mhurhangee/patent-ind-claim-en huggingface dataset:
A method for estimating a room impulse response, RIR, wherein the method uses a processor coupled with stored instructions implementing the method, wherein the instructions, when executed by the processor carry out steps of the method comprising: receiving , over a wired or wireless communication channel, a mixture of acoustic signals including a target direct-path signal propagated in a room and a reverberation of the target direct-path signal within the room; submitting the received mixture of acoustic signals to a first deep neural network, DNN, to produce a first estimate of the target direct-path signal; and estimating a filter modeling a room impulse response, RIR, representing a relationship between the target direct-path signal and the reverberation of the target direct-path signal, wherein the filter when applied to the first estimate of the target direct-path signal generates a result that is closest to at least one of the mixture of the acoustic signals and a residual between the mixture of the acoustic signals and the first estimate of the target direct-path signal according to a distance function; and transmitting the filter modeling the RIR over the communication channel. receiving , over a wired or wireless communication channel, a mixture of acoustic signals including a target direct-path signal propagated in a room and a reverberation of the target direct-path signal within the room; submitting the received mixture of acoustic signals to a first deep neural network, DNN, to produce a first estimate of the target direct-path signal; and estimating a filter modeling a room impulse response, RIR, representing a relationship between the target direct-path signal and the reverberation of the target direct-path signal, wherein the filter when applied to the first estimate of the target direct-path signal generates a result that is closest to at least one of the mixture of the acoustic signals and a residual between the mixture of the acoustic signals and the first estimate of the target direct-path signal according to a distance function; and transmitting the filter modeling the RIR over the communication channel.
The process for obtaining fluoralkylated carbon quantum dots through solvothermal process of carbonization of an organic substance - as a carbon source - in the presence of a fluoroorganic substance that contains a (per)fluoroalkyl group and at least one of the following substituents selected from the group consisting of: -NH 2 , -CONH 2 , -COOH, -OH, -C=0, or halogen atom other than fluorine; wherein, during said process, the carbon source and the fluoroorganic substance form carbon quantum dots that contain (per)fluoroalkyl groups that are grafted to the matrix of said carbon quantum dots.
Method for detecting data manipulation of numerical data values, in particular numerical access data to media data streams, with a testing device , wherein firstly, a Benford vector ( z b ) is determined from the frequencies of predetermined leading digit groups, expected according to the Benford distribution, in a transformation unit of the testing device by way of a composition data transformation in the form of a pivot composition data transformation that maps the frequencies in relation to one another, wherein randomly distributed numerical values are repeatedly generated with a random generator of the testing device and several simulation vectors ( z bi ) are determined from the frequencies of the leading digit groups of the randomly distributed numerical values by the transformation unit , which carries out the same composition data transformation as for the leading group frequencies, wherein, for each simulation vector ( z bi ), by means of a detection unit , a simulation deviation (T i ) from the Benford vector ( z b ) is determined in the form of a Mahalanobis distance and is stored in a test memory of the testing device , wherein, after a group of numerical data values is read in via an input interface of the testing device , from the frequencies of the leading digit groups in the numerical data values of the groups by way of the transformation unit , a test vector (z) and a test deviation (T) of the test vector (z) from the Benford vector ( z b ) in the form of a Mahalanobis distance is determined by the detection unit , after which, by a testing unit of the testing device , the relative number (p) of those stored simulation deviations (T i ) that are greater than the test deviation (T) is determined and a positive manipulation value is output via an output interface if the relative number falls below a predetermined threshold value.
A non-aqueous automotive engine oil comprising at least 65% by weight base stock wherein the base stock has one of a Group II, Group III or Group IV base oil as its major component, and an organic polymeric friction reducing additive wherein the additive has a molecular weight ranging from 1000 to 30,000 Daltons (Da) and is the reaction product of a) a hydrophobic polymeric sub unit which is a polyisobutylene polymer which has been subjected to maleinisation to form polyisobutylene succinic anhydride having a molecular weight in the range of 300 to 5000 Da: b) a hydrophilic polymeric sub unit which is a polyethylene glycol; c) at least one backbone moiety capable of linking together polymeric sub units selected from a polyol and a polycarboxylic acid; and d) a chain terminating group, wherein the chain terminating group is a C12 - C22 linear saturated, branched saturated, linear unsaturated or branched unsaturated fatty carboxylic acid. a) a hydrophobic polymeric sub unit which is a polyisobutylene polymer which has been subjected to maleinisation to form polyisobutylene succinic anhydride having a molecular weight in the range of 300 to 5000 Da: b) a hydrophilic polymeric sub unit which is a polyethylene glycol; c) at least one backbone moiety capable of linking together polymeric sub units selected from a polyol and a polycarboxylic acid; and d) a chain terminating group, wherein the chain terminating group is a C12 - C22 linear saturated, branched saturated, linear unsaturated or branched unsaturated fatty carboxylic acid.
