the inner skin through the spacer .
Method for configuring a first node of a network using a first autonomous system number in at least one session established with another node of the network and in accordance with a dynamic routing protocol implemented in the network, said method comprising the following steps implemented by the first node: - a step (E10) of receiving a configuration message (CMD) comprising at least one item of information representative of at least one second autonomous system number intended to be used by the first node as a replacement for the first autonomous system number; - a step (E40) of configuring said first node with said at least one second autonomous system number; - a step (E50) of identifying at least one second node of the network having at least one session, in accordance with said dynamic routing protocol, active with the first node, in which the first node is associated with the first autonomous system number; and a step (E60) of sending, to said at least one second node, a control message (ACTION) requesting that said at least one second node replace said first autonomous system number associated with said first node with said at least one second autonomous system number such that, after said replacement, the first node is associated with a said second autonomous system number in said at least one active session. - a step (E10) of receiving a configuration message (CMD) comprising at least one item of information representative of at least one second autonomous system number intended to be used by the first node as a replacement for the first autonomous system number; - a step (E40) of configuring said first node with said at least one second autonomous system number; - a step (E50) of identifying at least one second node of the network having at least one session, in accordance with said dynamic routing protocol, active with the first node, in which the first node is associated with the first autonomous system number; and a step (E60) of sending, to said at least one second node, a control message (ACTION) requesting that said at least one second node replace said first autonomous system number associated with said first node with said at least one second autonomous system number such that, after said replacement, the first node is associated with a said second autonomous system number in said at least one active session.
A method for wireless communication, comprising: receiving, by a wireless device from a base station, a Radio Resource Control, RRC, signaling including an information element configuring a random access procedure, wherein the information element indicating a number of synchronization signal blocks per random access occasion and a number of preambles per synchronization signal block, and wherein the number of preambles per synchronization signal block summed over the number of synchronization signal blocks per random access occasion is less or equal to 64, wherein the number of synchronization signal blocks per random access occasion is denoted as S and the number of preambles per synchronization signal block is denoted as P, and wherein for a value of S < 4, P = 4×N and for the value of S≥ 4, P = N, wherein N is an integer in a range of 1 to 16; and transmitting a preamble from the wireless device to the base station on a random access resource selected based on the RRC signaling for the random access procedure, wherein the random access resource and a random access preamble index of the random access procedure are associated with a synchronization signal block that is selected by the wireless device. receiving, by a wireless device from a base station, a Radio Resource Control, RRC, signaling including an information element configuring a random access procedure, wherein the information element indicating a number of synchronization signal blocks per random access occasion and a number of preambles per synchronization signal block, and wherein the number of preambles per synchronization signal block summed over the number of synchronization signal blocks per random access occasion is less or equal to 64, wherein the number of synchronization signal blocks per random access occasion is denoted as S and the number of preambles per synchronization signal block is denoted as P, and wherein for a value of S < 4, P = 4×N and for the value of S≥ 4, P = N, wherein N is an integer in a range of 1 to 16; and transmitting a preamble from the wireless device to the base station on a random access resource selected based on the RRC signaling for the random access procedure, wherein the random access resource and a random access preamble index of the random access procedure are associated with a synchronization signal block that is selected by the wireless device.
A gas turbine engine rotor comprising a plurality of rotatable blade supporting disks (5...45) adapted for retention by longitudinal compressive interengagement with one another, and at least one disk comprising a medial web and an annular rim disposed at a radially outer portion of said web ; said annular rim having longitudinally extending annular shoulders including radially inner and outer annular surfaces thereon; said one disk further including an annular spacer extending longitudinally from said one disk proximal to the juncture of said web and said rim and being spaced radially inwardly from one of said rim shoulders for abutment at a free edge thereof with an adjacent disk for transmission of compressive preloading force and torque transmission between said one disk and said adjacent disk ; an airfoil blade cluster comprising a plurality of airfoil blades extending radially outwardly from a segmented annular base ; said radially inner surface of said one shoulder of said rim of said one disk and a radially outer surface of said spacer defining a first annular slot , said segmented annular blade cluster base being at least partially received in said first slot .
