mhurhangee/patent-ind-claim-en huggingface dataset:
A method of securing data, the method comprising: sensing multi-dimensional micro-motion of a body part of a first authorized user to generate a first multi-dimensional signal ; generating a first neuro-mechanical fingerprint in response to the first multi-dimensional signal and first user calibration parameters ; and encrypting data in a storage device with an encryption algorithm using the first neuro-mechanical fingerprint as an encryption key; and accessing the encrypted data in the storage device including sensing multi-dimensional micro-motion of the body part of the first authorized user to generate a second multi-dimensional signal; regenerating the first neuro-mechanical fingerprint as a first regenerated neuro-mechanical fingerprint in response to the second multi-dimensional signal ; determining a match percentage in response to the first regenerated neuro-mechanical fingerprint and the first user calibration parameters; and in response to the match percentage being greater than or equal to an access match level, decrypting data with the encryption algorithm using the first regenerated neuro-mechanical fingerprint representing the first encryption key. sensing multi-dimensional micro-motion of a body part of a first authorized user to generate a first multi-dimensional signal ; generating a first neuro-mechanical fingerprint in response to the first multi-dimensional signal and first user calibration parameters ; and encrypting data in a storage device with an encryption algorithm using the first neuro-mechanical fingerprint as an encryption key; and accessing the encrypted data in the storage device including sensing multi-dimensional micro-motion of the body part of the first authorized user to generate a second multi-dimensional signal; regenerating the first neuro-mechanical fingerprint as a first regenerated neuro-mechanical fingerprint in response to the second multi-dimensional signal ; determining a match percentage in response to the first regenerated neuro-mechanical fingerprint and the first user calibration parameters; and in response to the match percentage being greater than or equal to an access match level, decrypting data with the encryption algorithm using the first regenerated neuro-mechanical fingerprint representing the first encryption key. sensing multi-dimensional micro-motion of the body part of the first authorized user to generate a second multi-dimensional signal; regenerating the first neuro-mechanical fingerprint as a first regenerated neuro-mechanical fingerprint in response to the second multi-dimensional signal ; determining a match percentage in response to the first regenerated neuro-mechanical fingerprint and the first user calibration parameters; and in response to the match percentage being greater than or equal to an access match level, decrypting data with the encryption algorithm using the first regenerated neuro-mechanical fingerprint representing the first encryption key.
An immunoadhesin comprising: a first domain comprising a CTLA4 of SEQ ID NO:6 or a variant CTLA4 as compared to SEQ ID NO: 6, wherein said variant CTLA4 comprises at least one amino acid modification in a native CTLA4, wherein said modification is a substitution at CTLA4 position T51, wherein said variant provides enhanced binding to B7-1, B7-2, or both B7-1 and B7-2; and a second domain comprising an Fc variant region of a wild-type Fc polypeptide, said Fc variant comprising the amino acid substitutions in the Fc region of said wild-type Fc polypeptide of M428L and N434S, wherein numbering is according to the EU index as in Kabat. a first domain comprising a CTLA4 of SEQ ID NO:6 or a variant CTLA4 as compared to SEQ ID NO: 6, wherein said variant CTLA4 comprises at least one amino acid modification in a native CTLA4, wherein said modification is a substitution at CTLA4 position T51, wherein said variant provides enhanced binding to B7-1, B7-2, or both B7-1 and B7-2; and a second domain comprising an Fc variant region of a wild-type Fc polypeptide, said Fc variant comprising the amino acid substitutions in the Fc region of said wild-type Fc polypeptide of M428L and N434S, wherein numbering is according to the EU index as in Kabat.
A system for driving a wheelchair, the system comprising: a driving module for driving the wheelchair across a surface; a control module coupled to the driving module, wherein the control module is configured to be coupled to at least one wheelchair wheel and the control module is further configured to transmit an output to the driving module responsive to receiving an input generated by actuation of the at least one wheelchair wheel, wherein the driving module, responsive to receiving the output from the control module, is configured to drive the wheelchair across the surface, wherein the system is configured to be rolled in a first direction to enable the at least one wheel to be coupled to the control module. a driving module for driving the wheelchair across a surface; a control module coupled to the driving module, wherein the control module is configured to be coupled to at least one wheelchair wheel and the control module is further configured to transmit an output to the driving module responsive to receiving an input generated by actuation of the at least one wheelchair wheel, wherein the driving module, responsive to receiving the output from the control module, is configured to drive the wheelchair across the surface, wherein the system is configured to be rolled in a first direction to enable the at least one wheel to be coupled to the control module.
