mhurhangee/patent-ind-claim-en huggingface dataset:
A system in which the performance of a fluorometer is monitored in a dynamic environment, the system comprising: the fluorometer, wherein the fluorometer comprises two or more channels , each channel having a separate light source , optical focus and filter assembly , and optical signal detector , and wherein each channel is configured to focus the light from its respective light source at a detection zone; a support comprising two or more fluorescent reference standards , each fluorescent reference standard corresponding to one of the two or more channels of the fluorometer, wherein the support is configured to accommodate two or more removable receptacle vessels , each of the two or more removable receptacle vessels corresponding to one of the two or more channels of the fluorometer; and a drive mechanism configured to adjust the relative horizontal positioning between the reference standards and the fluorometer such that each of the two or more fluorescent reference standards can be positioned in or out of optical communication with its corresponding channel of the fluorometer. the fluorometer, wherein the fluorometer comprises two or more channels , each channel having a separate light source , optical focus and filter assembly , and optical signal detector , and wherein each channel is configured to focus the light from its respective light source at a detection zone; a support comprising two or more fluorescent reference standards , each fluorescent reference standard corresponding to one of the two or more channels of the fluorometer, wherein the support is configured to accommodate two or more removable receptacle vessels , each of the two or more removable receptacle vessels corresponding to one of the two or more channels of the fluorometer; and a drive mechanism configured to adjust the relative horizontal positioning between the reference standards and the fluorometer such that each of the two or more fluorescent reference standards can be positioned in or out of optical communication with its corresponding channel of the fluorometer.
A method 2. for authenticating a sender comprising: receiving a radar signal comprising first identity information; determining a first position associated with the radar signal; associating the first position with the first identity information; receiving information on a non-radar channel comprising second identity information; determining a second position associated with the information on the non-radar channel; determining that the radar signal and the information on the non-radar channel are sent from a first sender when the first and second identity information correspond; and determining that the first position and the second position correspond. receiving a radar signal comprising first identity information; determining a first position associated with the radar signal; associating the first position with the first identity information; receiving information on a non-radar channel comprising second identity information; determining a second position associated with the information on the non-radar channel; determining that the radar signal and the information on the non-radar channel are sent from a first sender when the first and second identity information correspond; and determining that the first position and the second position correspond.
A nucleic acid encoding a fibronectin based scaffold (FBS) protein comprising a 10 Fn3 domain, wherein (i) the amino acid of the 10 Fn3 domain that is located at the position corresponding to position 94 of the wild-type 10 Fn3 domain set forth in SEQ ID NO: 1 is directly linked to a moiety consisting of the amino acid sequence PmXn, wherein P is proline, X is any amino acid, m is an integer that is at least 1 and n is 0 or an integer that is at least 1; and (ii) the PmXn moiety provides an enhanced property to the FBS protein relative to the FBS protein that is not linked to the PmXn moiety. (i) the amino acid of the 10 Fn3 domain that is located at the position corresponding to position 94 of the wild-type 10 Fn3 domain set forth in SEQ ID NO: 1 is directly linked to a moiety consisting of the amino acid sequence PmXn, wherein P is proline, X is any amino acid, m is an integer that is at least 1 and n is 0 or an integer that is at least 1; and (ii) the PmXn moiety provides an enhanced property to the FBS protein relative to the FBS protein that is not linked to the PmXn moiety.
A method of identifying a component of a system , the method including providing the component with an RFID tag , and providing the system with a reader to read a signal transmitted by the RFID tag , rotating the component to vary an angular position of the component relative to the reader , taking readings of the strength of the signal at a plurality of angular positions of the component , storing signal strength values at the plurality of angular positions of the component , and comparing a pattern of the stored signal strength values versus angular position of the component relative to the reader with an expected pattern of signal strength values versus angular position of the component relative to the reader to identify whether the component is an expected component.
An X-ray analyzer comprising: a detector for detecting X-rays generated from a specimen; a cooling element for cooling the detector ; and a spectrum generating unit for generating a spectrum based on a detection signal from the detector , characterised in that the spectrum generating unit is arranged to correct an attenuation of intensity of a spectrum attributable to contamination of the detector , based on an elapsed time from a reference time until an X-ray detection time point. a detector for detecting X-rays generated from a specimen; a cooling element for cooling the detector ; and a spectrum generating unit for generating a spectrum based on a detection signal from the detector , characterised in that the spectrum generating unit is arranged to correct an attenuation of intensity of a spectrum attributable to contamination of the detector , based on an elapsed time from a reference time until an X-ray detection time point.
