mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a mirror device comprising a structure including a base portion and a movable portion supported on the base portion, and a mirror layer provided to the movable portion, the method comprising: a first step of preparing a wafer having a support layer ; a device layer , and an intermediate layer disposed between the support layer and the device layer; a second step of forming a slit in the wafer such that the movable portion becomes movable with respect to the base portion by removing a part of each of the support layer, the device layer, and the intermediate layer from the wafer and forming a plurality of parts each corresponding to the structure in the wafer, after the first step; a third step of performing wet cleaning for cleaning the wafer using a cleaning liquid after the second step; and a fourth step of cutting out each of the plurality of parts from the wafer after the third step, wherein in the second step, a part of the intermediate layer is removed from the wafer by anisotropic etching. a first step of preparing a wafer having a support layer ; a device layer , and an intermediate layer disposed between the support layer and the device layer; a second step of forming a slit in the wafer such that the movable portion becomes movable with respect to the base portion by removing a part of each of the support layer, the device layer, and the intermediate layer from the wafer and forming a plurality of parts each corresponding to the structure in the wafer, after the first step; a third step of performing wet cleaning for cleaning the wafer using a cleaning liquid after the second step; and a fourth step of cutting out each of the plurality of parts from the wafer after the third step, wherein in the second step, a part of the intermediate layer is removed from the wafer by anisotropic etching.
A method performed by a base unit , of a base station system of a wireless communication network, the base station system further comprising a remote unit connected via a wired transmission line to the base unit , the remote unit being arranged for transmitting signals wirelessly to a wireless communication device , the method comprising: modulating received Media Access Control, MAC, data packets onto a plurality of sub-frequency bands of a frequency band of the transmission line, and transmitting , to the remote unit, the modulated MAC data packets over the transmission line, characterised in that , wherein a first group of the MAC data packets belong to a first data stream and a second group of the MAC data packets belong to a second data stream, and wherein the MAC data packets of the first data stream and the MAC data packets of the second data stream are transmitted to the remote unit time interlaced and/or frequency interlaced over the transmission line, wherein the frequency interlace of the MAC data packets of the first data stream with the MAC data packets of the second data stream signifies sending a part of the first group of packets on a first frequency sub-band followed by a part of the second group of packets on a second frequency sub-band higher in frequency than the first frequency sub-band, wherein the MAC data packets of the first data stream and the MAC data packets of the second data stream are interlaced in time according to the differences delay requirements, between the first and the second MAC data stream. modulating received Media Access Control, MAC, data packets onto a plurality of sub-frequency bands of a frequency band of the transmission line, and transmitting , to the remote unit, the modulated MAC data packets over the transmission line, characterised in that , wherein a first group of the MAC data packets belong to a first data stream and a second group of the MAC data packets belong to a second data stream, and wherein the MAC data packets of the first data stream and the MAC data packets of the second data stream are transmitted to the remote unit time interlaced and/or frequency interlaced over the transmission line, wherein the frequency interlace of the MAC data packets of the first data stream with the MAC data packets of the second data stream signifies sending a part of the first group of packets on a first frequency sub-band followed by a part of the second group of packets on a second frequency sub-band higher in frequency than the first frequency sub-band, wherein the MAC data packets of the first data stream and the MAC data packets of the second data stream are interlaced in time according to the differences delay requirements, between the first and the second MAC data stream.
Rotary feedthrough for feeding fluid to a pressure chamber which is arranged between a rotatable component and a component , fixed in a stationary manner, of a vehicle, comprising a seal support having at least one channel for fluidic connection to the pressure chamber , wherein at least two axially spaced-apart seal rings for the static sealing of the at least one channel are arranged on the seal support , wherein a first and a second seal element are arranged on a rotation prevention element which is connected rotationally conjointly to the seal support , wherein the first seal element is provided for the dynamic sealing of the pressure chamber , and wherein the second seal element is provided for the static sealing of the pressure chamber , characterized in that the second seal element is arranged axially between the first seal element and a radially formed shoulder on the rotation prevention element .
A method for producing a sol-gel ink to be processed by screen printing, comprising mixing a first hydrolysable silane R n SiX (4-n) and a further hydrolysable silane SiX 4 , wherein R is an aliphatic or aromatic radical and X is a hydrolytically cleavable group, a solvent having a boiling point above 120 °C, inorganic irregularly shaped particles as a filler to form a dispersion, and wherein the sol is adjusted to an ROR value which is a molar ratio of water to hydrolysable groups of less than 0.45; wherein initially a crosslinked sol-gel precursor is prepared using the first silane and the further silane and the inorganic particles, wherein volatile solvents arising during hydrolysis and condensation of the sol-gel precursor are removed, and wherein then the solvent having a boiling point above 120 °C is added, and wherein pigments are added.