An infrastructure arrangement for a farm animal shed , said infrastructure arrangement comprising - a stationary position determination network having multiple optics-free position determination network points , - at least one autonomous shed vehicle , wherein the autonomous shed vehicle has o a drive and a charging interface for the drive , o an optics-free position determination apparatus , o a coupling apparatus for detachably securing various functional units, and o a control unit , - at least one charging station for charging the drive of the autonomous shed vehicle , - at least one fitting station for fitting the autonomous shed vehicle with various functional units and/or work materials, and - at least one data transmission unit , - wherein the control unit of the autonomous shed vehicle is designed to take information of the position determination apparatus and of the data transmission unit as a basis for generating a schedule for the autonomous shed vehicle , - wherein the infrastructure arrangement comprises at least one lock for arrangement between two or more farm animal residence areas , wherein the lock is designed for passage of the autonomous shed vehicle , and - the at least one lock comprises a transit obstacle for farm animals. - a stationary position determination network having multiple optics-free position determination network points , - at least one autonomous shed vehicle , wherein the autonomous shed vehicle has o a drive and a charging interface for the drive , o an optics-free position determination apparatus , o a coupling apparatus for detachably securing various functional units, and o a control unit , o a drive and a charging interface for the drive , o an optics-free position determination apparatus , o a coupling apparatus for detachably securing various functional units, and o a control unit , - at least one charging station for charging the drive of the autonomous shed vehicle , - at least one fitting station for fitting the autonomous shed vehicle with various functional units and/or work materials, and - at least one data transmission unit , - wherein the control unit of the autonomous shed vehicle is designed to take information of the position determination apparatus and of the data transmission unit as a basis for generating a schedule for the autonomous shed vehicle , - wherein the infrastructure arrangement comprises at least one lock for arrangement between two or more farm animal residence areas , wherein the lock is designed for passage of the autonomous shed vehicle , and - the at least one lock comprises a transit obstacle for farm animals.
An apparatus for orienting magnetic pigment flakes in a fluid carrier printed on a first side of a substrate in a linear printing process, the apparatus comprising: a rotating impression roller ; and a magnetic structure disposed in the impression roller proximate to a second side of the substrate; the magnetic structure comprising a first magnet creating a selected magnetic field configuration having magnetic field lines aligned in an arching pattern relative to a surface of the substrate to orient the magnetic pigment flakes along the magnetic field lines so that they are aligned in an arching pattern relative to the surface of the substrate to form a rolling bar image on the substrate, said rolling bar image comprising a contrasting bar across the image appearing between a first adjacent field and a second adjacent field, the contrasting bar appearing to move relative to the first adjacent field and the second adjacent field as the image is tilted. a rotating impression roller ; and a magnetic structure disposed in the impression roller proximate to a second side of the substrate; the magnetic structure comprising a first magnet creating a selected magnetic field configuration having magnetic field lines aligned in an arching pattern relative to a surface of the substrate to orient the magnetic pigment flakes along the magnetic field lines so that they are aligned in an arching pattern relative to the surface of the substrate to form a rolling bar image on the substrate, said rolling bar image comprising a contrasting bar across the image appearing between a first adjacent field and a second adjacent field, the contrasting bar appearing to move relative to the first adjacent field and the second adjacent field as the image is tilted.
A laser welding apparatus, comprising: a support member including a cylindrical heat generation portion which has a size that is limited to correspond to a size of a welding area of a plurality of plastic components and is made from a material that absorbs a laser beam and generates heat, and which generates heat of a temperature that is equal to or greater than a melting temperature of the plastic components ; a laser beam irradiation unit for converging a laser beam to be transmitted through the plurality of plastic components , and irradiating the laser beam toward the heat generation portion through the plurality of plastic components ; and a welding controller for causing a laser beam to be irradiated at the heat generation portion using the laser beam irradiation unit to thereby cause the heat generation portion to generate heat, and welding abutting faces of the welding area of the plurality of plastic components with heat that is generated, characterised in that respective faces of the heat generation portion other than a face to be irradiated of the heat generation portion are surrounded by a heat blocking portion made of a heat insulating material. a support member including a cylindrical heat generation portion which has a size that is limited to correspond to a size of a welding area of a plurality of plastic components and is made from a material that absorbs a laser beam and generates heat, and which generates heat of a temperature that is equal to or greater than a melting temperature of the plastic components ; a laser beam irradiation unit for converging a laser beam to be transmitted through the plurality of plastic components , and irradiating the laser beam toward the heat generation portion through the plurality of plastic components ; and a welding controller for causing a laser beam to be irradiated at the heat generation portion using the laser beam irradiation unit to thereby cause the heat generation portion to generate heat, and welding abutting faces of the welding area of the plurality of plastic components with heat that is generated, characterised in that respective faces of the heat generation portion other than a face to be irradiated of the heat generation portion are surrounded by a heat blocking portion made of a heat insulating material.