A method performed by a terminal (2a-35) in a wireless communication system, the method comprising: receiving, from a base station (2a-05), a paging message (2ia-10, 2ib-10, 2ic-10) including an identity associated with the terminal, the terminal being in a radio resource control, RRC, inactive state (2ia-05, 2ib-05, 2ic-05); identifying the identity associated with the terminal included in the paging message; transmitting an RRC connection request message in case that the identity associated with the terminal includes a first identifier provided by a core network node (2a-25); transmitting an RRC connection resume request message (2ia-15, 2ib-15, 2ic-15) in case that the identity associated with the terminal includes a second identifier being used to identify a context of the terminal in the RRC inactive state; starting a timer (2l-15) associated with the RRC inactive state (2l-10) as a response to receving the paging message; and performing an action associated with an RRC idle state (2l-25) in case that the timer associated with the RRC inactive state expires (2l-20). receiving, from a base station (2a-05), a paging message (2ia-10, 2ib-10, 2ic-10) including an identity associated with the terminal, the terminal being in a radio resource control, RRC, inactive state (2ia-05, 2ib-05, 2ic-05); identifying the identity associated with the terminal included in the paging message; transmitting an RRC connection request message in case that the identity associated with the terminal includes a first identifier provided by a core network node (2a-25); transmitting an RRC connection resume request message (2ia-15, 2ib-15, 2ic-15) in case that the identity associated with the terminal includes a second identifier being used to identify a context of the terminal in the RRC inactive state; starting a timer (2l-15) associated with the RRC inactive state (2l-10) as a response to receving the paging message; and performing an action associated with an RRC idle state (2l-25) in case that the timer associated with the RRC inactive state expires (2l-20).
A communication system comprising an interconnection network and a plurality of radio sites (14 A , 14 B , 14 c ) interconnected via the interconnection network , characterised in that at least one radio site (14 A , 14 c ) comprises at least one first base station (16 A , 16 C ), a remote radio head (18 A , 18 C ) of which is interconnected to at least two baseband processing units (20 A , 20 B , 20c), the remote radio head (18 A ) of the first base station (16 A ), interconnected to at least two baseband processing units (20 A , 20 B , 20c), being located at the top of the mast of said first base station (16 A ) a first baseband processing unit (20 A ) of said at least two baseband processing units (20 A , 20 B , 20c) being located at the mast foot of said first base station (16 A ), a second baseband processing unit (20 B ) of said at least two baseband processing units (20 A , 20 B , 20c) being located at the mast foot of a second base station (16 B , 16c) separate from said first base station (16 A ).
A method for production of a gypsum fiberboard panel , having the following method steps: - producing a mixture of calcined gypsum and fibers , - applying the mixture onto a gas-permeable and/or air-permeable and/or liquid-permeable conveying means that continuously moves in an advancing direction (A) at an advancing speed (V A ), - pre-compacting the mixture - soaking the mixture with setting water, - post-compacting the mixture , - pressing the mixture to form a gypsum fiberboard panel strand, - cutting the gypsum fiberboard panel strand into individual gypsum fiberboard panels , - drying the gypsum fiberboard panels , - if necessary, finishing and/or coating the dried gypsum fiberboard panels , characterized in that for pre-compacting, the mixture is sprayed with a water mist in the form of an aerosol and is subjected to negative pressure, wherein the water mist is drawn into the mixture in such a manner that the mixture is uniformly wetted over its entire cross-section. - producing a mixture of calcined gypsum and fibers , - applying the mixture onto a gas-permeable and/or air-permeable and/or liquid-permeable conveying means that continuously moves in an advancing direction (A) at an advancing speed (V A ), - pre-compacting the mixture - soaking the mixture with setting water, - post-compacting the mixture , - pressing the mixture to form a gypsum fiberboard panel strand, - cutting the gypsum fiberboard panel strand into individual gypsum fiberboard panels , - drying the gypsum fiberboard panels , - if necessary, finishing and/or coating the dried gypsum fiberboard panels ,
A method (S300) for detecting an object in a first distorted image of a scene using a sliding window algorithm, the method (S300) comprising: receiving (S302) an inverse of a mathematical representation of a distortion of the first distorted image , wherein the mathematical representation of the distortion is an image transform which when applied to a rectilinear image of the scene results in the first distorted image of the scene; and detecting an object in the first distorted image by sliding (S304) a sliding window over the first distorted image , the sliding window comprising a feature detection pattern for detecting a specific feature in images, and for each position of a plurality of positions in the first distorted image : transforming (S306) the sliding window based on the inverse of the mathematical representation of the distortion at the position , wherein the step of transforming (S306) the sliding window comprises transforming (S310) the feature detection pattern of the sliding window such that a resulting distortion of the feature detection pattern of the transformed sliding window corresponds to the distortion of the first distorted image at the position; and using (S308) the transformed sliding window comprising the transformed feature detection pattern in the sliding window algorithm. receiving (S302) an inverse of a mathematical representation of a distortion of the first distorted image , wherein the mathematical representation of the distortion is an image transform which when applied to a rectilinear image of the scene results in the first distorted image of the scene; and detecting an object in the first distorted image by sliding (S304) a sliding window over the first distorted image , the sliding window comprising a feature detection pattern for detecting a specific feature in images, and for each position of a plurality