A method of producing chlorine dioxide, comprising: feeding a first solution comprising an acid through a first feed line into a mixing device ; feeding a second solution comprising chlorite through a second feed line into the mixing device ; mixing the first solution and the second solution in the mixing device to form a reaction mixture, wherein the mixing device is in fluid communication with a reactor ; feeding the reaction mixture into the reactor ; reacting the acid and the chlorite in the reactor , wherein the reactor comprises a proximal portion in fluid communication with the mixing device and a distal portion in fluid communication with a motive water line , wherein the mixing device , the reactor , a portion of the first feed line , and a portion of the second feed line are positioned within the motive water line ; and mixing chlorine dioxide with motive water in the motive water line at the distal portion of the reactor , wherein the reactor comprises a coiled configuration having a coil plane angle of 1 degree to 60 degrees. feeding a first solution comprising an acid through a first feed line into a mixing device ; feeding a second solution comprising chlorite through a second feed line into the mixing device ; mixing the first solution and the second solution in the mixing device to form a reaction mixture, wherein the mixing device is in fluid communication with a reactor ; feeding the reaction mixture into the reactor ; reacting the acid and the chlorite in the reactor , wherein the reactor comprises a proximal portion in fluid communication with the mixing device and a distal portion in fluid communication with a motive water line , wherein the mixing device , the reactor , a portion of the first feed line , and a portion of the second feed line are positioned within the motive water line ; and mixing chlorine dioxide with motive water in the motive water line at the distal portion of the reactor , wherein the reactor comprises a coiled configuration having a coil plane angle of 1 degree to 60 degrees.
A polymer alloy (PA) comprising: - (a) a sulphur-containing aromatic polymer [aromatic polymer (A)]; and - (b) a mixture (M) of at least one uncrosslinked fluoroelastomer (E) with at least one oxide or hydroxide of divalent metal(MO). - (a) a sulphur-containing aromatic polymer [aromatic polymer (A)]; and - (b) a mixture (M) of at least one uncrosslinked fluoroelastomer (E) with at least one oxide or hydroxide of divalent metal(MO).
A container adapter for a bicycle luggage carrier comprising a luggage carrier platform b) comprising at least two latches comprising locking hooks provided on the adapter for b1) the connection of one of the two outmost longitudinal bracings of the luggage carrier with the adapter ; wherein in a locked condition of the adapter on the luggage carrier b1α) the locking hooks are tongued in the direction of the clamping of the adapter and the luggage carrier , b2) the spring(s) is/are at least partially arranged beneath the luggage carrier platform ; c) the latches , in the locked state, coming from beneath, reach under respectively one longitudinal bracing of a luggage carrier , d) the latches are mounted on at least one objective joint axis so as to be rotatable and comprise each a handle for actuating these latches , characterized in a) that the adapter comprises at least one one-piece or multi-piece traverse which spans the luggage carrier and b) that the latches can be pre-adjusted with respect to the spatial location thereof. b) comprising at least two latches comprising locking hooks provided on the adapter for b1) the connection of one of the two outmost longitudinal bracings of the luggage carrier with the adapter ; wherein in a locked condition of the adapter on the luggage carrier b1α) the locking hooks are tongued in the direction of the clamping of the adapter and the luggage carrier , b2) the spring(s) is/are at least partially arranged beneath the luggage carrier platform ; b1) the connection of one of the two outmost longitudinal bracings of the luggage carrier with the adapter ; wherein in a locked condition of the adapter on the luggage carrier b1α) the locking hooks are tongued in the direction of the clamping of the adapter and the luggage carrier , b2) the spring(s) is/are at least partially arranged beneath the luggage carrier platform ; c) the latches , in the locked state, coming from beneath, reach under respectively one longitudinal bracing of a luggage carrier , d) the latches are mounted on at least one objective joint axis so as to be rotatable and comprise each a handle for actuating these latches , a) that the adapter comprises at least one one-piece or multi-piece traverse which spans the luggage carrier and b) that the latches can be pre-adjusted with respect to the spatial location thereof.