A sensor unit , configured to set a sampling frequency for output failure diagnosis data for detecting a failure of a device performing work while moving, wherein the sensor unit comprises: an acceleration sensor , configured to measure acceleration related to the moving; a frequency analyzing part , configured to perform a frequency analysis on acquired data from the acceleration sensor ; and the sensor unit characterised in that it comprises: a maximum frequency detecting part , configured to detect a maximum frequency (Fm) which is the highest frequency among at least one type of frequency having power not lower than a predetermined threshold from a result of the frequency analysis; and a failure diagnosis data generating part , configured to set a frequency twice or more of the maximum frequency (Fm) as a sampling frequency, sample the acquired data from the acceleration sensor , and generate the failure diagnosis data. an acceleration sensor , configured to measure acceleration related to the moving; a frequency analyzing part , configured to perform a frequency analysis on acquired data from the acceleration sensor ; and the sensor unit characterised in that it comprises: a maximum frequency detecting part , configured to detect a maximum frequency (Fm) which is the highest frequency among at least one type of frequency having power not lower than a predetermined threshold from a result of the frequency analysis; and a failure diagnosis data generating part , configured to set a frequency twice or more of the maximum frequency (Fm) as a sampling frequency, sample the acquired data from the acceleration sensor , and generate the failure diagnosis data. a maximum frequency detecting part , configured to detect a maximum frequency (Fm) which is the highest frequency among at least one type of frequency having power not lower than a predetermined threshold from a result of the frequency analysis; and a failure diagnosis data generating part , configured to set a frequency twice or more of the maximum frequency (Fm) as a sampling frequency, sample the acquired data from the acceleration sensor , and generate the failure diagnosis data.
A lighting apparatus comprising: a first LED module, comprising a first LED chip, a second LED chip, a first fluorescent layer, a second fluorescent layer and a package frame, wherein the first LED chip and the second LED chip are respectively disposed at a first area and a second area of the package frame, the first fluorescent layer covers the first area, the second fluorescent layer covers the second LED chip, the first fluorescent layer and the second fluorescent layer comprise different types of fluorescent materials; and a driver for generating a driving current supplied to the first LED module so that the first LED module emits a first light above the first area and a second light above the second area for generating a mixed light by the first light and the second light, wherein the lighting apparatus further comprises a red LED module for emitting a red light, a blue LED module for emitting a blue light and a green LED module for emitting a green light, wherein the driver is configured to control the red light, the blue light and the green light to mix with the mixed light for a required parameter, and wherein the lighting apparatus further comprises a white LED module for generating a white light with a white color temperature to be mixed with the mixed light for adjusting an overall color temperature. a first LED module, comprising a first LED chip, a second LED chip, a first fluorescent layer, a second fluorescent layer and a package frame, wherein the first LED chip and the second LED chip are respectively disposed at a first area and a second area of the package frame, the first fluorescent layer covers the first area, the second fluorescent layer covers the second LED chip, the first fluorescent layer and the second fluorescent layer comprise different types of fluorescent materials; and a driver for generating a driving current supplied to the first LED module so that the first LED module emits a first light above the first area and a second light above the second area for generating a mixed light by the first light and the second light, wherein the lighting apparatus further comprises a red LED module for emitting a red light, a blue LED module for emitting a blue light and a green LED module for emitting a green light, wherein the driver is configured to control the red light, the blue light and the green light to mix with the mixed light for a required parameter, and wherein the lighting apparatus further comprises a white LED module for generating a white light with a white color temperature to be mixed with the mixed light for adjusting an overall color temperature.
A method of estimating a rock physics model anisotropic parameter for a geological subsurface, the method comprising: determining, based on well-log data, a volume fraction of dry clay minerals present in the geological subsurface; determining, based on well-log data, a measured total porosity of the geological subsurface; determining a value for the anisotropic parameter using the volume fraction of dry clay minerals in the geological subsurface, the measured total porosity of the geological subsurface, and empirically derived constants. determining, based on well-log data, a volume fraction of dry clay minerals present in the geological subsurface; determining, based on well-log data, a measured total porosity of the geological subsurface; determining a value for the anisotropic parameter using the volume fraction of dry clay minerals in the geological subsurface, the measured total porosity of the geological subsurface, and empirically derived constants.