of positions in the first distorted image : transforming (S306) the sliding window based on the inverse of the mathematical representation of the distortion at the position , wherein the step of transforming (S306) the sliding window comprises transforming (S310) the feature detection pattern of the sliding window such that a resulting distortion of the feature detection pattern of the transformed sliding window corresponds to the distortion of the first distorted image at the position; and using (S308) the transformed sliding window comprising the transformed feature detection pattern in the sliding window algorithm. transforming (S306) the sliding window based on the inverse of the mathematical representation of the distortion at the position , wherein the step of transforming (S306) the sliding window comprises transforming (S310) the feature detection pattern of the sliding window such that a resulting distortion of the feature detection pattern of the transformed sliding window corresponds to the distortion of the first distorted image at the position; and using (S308) the transformed sliding window comprising the transformed feature detection pattern in the sliding window algorithm.
A system comprising: an input interface ; output interfaces to individual communication channels, wherein each individual communication channel comprises a different network type, and wherein the output interfaces connect to an in-home network and the network type of each communication channel is selected from a group comprising a Multimedia over Coax, MoCA, network , a WiFi network , a powerline network , and an Ethernet network; and logic in communication with the input interface and the output interfaces, the logic configured to: determine which two of the communication channels to employ together as a bonded channel group; obtain a packet stream from the input interface created by a statistical multiplexer; dividing the packet stream into communication units; distribute channel bonding information across the output interfaces; and distribute the communication units across the communication channels in the bonded channel group. an input interface ; output interfaces to individual communication channels, wherein each individual communication channel comprises a different network type, and wherein the output interfaces connect to an in-home network and the network type of each communication channel is selected from a group comprising a Multimedia over Coax, MoCA, network , a WiFi network , a powerline network , and an Ethernet network; and logic in communication with the input interface and the output interfaces, the logic configured to: determine which two of the communication channels to employ together as a bonded channel group; obtain a packet stream from the input interface created by a statistical multiplexer; dividing the packet stream into communication units; distribute channel bonding information across the output interfaces; and distribute the communication units across the communication channels in the bonded channel group. determine which two of the communication channels to employ together as a bonded channel group; obtain a packet stream from the input interface created by a statistical multiplexer; dividing the packet stream into communication units; distribute channel bonding information across the output interfaces; and distribute the communication units across the communication channels in the bonded channel group.
An oxygen concentrator, comprising: a first pump configured to pump atmospheric air through a first sieve bed (110-1) at a first pressure to generate a first quantity of oxygen; a second pump configured to evacuate nitrogen from a second sieve bed (110-2) at a second pressure; a pressure amplifier including: a first cylinder that includes a first piston ; a second cylinder that includes a second piston that is coupled to the first piston; a first valve coupled to the first pump and to a first region of the first cylinder; and a second valve coupled to the second pump and to a second region of the first cylinder, wherein when the first valve is open the first region is subjected to the first pressure, and when the second valve is open the second region is subjected to the second pressure, and wherein a pressure differential between the first pressure and the second pressure exerts a force on the second piston via the first piston, causing the second piston to compress the first quantity of oxygen to a third pressure to produce pressurized oxygen; and a product tank coupled to the pressure amplifier and configured to store the pressurized oxygen for delivery to the user. a first pump configured to pump atmospheric air through a first sieve bed (110-1) at a first pressure to generate a first quantity of oxygen; a second pump configured to evacuate nitrogen from a second sieve bed (110-2) at a second pressure; a pressure amplifier including: a first cylinder that includes a first piston ; a second cylinder that includes a second piston that is coupled to the first piston; a first valve coupled to the first pump and to a first region of the first cylinder; and a second valve coupled to the second pump and to a second region of the first cylinder, wherein when the first valve is open the first region is subjected to the first pressure, and when the second valve is open the second region is subjected to the second pressure, and wherein a pressure differential between the first pressure and the second pressure exerts a force on the second piston via the first piston, causing the second piston to compress the first quantity of oxygen to a third pressure to produce pressurized oxygen; and a first cylinder that includes a first piston ; a second cylinder that includes a second piston that is coupled to the first piston; a first valve coupled to the first pump and to a first region of the first cylinder; and a second valve coupled to the second pump and to a second region of the first cylinder, wherein when the first valve is open the first region is subjected to the first pressure, and when the second valve is open the second region is subjected to the second pressure, and wherein a pressure differential between the first pressure and the second pressure exerts a force on the second piston via the first piston, causing the second piston to compress the first quantity of oxygen to a third pressure to produce pressurized oxygen; and a product tank coupled to the pressure amplifier and configured to store the pressurized oxygen for delivery to the user.