A method for receiving data packets at a host system (120; 210; 220; 230), the method comprising: intercepting (302; 502; 702) a data packet, at a data link layer, that is being sent to an input/output (I/O) port of the host system using a hardware device (122; 212; 222; 232) that is externally coupled to the host system or internally coupled to the host system between a hardware network interface and the input/output port of the host system; decrypting , by the hardware device, the data packet at the data link layer using a common key derived from a public key and a private key; after decrypting the data packet, reading (304; 505; 705), using the hardware device, at least one parameter from the data packet; determining (306; 506; 706), by the hardware device using instructions written in memory of the hardware device, whether the at least one parameter meets an authentication criteria, wherein the host system is unable to write to the memory of the hardware device; in response to determining that the at least one parameter does not meet an authentication criteria, not forwarding (310; 510; 710), by the hardware device, the data packet to the input/output port of the host system; and in response to determining that the at least one parameter meets an authentication criteria, forwarding (308; 512; 712), by the hardware device, the data packet to the input/output port of the host system. intercepting (302; 502; 702) a data packet, at a data link layer, that is being sent to an input/output (I/O) port of the host system using a hardware device (122; 212; 222; 232) that is externally coupled to the host system or internally coupled to the host system between a hardware network interface and the input/output port of the host system; decrypting , by the hardware device, the data packet at the data link layer using a common key derived from a public key and a private key; after decrypting the data packet, reading (304; 505; 705), using the hardware device, at least one parameter from the data packet; determining (306; 506; 706), by the hardware device using instructions written in memory of the hardware device, whether the at least one parameter meets an authentication criteria, wherein the host system is unable to write to the memory of the hardware device; in response to determining that the at least one parameter does not meet an authentication criteria, not forwarding (310; 510; 710), by the hardware device, the data packet to the input/output port of the host system; and in response to determining that the at least one parameter meets an authentication criteria, forwarding (308; 512; 712), by the hardware device, the data packet to the input/output port of the host system.
A method comprising: determining , at a computing device , a call security level of a call occurring at a first communication infrastructure (103-1); the first communication infrastructure (103-1) being associated with a first security level; the call security level being determined from audio on the call; and in response to determining that the call security level and the first security level are misaligned , causing , via the computing device , the call to change to a second communication infrastructure (103-2) associated with a second security level aligned with the call security level. determining , at a computing device , a call security level of a call occurring at a first communication infrastructure (103-1); the first communication infrastructure (103-1) being associated with a first security level; the call security level being determined from audio on the call; and in response to determining that the call security level and the first security level are misaligned , causing , via the computing device , the call to change to a second communication infrastructure (103-2) associated with a second security level aligned with the call security level.
A patch comprising a backing, and an adhesive layer on the backing, wherein: the adhesive layer contains at least one drug selected from the group consisting of oxybutynin and a pharmaceutically acceptable salt thereof, a pressure-sensitive adhesive base, and diflucortolone valerate, and the content of the diflucortolone valerate is 0.0007 to 0.05% by mass based on the total mass of the adhesive layer. the adhesive layer contains at least one drug selected from the group consisting of oxybutynin and a pharmaceutically acceptable salt thereof, a pressure-sensitive adhesive base, and diflucortolone valerate, and the content of the diflucortolone valerate is 0.0007 to 0.05% by mass based on the total mass of the adhesive layer.
Use of a particulate solid carrier to enhance the efficacy of an agrochemical compound, loaded onto said carrier, in an aqueous formulation; characterized in that the particulate solid carrier comprises a surface-reacted calcium carbonate-containing mineral carbonate, wherein the agrochemical compound is selected from fungicides, herbicides, and mixtures thereof, and wherein the surface-reacted calcium carbonate-containing mineral is a reaction product obtainable by contacting a calcium carbonate-containing mineral in an aqueous medium with carbon dioxide and with at least one water soluble acid, wherein the carbon dioxide is formed in situ and/or is supplied from an external source, wherein the at least one water soluble acid is phosphoric acid. characterized in that the particulate solid carrier comprises a surface-reacted calcium carbonate-containing mineral carbonate, wherein the agrochemical compound is selected from fungicides, herbicides, and mixtures thereof, and wherein the surface-reacted calcium carbonate-containing mineral is a reaction product obtainable by contacting a calcium carbonate-containing mineral in an aqueous medium with carbon dioxide and with at least one water soluble acid, wherein the carbon dioxide is formed in situ and/or is supplied from an external source, wherein the at least one water soluble acid is phosphoric acid.
