mhurhangee/patent-ind-claim-en huggingface dataset:
A system for secure data handling, the system comprising: at least one data gate , authentication data of users accessing the at least one data gate , at least one original file comprising content data and/or meta data, at least one virtual file comprising at least parts of the meta data, and at least one data storage wherein the at least one data gate is configured to generate and/or store the at least one virtual file on the basis of the at least one original file , wherein the at least one data gate is further configured to generate at least one encrypted file on the basis of the at least one original file using at least parts of the authentication data as key, wherein the at least one data gate is further configured to store the at least one encrypted file in predefined restricted regions with respect to the at least one data storage , wherein access is forbidden between the predefined restricted regions and the at least one data storage , wherein access is accepted between an allowed region and the at least one data storage , wherein the at least one data storage is configured to manage handling of the at least one virtual file in workflows, wherein the at least one virtual file is stored on the at least one data storage , and wherein whereas between the allowed region and a cloud environment a workflow is accepted, the respective workflow between the cloud environment and the predefined restricted regions is also accepted. at least one data gate , authentication data of users accessing the at least one data gate , at least one original file comprising content data and/or meta data, at least one virtual file comprising at least parts of the meta data, and at least one data storage wherein access is forbidden between the predefined restricted regions and the at least one data storage , wherein access is accepted between an allowed region and the at least one data storage , wherein the at least one data storage is configured to manage handling of the at least one virtual file in workflows, wherein the at least one virtual file is stored on the at least one data storage , and wherein whereas between the allowed region and a cloud environment a workflow is accepted, the respective workflow between the cloud environment and the predefined restricted regions is also accepted.
In a computer architecture , a method for using visual landmarks to organize a diagram , the method comprising: an act of presenting one or more visual elements representing a diagram ; an act of presenting a visual landmark along with the one or more visual elements within the diagram , the visual landmark configured with one or more properties that are to be applied to associated visual elements to position the associated visual elements relative to the visual landmark ; an act of receiving input selecting one of the one or more visual elements for placement in the diagram ; an act of providing visual feedback indicating that the one of the one or more visual elements has been selected; an act of receiving further input indicating that the selected visual element is to be associated with the visual landmark , comprising receiving user input moving the selected visual element to intersect with the visual landmark, and receiving further user input releasing the selected visual element while the selected visual element intersects with the visual landmark; an act of automatically positioning the selected visual element relative to the visual landmark in accordance with the one or more corresponding properties of the visual landmark to organize the selected visual element within the diagram in response to receiving the further input ; and an act of presenting the updated arrangement of the one or more visual elements to reflect the organization of the selected visual element within the diagram . an act of presenting one or more visual elements representing a diagram ; an act of presenting a visual landmark along with the one or more visual elements within the diagram , the visual landmark configured with one or more properties that are to be applied to associated visual elements to position the associated visual elements relative to the visual landmark ; an act of receiving input selecting one of the one or more visual elements for placement in the diagram ; an act of providing visual feedback indicating that the one of the one or more visual elements has been selected; an act of receiving further input indicating that the selected visual element is to be associated with the visual landmark , comprising receiving user input moving the selected visual element to intersect with the visual landmark, and receiving further user input releasing the selected visual element while the selected visual element intersects with the visual landmark; an act of automatically positioning the selected visual element relative to the visual landmark in accordance with the one or more corresponding properties of the visual landmark to organize the selected visual element within the diagram in response to receiving the further input ; and an act of presenting the updated arrangement of the one or more visual elements to reflect the organization of the selected visual element within the diagram .
A corrosion inhibitor composition comprising a corrosion inhibitor selected from the group consisting of: and any combination thereof.
A signal processing arrangement for a transmitter , the signal processing arrangement comprising: an in-phase modulator configured to receive an in-phase signal (I) and configured to modulate the in-phase signal (I); a quadrature modulator configured to receive a quadrature signal (Q) and configured to modulate the quadrature signal (Q); an in-phase demodulator configured to demodulate the modulated in-phase signal (I) and to output a demodulated in-phase signal (I); a quadrature demodulator configured to demodulate the modulated quadrature signal (Q) and to output a demodulated quadrature signal (Q); an in-phase harmonic filter configured to perform a filtering on harmonics in the demodulated in-phase signal (I) and to output an in-phase digital signal (I); a quadrature harmonic filter configured to perform a filtering on harmonics in the demodulated quadrature signal (Q) and to output a quadrature digital signal (Q). an in-phase modulator configured to receive an in-phase signal (I) and configured to modulate the in-phase signal (I); a quadrature modulator configured to receive a quadrature signal (Q) and configured to modulate the quadrature signal (Q); an in-phase demodulator configured to demodulate the modulated in-phase signal (I) and to output a demodulated in-phase signal (I); a quadrature demodulator configured to demodulate the modulated quadrature signal (Q) and to output a demodulated quadrature signal (Q); an in-phase harmonic filter configured to perform a filtering on harmonics in the demodulated in-phase signal (I) and to output an in-phase digital signal (I); a quadrature harmonic filter configured to perform a filtering on harmonics in the demodulated quadrature signal (Q) and to output a quadrature digital signal (Q).