A chair assembly , comprising: a seat support structure including a seat support surface configured to support a seated user thereon; an arm rest assembly including an arm support surface to support the arm of a seated user thereon; an arm support assembly having an upper end supporting the arm rest assembly at a greater vertical height than the seat support surface, and a lower end that includes a select one of a pivot boss and a pivot aperture ; and an arm support structure that includes the other of the pivot boss and the pivot aperture , wherein the pivot boss is received within the pivot aperture for pivotably supporting the arm support assembly for rotation about a pivot point between a first position and a second position , the pivot boss having a conical-shape, and wherein the pivot aperture has a conical-shape closely corresponding to the shape of the pivot boss .
A method for use in a first wireless device for selecting a transmission parameter of the first wireless device in a wireless communication network , the method comprising: selecting (S36) a transmission format based at least upon an estimated level of synchronization of the first wireless device to at least one synchronization source, the estimated level of synchronization of the first wireless device being based at least upon a type of synchronization source; and transmitting (S38) a packet to at least a second wireless device using the selected transmission format. selecting (S36) a transmission format based at least upon an estimated level of synchronization of the first wireless device to at least one synchronization source, the estimated level of synchronization of the first wireless device being based at least upon a type of synchronization source; and transmitting (S38) a packet to at least a second wireless device using the selected transmission format.
A method of measuring an isotope ratio of a continuous sample in an isotope ratio optical spectrometer comprising: a) measuring at least one sample isotope ratio over a measurement time period t s n (n≥1) in the spectrometer; b) measuring a sample concentration C s n over at least a part of the measurement time period t s n , the sample concentration C s n varying over the measurement time period t s n ; c) matching a reference gas concentration C ref n for the spectrometer to the measured sample concentration C s n ; d) measuring an isotope ratio of the reference gas at the matched reference gas concentration C ref n in the spectrometer; e) calibrating the at least one isotope ratio of the sample measured during the measurement time period t s n , having a sample concentration C s n , using the measured isotope ratio of the reference gas at the corresponding reference gas concentration C ref n ; iteratively repeating steps (a) to (e) for n=n+1, n+2... so that, during a certain measurement time period t s n (n≥1), the concentration of the reference gas during that certain measurement time period t s n is matched to the measured sample concentration during that certain measurement time period t s n ; and f) determining a plurality of calibrated isotope ratios and a plurality of sample gas concentration measurements, each of the plurality of calibrated isotope ratios and the plurality of sample gas concentration measurements being for a different, respective time, wherein the step e) of calibrating comprises interpolation between two isotope ratio measurements of the reference gas. a) measuring at least one sample isotope ratio over a measurement time period t s n (n≥1) in the spectrometer; b) measuring a sample concentration C s n over at least a part of the measurement time period t s n , the sample concentration C s n varying over the measurement time period t s n ; c) matching a reference gas concentration C ref n for the spectrometer to the measured sample concentration C s n ; d) measuring an isotope ratio of the reference gas at the matched reference gas concentration C ref n in the spectrometer; e) calibrating the at least one isotope ratio of the sample measured during the measurement time period t s n , having a sample concentration C s n , using the measured isotope ratio of the reference gas at the corresponding reference gas concentration C ref n ; iteratively repeating steps (a) to (e) for n=n+1, n+2... so that, during a certain measurement time period t s n (n≥1), the concentration of the reference gas during that certain measurement time period t s n is matched to the measured sample concentration during that certain measurement time period t s n ; and f) determining a plurality of calibrated isotope ratios and a plurality of sample gas concentration measurements, each of the plurality of calibrated isotope ratios and the plurality of sample gas concentration measurements being for a different, respective time, wherein the step e) of calibrating comprises interpolation between two isotope ratio measurements of the reference gas.