A pyrotechnic actuator, in particular for raising engine bonnets, having a substantially cylindrical housing in which a piston rod is displaceably guided, wherein the housing includes a first end region and a second end region , wherein a pyrotechnic ignition unit is provided in the first end region , and an opening for the piston rod is provided in the second end region ; wherein the piston rod further has an end region close to the igniter, and an end region remote from the igniter, wherein the end region remote from the igniter extends through the opening in the second end region of the housing ; wherein the inner diameter (D) of the housing between the both end regions thereof is greater than the outer diameter (d) of the piston rod between the both end regions thereof; wherein the piston rod includes an enlargement in the end region close to the igniter; and wherein the piston rod is tubular, wherein at least one of the ends thereof is closed, characterised in that the piston rod includes a fold on the side of the enlargement facing away from the ignition unit which fold has substantially two parallel surfaces and the outer diameter of which corresponds approximately to the inner diameter (D) of the housing between the both end regions thereof, and in that a sealing means, for example an O-ring , is arranged between the fold and the enlargement .
A pre-foam composition comprising: (i) 5 parts by weight to 20 parts by weight of A-B-A block copolymer based upon an entire weight of the composition, wherein each of the A blocks comprise styrenic repeat units, the B block is a random copolymer of ethylene and a first alpha-olefin, wherein the first alpha-olefin has 3 to 8 carbon atoms, and wherein the A-B-A block copolymer comprises 10% to 40% of the A blocks by weight based upon an entire weight of the A-B-A block copolymer; (ii) 5 parts by weight to 20 parts by weight of olefinic block copolymer based upon an entire weight of the composition, wherein the olefinic block copolymer is a copolymer of ethylene and a second alpha-olefin, wherein the second alpha-olefin has 6 to 12 carbon atoms, and wherein the olefinic block copolymer has one or more blocks rich in the ethylene and one or more blocks rich in the second alpha-olefin; and (iii) 15 parts by weight to 35 parts by weight of alpha-olefin linking polymer based upon an entire weight of the composition, wherein the alpha-olefin linking polymer is a copolymer of ethylene and a third alpha-olefin, wherein the third alpha-olefin has 3 to 18 carbon atoms, and wherein the alpha-olefin linking polymer has an alpha-olefin monomer content of 15% to 40% by weight based upon an entire weight of the alpha-olefin linking polymer, wherein the ratio of the parts per hundred resin (phr) of (a) styrenic copolymer component to phr of (b) unsaturated olefin component ranges from 0.17 to 0.30. (i) 5 parts by weight to 20 parts by weight of A-B-A block copolymer based upon an entire weight of the composition, wherein each of the A blocks comprise styrenic repeat units, the B block is a random copolymer of ethylene and a first alpha-olefin, wherein the first alpha-olefin has 3 to 8 carbon atoms, and wherein the A-B-A block copolymer comprises 10% to 40% of the A blocks by weight based upon an entire weight of the A-B-A block copolymer; (ii) 5 parts by weight to 20 parts by weight of olefinic block copolymer based upon an entire weight of the composition, wherein the olefinic block copolymer is a copolymer of ethylene and a second alpha-olefin, wherein the second alpha-olefin has 6 to 12 carbon atoms, and wherein the olefinic block copolymer has one or more blocks rich in the ethylene and one or more blocks rich in the second alpha-olefin; and (iii) 15 parts by weight to 35 parts by weight of alpha-olefin linking polymer based upon an entire weight of the composition, wherein the alpha-olefin linking polymer is a copolymer of ethylene and a third alpha-olefin, wherein the third alpha-olefin has 3 to 18 carbon atoms, and wherein the alpha-olefin linking polymer has an alpha-olefin monomer content of 15% to 40% by weight based upon an entire weight of the alpha-olefin linking polymer,
A system for detecting metal objects carried by an individual, comprising a metal detector comprising: - two panels defining a passageway, - at least three inductive transducers housed in the panels and arranged on either side of the passage , two of these transducers being placed in a first of the panels spaced apart longitudinally in a direction of movement in the passage , while the third transducer is arranged on the opposite side of the passage in a second of the panels , so that the at least three transducers in combination allow spatial discrimination of the location of at least one detected metal object (M1, M2, M3, M4), the detector system being characterised in that it further comprises : - three passage detection barriers configured to generate a detection signal when an individual passes through the metal detector and distributed longitudinally along the passage through the metal detector and - a central unit configured to analyse and use the signals from said passage detection barriers in the metal detector and the signals from the at least three transducers , determining the position of the individual in the metal detector relative to the transducers at the time when at least one transducer generates a metal object detection signal and deducing therefrom a position of the detected metal object (M1, M2, M3, M4) relative to the individual's body. - two panels defining a passageway, - at least three inductive transducers housed in the panels and arranged on either side of the passage , two of these transducers being placed in a first of the panels spaced apart longitudinally in a direction of movement in the passage , while the third transducer is arranged on the opposite side of the passage in a second of the panels , so that the at least three transducers in combination allow spatial discrimination of the location of at least one detected metal object (M1, M2, M3, M4), - three passage detection barriers configured to generate a detection signal when an individual passes through the metal detector and distributed longitudinally along the passage through the metal detector and - a central unit configured to analyse and use the signals from said passage detection barriers in the metal detector and the signals from the at least three transducers , determining the position of the individual in the metal detector relative to the transducers at the time when at least one transducer generates a metal object detection signal and deducing therefrom a position of the detected metal object (M1, M2, M3, M4) relative to the individual's body.