System, comprising: an insert coaxial thermal radiation image evaluating system and a metal additive manufacturing system, wherein the insert coaxial thermal radiation image evaluating system comprises: a cage support ; a first lens ; a first cage movable frame movably disposed at the cage support and connected to the first lens ; a light detector ; a second cage movable frame movably disposed at the cage support and connected to the light detector ; and a cage holder connected to the cage support to fix the cage support to an optical substrate , wherein the first cage movable frame is movably disposed in the cage holder ; wherein the metal additive manufacturing system comprises: a second lens , wherein a focal length (f1) of the first lens is less than or equal to a focal length (f2) of the second lens , wherein the first lens and the second lens together form a structure of conjugate foci, such that a thermal radiation generated from a high-power infrared laser irradiation zone forms according to a fixed ratio an image captured by the light detector . an insert coaxial thermal radiation image evaluating system and a metal additive manufacturing system, wherein the insert coaxial thermal radiation image evaluating system comprises: a cage support ; a first lens ; a first cage movable frame movably disposed at the cage support and connected to the first lens ; a light detector ; a second cage movable frame movably disposed at the cage support and connected to the light detector ; and a cage holder connected to the cage support to fix the cage support to an optical substrate , wherein the first cage movable frame is movably disposed in the cage holder ; a cage support ; a first lens ; a first cage movable frame movably disposed at the cage support and connected to the first lens ; a light detector ; a second cage movable frame movably disposed at the cage support and connected to the light detector ; and a cage holder connected to the cage support to fix the cage support to an optical substrate , wherein the first cage movable frame is movably disposed in the cage holder ; wherein the metal additive manufacturing system comprises: a second lens , wherein a focal length (f1) of the first lens is less than or equal to a focal length (f2) of the second lens , wherein the first lens and the second lens together form a structure of conjugate foci, such that a thermal radiation generated from a high-power infrared laser irradiation zone forms according to a fixed ratio an image captured by the light detector .
A rail vehicle comprising a bumper , characterized in that said bumper comprises PPS and in that it comprises a front portion comprising a projecting end line through which a vertical plane passes that is perpendicular to a rail plane R and a bumper extending for a height H between an upper horizontal end plane B1 passing through the highest point of the bumper and a lower horizontal end plane B2 passing through the lowest point of the bumper, and wherein said bumper 12 comprises at least an upper area extending for a height H1 and comprising a front surface comprised between a vertical plane and an inclined plane ; said vertical plane passing through an axis A passing from said projecting end, and in that said height H1 is equal to at least 30% of said height H of said bumper and in that the angle between said vertical plane and said inclined plane is less than 5°.
A wireless, battery-powered medical tool for use with an electromagnetic navigation system, the medical tool comprising: a receiving coil , disposed at the medical tool, configured to receive one or more magnetic fields emitted by one or more emitter coils and generate electrical signals indicative of a location of the medical tool in response to receiving the one or more magnetic fields; a wireless interface configured to wirelessly provide the electrical signals for processing to determine the location of the medical tool in three-dimensional, 3-D, space; a battery configured to supply power to the medical tool; and one or more charging coils electrically connected to the battery, each of the one or more charging coils disposed at the medical tool, each of the one or more charging coils configured to: (i) receive energy from the one or more magnetic fields; and (ii) supply the energy to the battery to charge the battery; characterised in that : each of the one or more charging coils disposed at the medical tool is wound around and on an outer surface thereof. a receiving coil , disposed at the medical tool, configured to receive one or more magnetic fields emitted by one or more emitter coils and generate electrical signals indicative of a location of the medical tool in response to receiving the one or more magnetic fields; a wireless interface configured to wirelessly provide the electrical signals for processing to determine the location of the medical tool in three-dimensional, 3-D, space; a battery configured to supply power to the medical tool; and one or more charging coils electrically connected to the battery, each of the one or more charging coils disposed at the medical tool, each of the one or more charging coils configured to: (i) receive energy from the one or more magnetic fields; and (ii) supply the energy to the battery to charge the battery; characterised in that : each of the one or more charging coils disposed at the medical tool is wound around and on an outer surface thereof.
High-vacuum chamber for the thermal processing of a workpiece by means of a laser beam , wherein a vacuum of 10 -3 mbar or lower can be generated in the high-vacuum chamber and wherein the high-vacuum chamber has at least one window through which the laser beam can be coupled in and the workpiece to be processed can be positioned in the high-vacuum chamber , wherein a protective device is arranged between the at least one window and the workpiece , characterised in that the protective device comprises a flat disc which is transparent to the wavelength of the laser beam and rotatable about its own axis, wherein the protective device is arranged within the high-vacuum chamber in such a way that the laser beam can be guided through the disc onto the workpiece , wherein the protective device further comprises a front plate arranged between the disc and the workpiece and having a through-hole , wherein the protective device is arranged within the high vacuum chamber in such a way that the laser beam can be guided through the disc and the through-hole of the front plate onto the workpiece , wherein the protective device further comprises a translation device which is arranged to be movable in an oscillating translational manner relative to the high vacuum chamber , wherein the disc is arranged to be movable in a rotational manner relative to the translation device and is connected to the translation device in such a way that the disc can be moved in an oscillating translational manner relative to the high vacuum chamber in addition to its rotational movement .