A method for transmitting, by a base station , a signal in a wireless communication system , comprising: precoding a signal using a matrix for precoding; mapping the precoded signal to resource elements; and transmitting the mapped signal to a user equipment , UE, wherein the matrix for precoding is calculated on a basis of a matrix H for horizontal antennas of the base station and a matrix V for vertical antennas of the base station , wherein the matrices H, V for the horizontal antennas and the vertical antennas respectively have cyclic delay values, wherein the matrix H for the horizontal antennas is obtained by sequentially multiplying matrices W H (i), D H (i) and U and the matrix V for the vertical antennas is obtained by sequentially multiplying matrices W V (i), D V (i) and U, wherein the matrices W H (i), D H (i), W V ( i ) and D V (i) respectively have period values P WH , P vH , P WV and P vV and are cycled according to the respective period values, wherein i is an index being a natural number, and wherein the period values are set on a basis of variations in channels generated by the horizontal antennas and the vertical antennas of the base station . precoding a signal using a matrix for precoding; mapping the precoded signal to resource elements; and transmitting the mapped signal to a user equipment , UE, wherein the matrix for precoding is calculated on a basis of a matrix H for horizontal antennas of the base station and a matrix V for vertical antennas of the base station , wherein the matrices H, V for the horizontal antennas and the vertical antennas respectively have cyclic delay values, wherein the matrix H for the horizontal antennas is obtained by sequentially multiplying matrices W H (i), D H (i) and U and the matrix V for the vertical antennas is obtained by sequentially multiplying matrices W V (i), D V (i) and U, wherein the matrices W H (i), D H (i), W V ( i ) and D V (i) respectively have period values P WH , P vH , P WV and P vV and are cycled according to the respective period values, wherein i is an index being a natural number, and wherein the period values are set on a basis of variations in channels generated by the horizontal antennas and the vertical antennas of the base station .
An autonomous inspection system comprising: at least one autonomous mobile robot , the robot having a plurality of two-dimensional LiDAR scanners , each scanner having a two-dimensional scanning plane, the plurality of scanners being mounted on the autonomous mobile robot with scanning plane orientations which are non-coplanar; a machine-readable storage system containing data on aerostructures to be inspected; and a processor to control navigation movement and scanning by the autonomous mobile robot, the processor comprising: an input to receive point data from the plurality of LiDAR scanners; and an output to provide inspection data; the processor being configured to: compile the point data from the plurality of LiDAR scanners into a three-dimensional plot of the surrounding of the autonomous mobile robot; identify the dimensions and profile of aerostructures within the three-dimensional plot; navigate the autonomous mobile robot, using the identified dimensions and profile, around the aerostructures to be inspected; and compare the identified dimensions and/or profile to the data on aerostructures to be inspected contained by the machine-readable storage system, to identify defects and/or shape non-conformity in the aerostructures. at least one autonomous mobile robot , the robot having a plurality of two-dimensional LiDAR scanners , each scanner having a two-dimensional scanning plane, the plurality of scanners being mounted on the autonomous mobile robot with scanning plane orientations which are non-coplanar; a machine-readable storage system containing data on aerostructures to be inspected; and a processor to control navigation movement and scanning by the autonomous mobile robot, the processor comprising: an input to receive point data from the plurality of LiDAR scanners; and an output to provide inspection data; an input to receive point data from the plurality of LiDAR scanners; and an output to provide inspection data; the processor being configured to: compile the point data from the plurality of LiDAR scanners into a three-dimensional plot of the surrounding of the autonomous mobile robot; identify the dimensions and profile of aerostructures within the three-dimensional plot; navigate the autonomous mobile robot, using the identified dimensions and profile, around the aerostructures to be inspected; and compare the identified dimensions and/or profile to the data on aerostructures to be inspected contained by the machine-readable storage system, to identify defects and/or shape non-conformity in the aerostructures. compile the point data from the plurality of LiDAR scanners into a three-dimensional plot of the surrounding of the autonomous mobile robot; identify the dimensions and profile of aerostructures within the three-dimensional plot; navigate the autonomous mobile robot, using the identified dimensions and profile, around the aerostructures to be inspected; and compare the identified dimensions and/or profile to the data on aerostructures to be inspected contained by the machine-readable storage system, to identify defects and/or shape non-conformity in the aerostructures.
A flow deflector for use in a filling device for filling a receptacle, comprising: a swirl body defining a first passage having a helical extension for a filling fluid, said first passage consisting of coils that impose a vortex movement on the filling fluid, characterized in that in said swirl body a second passage is obtained for a gas to be evacuated, said second passage being coaxial with the first passage and having an at least partially helical extension. a swirl body defining a first passage having a helical extension for a filling fluid, said first passage consisting of coils that impose a vortex movement on the filling fluid, characterized in that in said swirl body a second passage is obtained for a gas to be evacuated, said second passage being coaxial with the first passage and having an at least partially helical extension.
A topical composition comprising a tetracycline-class drug, a magnesium salt, a monohydric aliphatic alcohol and a polyol having from 3-8 carbon atoms, wherein (i) the ratio between the monohydric aliphatic alcohol and the polyol is in a range of 1:1 to 99:1 by weight, and (ii) the tetracycline-class drug is dissolved in the topical composition; wherein the composition is non-aqueous having less than 5% by weight water content.