A method comprising: providing a plurality of precipitation zones from i=1 to N, wherein the precipitation zones are connected in series, each precipitation zone comprises a feed stream (a i ) providing the precipitation cations, a feed stream (b i ) providing the precipitation anions, a continuous outflow (c i ) of precipitation particle slurry to the next precipitation zone, and a continuous inflow (c i-1 ) of precipitation particle slurry from the prior precipitation zone, and forming, in the precipitation zones, precipitated particles, and finally to form, in the precipitation zone N, precursor particles comprised of N layers, wherein layer i of each particle is precipitated and formed in the precipitation zone i, and wherein N is not less than 3, and when i=1, there is no inflow (c i-1 ); the precursor particles are further separated and dried under vacuum, N 2 , Ar or air for 3-24 hours between 80-200 0 C to get dried precursor particles; the dried precursor particles are mixed with a lithium resource and calcined in an oxygen or air to form gradient multilayer core-shell cathode materials; the mixed precursor particles and lithium resource are calcined from 300-950 0 C, and multiple hold temperatures and ramp rates are used, at least one hold temperature from 300-500 0 C for 2-12 hours occurs before another heating from 700-950 0 C for 2-20 hours, the ramp rate during heating is from 0.5 to 10 degrees per minute providing a plurality of precipitation zones from i=1 to N, wherein the precipitation zones are connected in series, each precipitation zone comprises a feed stream (a i ) providing the precipitation cations, a feed stream (b i ) providing the precipitation anions, a continuous outflow (c i ) of precipitation particle slurry to the next precipitation zone, and a continuous inflow (c i-1 ) of precipitation particle slurry from the prior precipitation zone, and forming, in the precipitation zones, precipitated particles, and finally to form, in the precipitation zone N, precursor particles comprised of N layers, wherein layer i of each particle is precipitated and formed in the precipitation zone i, and wherein N is not less than 3, and when i=1, there is no inflow (c i-1 ); the precursor particles are further separated and dried under vacuum, N 2 , Ar or air for 3-24 hours between 80-200 0 C to get dried precursor particles; the dried precursor particles are mixed with a lithium resource and calcined in an oxygen or air to form gradient multilayer core-shell cathode materials; the mixed precursor particles and lithium resource are calcined from 300-950 0 C, and multiple hold temperatures and ramp rates are used, at least one hold temperature from 300-500 0 C for 2-12 hours occurs before another heating from 700-950 0 C for 2-20 hours, the ramp rate during heating is from 0.5 to 10 degrees per minute
A method for detecting mines in shallow water depth below the water surface, wherein shallow water depth is the area with a water depth of up to 50 metres, the method comprising the following steps: a) Flying over a suspected region with an aircraft , wherein the aircraft selected is an aircraft with at least one first optical detection device , b) Capturing an image series, wherein the image series comprises 3 to 100 individual images, wherein at least one pixel is captured with spectral resolution, c) Carrying out an interference factor analysis of the image series to eliminate surface effects, d) Perform a contrast adjustment of the individual images, e) Carrying out an image segmentation, f) Selection of image segments with a predefined size and shape, g) Identify the position of a potential mine , characterised in that the spectral information of the sunlight and the spectral information of the reflected light is recorded, the water depth being calculated from the spectral information between step d) and step e). a) Flying over a suspected region with an aircraft , wherein the aircraft selected is an aircraft with at least one first optical detection device , b) Capturing an image series, wherein the image series comprises 3 to 100 individual images, wherein at least one pixel is captured with spectral resolution, c) Carrying out an interference factor analysis of the image series to eliminate surface effects, d) Perform a contrast adjustment of the individual images, e) Carrying out an image segmentation, f) Selection of image segments with a predefined size and shape, g) Identify the position of a potential mine ,