A method for wiring an aircraft, the method comprising: installing a plurality of equipment in a plurality of volumes, wherein the volumes are defined by one or more of structural members and walls of the aircraft ; installing a backplane that extends across at least a portion of the plurality of volumes, wherein the backplane comprises a plurality of connectors ; connecting the plurality of equipment to a first plurality of the connectors on the backplane ; and connecting shipside wiring to a second plurality of connectors on the backplane , wherein installing a backplane within the aircraft comprises installing the backplane across a plurality of frame bays of the aircraft . installing a plurality of equipment in a plurality of volumes, wherein the volumes are defined by one or more of structural members and walls of the aircraft ; installing a backplane that extends across at least a portion of the plurality of volumes, wherein the backplane comprises a plurality of connectors ; connecting the plurality of equipment to a first plurality of the connectors on the backplane ; and connecting shipside wiring to a second plurality of connectors on the backplane , wherein installing a backplane within the aircraft comprises installing the backplane across a plurality of frame bays of the aircraft .
A method for manufacturing a housing , the housing being used in a mobile terminal, and the housing being a metal housing and comprising a metal portion ; the housing comprises a first surface and a second surface opposite to the first surface ; the method comprising: roughening (S101) the first surface of the housing ; wherein when the housing is mounted on the mobile terminal, the first surface is an inner surface facing towards an inner cavity of the mobile terminal, and the second surface is an outer surface facing away from the inner cavity of the mobile terminal; placing (S102) the housing into a mold and performing an injection molding to form a plastic layer on the first surface and closely bonded to the housing ; and defining (S103) a plurality of slots by cutting through the housing by means of milling without milling a part or all of the plastic layer , wherein the plastic layer is configured to keep the metal portion between adjacent slots defined in the housing undeformed during the milling; characterized in that , the method further comprises: polishing the housing and removing the plastic layer disposed on the first surface during the polishing process, and forming a decoration layer on the second surface by sandblasting and anodizing the housing after the polishing process. roughening (S101) the first surface of the housing ; wherein when the housing is mounted on the mobile terminal, the first surface is an inner surface facing towards an inner cavity of the mobile terminal, and the second surface is an outer surface facing away from the inner cavity of the mobile terminal; placing (S102) the housing into a mold and performing an injection molding to form a plastic layer on the first surface and closely bonded to the housing ; and defining (S103) a plurality of slots by cutting through the housing by means of milling without milling a part or all of the plastic layer , wherein the plastic layer is configured to keep the metal portion between adjacent slots defined in the housing undeformed during the milling; characterized in that , the method further comprises: polishing the housing and removing the plastic layer disposed on the first surface during the polishing process, and forming a decoration layer on the second surface by sandblasting and anodizing the housing after the polishing process.
A landing gear arrangement , comprising: a lever configured to be coupled between an axle and a strut piston of a shock strut ; a load damper configured to be externally coupled between the shock strut and the lever , wherein the load damper is configured to increase a length of the landing gear arrangement in response to an extension force of the load damper increasing above a ground force reacted through the landing gear arrangement and characterized by further comprising a first link configured to be rotatably coupled to a second link , wherein the first link is configured to be coupled to the load damper and the second link is configured to be coupled to the lever. a lever configured to be coupled between an axle and a strut piston of a shock strut ; a load damper configured to be externally coupled between the shock strut and the lever , wherein the load damper is configured to increase a length of the landing gear arrangement in response to an extension force of the load damper increasing above a ground force reacted through the landing gear arrangement and characterized by further comprising a first link configured to be rotatably coupled to a second link , wherein the first link is configured to be coupled to the load damper and the second link is configured to be coupled to the lever.
Method for improving the EMC robustness of Integrated Capacitive Sensor systems with a sensor Signal-Conditioner, having an external capacitor (a) representing the physical quantity to be sensed, connected with a capacitive integrating converter (b) to convert this capacity into a bit stream and an oscillator (g) providing sampling frequency for the capacitive integrating converter and a counter (d) connected with the capacitive integrating converter, whereby a controller (e) is connected with the counter which collects the bit stream and calculates the digital representative of the physical input which is then stored in an output register, comprising the steps of - performing conversions with different sampling frequencies (f A , f B ) from the oscillator or a frequency divider (c) by the capacitive Sensor Signal-Conditioner; - storing the results of the samplings and using the results in the following cycle to calculate for each sampling frequency a difference to the prior sampling of the same frequency; and - calculating the digital representative of the input signal from the external sensing capacitor as the weighted average of the samplings of the different frequencies, wherein for each sampling frequency the difference of the last two subsequent measurements minus a minimum of the differences is used for calculating the digital representative of the input signal. - performing conversions with different sampling frequencies (f A , f B ) from the oscillator or a frequency divider (c) by the capacitive Sensor Signal-Conditioner; - storing the results of the samplings and using the results in the following cycle to calculate for each sampling frequency a difference to the prior sampling of the same frequency; and - calculating the digital representative of the input signal from the external sensing capacitor as the weighted average of the samplings of the different frequencies, wherein for each sampling frequency the difference of the last two subsequent measurements minus a minimum of the differences is used for calculating the digital representative of the input signal.
A fuel tank arrangement in a liquid hydrogen fuel supply system for storing and providing hydrogen for a gas consumer , the system comprising: - an inlet line for providing fuel into a tank , - the inlet line having a first valve in the first end and a second valve in the tank end, - the inlet line is provided with an inert gas flush media line , the first end of which is connected to the inlet line downstream of the first valve , and a second end of which is controllably connected to a source of inert gas for performing an inert gas flushing of the inlet line , characterized in that the system further comprises: - the inlet line being provided with a fuel gas flush media line , the first end of which is controllably connected to the inlet line downstream of the first valve , and a second end of which is connected to a source of gaseous hydrogen , for feeding gaseous hydrogen to the inlet line for performing a first flushing of the inlet line . - an inlet line for providing fuel into a tank , - the inlet line having a first valve in the first end and a second valve in the tank end, - the inlet line is provided with an inert gas flush media line , the first end of which is connected to the inlet line downstream of the first valve , and a second end of which is controllably connected to a source of inert gas for performing an inert gas flushing of the inlet line , characterized in that the system further comprises: - the inlet line being provided with a fuel gas flush media line , the first end of which is controllably connected to the inlet line downstream of the first valve , - the inlet line being provided with a fuel gas flush media line , the first end of which is controllably connected to the inlet line downstream of the first valve , and a second end of which is connected to a source of gaseous hydrogen , for feeding gaseous hydrogen to the inlet line for performing a first flushing of the inlet line .
Method for a positionally fixed connection of at least one tubular element on a support plate by means of at least one thread-like connecting element via predefined openings of the support plate , - in which the at least one tubular element is arranged in predefined tube holding tracks of a winding plate designed as an assembly aid, - in which a support plate with predefined openings is placed onto the tubular elements of the winding plate located in the tube holding tracks and is held by the winding plate in an indexed position relative to the winding plate , wherein in the indexed position, corresponding recesses are provided in the winding plate below the predefined openings of the support plate , - in which the tubular elements are connected by machine to the support plate by means of the at least one thread-like connecting element via the predefined openings . - in which the at least one tubular element is arranged in predefined tube holding tracks of a winding plate designed as an assembly aid, - in which a support plate with predefined openings is placed onto the tubular elements of the winding plate located in the tube holding tracks and is held by the winding plate in an indexed position relative to the winding plate , wherein in the indexed position, corresponding recesses are provided in the winding plate below the predefined openings of the support plate , - in which the tubular elements are connected by machine to the support plate by means of the at least one thread-like connecting element via the predefined openings .
A wearable neuromodulation device , comprising: at least one stimulator configured to output a sensory stimulus to a user of the wearable neuromodulation device in accordance with stimulation parameters; a communications interface configured to communicate with a computing device to receive a neuromodulation protocol, wherein the neuromodulation protocol includes the stimulation parameters; at least one storage device configured to store the neuromodulation protocol received via the communications interface; and controller circuitry configured to: transmit the stimulation parameters to the at least one stimulator in accordance with the neuromodulation protocol to provide neuromodulation of one or more brain regions in one or more brain networks; and adjust, during operation of the wearable neuromodulation device , the stimulation parameters transmitted to the at least one stimulator based, at least in part, on input data indicating an effect of the neuromodulation; characterized in that the sensory stimulus is a bandwidth-limited sensory stimulus presented through one or more sensory pathways selected from auditory, visual, and somatosensory. at least one stimulator configured to output a sensory stimulus to a user of the wearable neuromodulation device in accordance with stimulation parameters; a communications interface configured to communicate with a computing device to receive a neuromodulation protocol, wherein the neuromodulation protocol includes the stimulation parameters; at least one storage device configured to store the neuromodulation protocol received via the communications interface; and controller circuitry configured to: transmit the stimulation parameters to the at least one stimulator in accordance with the neuromodulation protocol to provide neuromodulation of one or more brain regions in one or more brain networks; and adjust, during operation of the wearable neuromodulation device , the stimulation parameters transmitted to the at least one stimulator based, transmit the stimulation parameters to the at least one stimulator in accordance with the neuromodulation protocol to provide neuromodulation of one or more brain regions in one or more brain networks; and adjust, during operation of the wearable neuromodulation device , the stimulation parameters transmitted to the at least one stimulator based, at least in part, on input data indicating an effect of the neuromodulation; characterized in that the sensory stimulus is a bandwidth-limited sensory stimulus presented through one or more sensory pathways selected from auditory, visual, and somatosensory.
An identity registration method, comprising: obtaining description information submitted by a user for a secure application to be installed, wherein the secure application is a program used to obtain trusted data, wherein the description information comprises at least one of a name, a type, a version number, function information, or digest information of the secure application; retrieving installation package data corresponding to the secure application based on the description information; and installing the secure application in a trusted execution environment based on the installation package data, wherein the method is characterized by , after installing the secure application, adding the description information of the secure application to a digital identity document of the user in a blockchain network. obtaining description information submitted by a user for a secure application to be installed, wherein the secure application is a program used to obtain trusted data, wherein the description information comprises at least one of a name, a type, a version number, function information, or digest information of the secure application; retrieving installation package data corresponding to the secure application based on the description information; and installing the secure application in a trusted execution environment based on the installation package data, wherein the method is characterized by , after installing the secure application, adding the description information of the secure application to a digital identity document of the user in a blockchain network.
A biopsy system , comprising: (a) a biopsy device , the biopsy device including: (i) a body, (ii) a needle extending distally from the body, wherein the needle includes a lateral aperture, and (iii) a cutter, wherein the cutter is movable relative to the lateral aperture of the needle to sever a tissue sample; (b) a control module , wherein the control module is operable to control at least one functional feature of the biopsy device ; (c) an input assembly remotely located from and in communication with the 20 control module , wherein the input assembly includes a cable port; (d) a rotary drive cable, wherein the rotary drive cable is configured to be connected between the biopsy device and the input assembly cable port, the rotary drive cable actuating the cutter for cutting the tissue sample; and (e) a control cable coupled to the control module and the input 25 assembly, wherein the input assembly is separated from the control module by a length defined by the control cable, characterised in that the length defined by the control cable is sufficient to permit the input assembly to be located within an MRI imaging suite while the control module is located outside of the MRI imaging suite. (a) a biopsy device , the biopsy device including: (i) a body, (ii) a needle extending distally from the body, wherein the needle includes a lateral aperture, and (iii) a cutter, wherein the cutter is movable relative to the lateral aperture of the needle to sever a tissue sample; (i) a body, (ii) a needle extending distally from the body, wherein the needle includes a lateral aperture, and (iii) a cutter, wherein the cutter is movable relative to the lateral aperture of the needle to sever a tissue sample; (b) a control module , wherein the control module is operable to control at least one functional feature of the biopsy device ; (c) an input assembly remotely located from and in communication with the 20 control module , wherein the input assembly includes a cable port; (d) a rotary drive cable, wherein the rotary drive cable is configured to be connected between the biopsy device and the input assembly cable port, the rotary drive cable actuating the cutter for cutting the tissue sample; and (e) a control cable coupled to the control module and the input 25 assembly, wherein the input assembly is separated from the control module by a length defined by the control cable,