A battery pack (100; 100A; 100B; 100C; 100D; 100E) configured to be installed in a vehicle (1; IE), the battery pack (100; 100A; 100B; 100C; 100D; 100E) comprising: a battery assembly; a battery module including a module case that houses the battery assembly; a pack case that houses the battery module ; and a fire-extinguishing agent releasing unit (90; 90A; 90B; 90C; 90D) including fire-extinguishing agent, disposed between the battery module and the pack case , wherein the fire-extinguishing agent releasing unit (90; 90A; 90B; 90C; 90D) is configured to release the fire-extinguishing agent between the pack case and the module case , characterized in that it further comprises an electronic device disposed outside the module case but inside the pack case and a wiring arranged between the module case and the pack case , the wiring including connection wiring that connects the battery module and the electronic device to each other, and in that the fire-extinguishing agent releasing unit (90A; 90B; 90C; 90D) is configured to release the fire-extinguishing agent toward the wiring and said fire-extinguishing agent releasing unit (90; 90A; 90B; 90C; 90D) includes a part that is provided along the connection wiring. a battery assembly; a battery module including a module case that houses the battery assembly; a pack case that houses the battery module ; and a fire-extinguishing agent releasing unit (90; 90A; 90B; 90C; 90D) including fire-extinguishing agent, disposed between the battery module and the pack case , wherein the fire-extinguishing agent releasing unit (90; 90A; 90B; 90C; 90D) is configured to release the fire-extinguishing agent between the pack case and the module case , characterized in that it further comprises an electronic device disposed outside the module case but inside the pack case and a wiring arranged between the module case and the pack case , the wiring including connection wiring that connects the battery module and the electronic device to each other, and in that the fire-extinguishing agent releasing unit (90A; 90B; 90C; 90D) is configured to release the fire-extinguishing agent toward the wiring and said fire-extinguishing agent releasing unit (90; 90A; 90B; 90C; 90D) includes a part that is provided along the connection wiring.
Duct joint for coupling ducts , in particular for coupling smoke extraction ducts, comprising two duct flanges , each may be positioned at an end of a duct to be connected and has a generally L-shape in cross-section, with a connecting portion for the duct and a distal end portion provided with a widened section, a joint slide profile connecting the two duct flanges at the widened sections thereof, and at least one joint bolt clamp , overlapping the distal end portions of the duct flanges and the joint slide profile provided thereon, and clamping the two duct flanges together, characterized in that the joint slide profile connects the two duct flanges by form-fit with overlapping the distal end portions of the duct flanges as it grips behind the widened sections, wherein it is mounted to the distal end portions by sliding connection from a side.
A method of projecting a template on a workpiece ; comprising the steps of: providing a measurement system for determining a location of a workpiece , a laser projector for projecting a laser template on the workpiece and a computer ; using the measurement system for determining a physical location of first and second features having geometric significance for accurate manufacturing of the workpiece in a three-dimensional coordinate system and using the computer for comparing the physical location of the first and the second features with a theoretical location of the first and the second features of a computer model of the workpiece ; using the computer for optimizing a location of the projection of the template onto the workpiece relative to the first and the second features by aligning the physical location of the first and the second features as determined with the theoretical location of the first and the second features from the computer model of the workpiece, wherein the first and second features are assigned a hierarchy of importance so that the computer aligns a most important feature as a primary alignment and a second most important feature as a secondary alignment; and projecting the template onto the workpiece based upon the optimized location of the projection for directing work to be performed on the workpiece . providing a measurement system for determining a location of a workpiece , a laser projector for projecting a laser template on the workpiece and a computer ; using the measurement system for determining a physical location of first and second features having geometric significance for accurate manufacturing of the workpiece in a three-dimensional coordinate system and using the computer for comparing the physical location of the first and the second features with a theoretical location of the first and the second features of a computer model of the workpiece ; using the computer for optimizing a location of the projection of the template onto the workpiece relative to the first and the second features by aligning the physical location of the first and the second features as determined with the theoretical location of the first and the second features from the computer model of the workpiece, wherein the first and second features are assigned a hierarchy of importance so that the computer aligns a most important feature as a primary alignment and a second most important feature as a secondary alignment; and projecting the template onto the workpiece based upon the optimized location of the projection for directing work to be performed on the workpiece .
A laser-based spectroscopy system , the system comprising: a laser source configured to emit a beam of radiation and a resonant optical cavity having at least two cavity mirrors ; characterized in that the laser-based spectroscopy system comprises at least one beam stop element positioned along a path of the beam external to the cavity and having a front surface , wherein the front surface is oriented such that an intersection of the beam and the surface is at a pseudo-Brewster angle or Brewster angle that reduces or eliminates reflection of a predominant polarization component of the beam by the stop element , and wherein the at least one beam stop element is positioned to receive light reflected off or emerging from one of said cavity mirrors . a laser source configured to emit a beam of radiation and a resonant optical cavity having at least two cavity mirrors ; characterized in that the laser-based spectroscopy system comprises at least one beam stop element positioned along a path of the beam external to the cavity and having a front surface , wherein the front surface is oriented such that an intersection of the beam and the surface is at a pseudo-Brewster angle or Brewster angle that reduces or eliminates reflection of a predominant polarization component of the beam by the stop element , and wherein the at least one beam stop element is positioned to receive light reflected off or emerging from one of said cavity mirrors .
A fire-rated finishing product suitable for fabric applications of the following formula I: Wherein, R 1 , R 2 are each a group equal to -C n H 2n+1 , wherein n ranges from 1 to 4, preferably equal to 1, and wherein R 3 is H or methyl group. Wherein, R 1 , R 2 are each a group equal to -C n H 2n+1 , wherein n ranges from 1 to 4, preferably equal to 1, and wherein R 3 is H or methyl group.
A Bluetooth temperature measuring probe with improved mounting stability of the temperature measuring probe, characterized by comprising: a needle tube having a hollow mounting chamber , wherein the needle tube has a head end and a tail end along a length direction thereof; a handle configured to abut against the tail end of the needle tube ; a first thermal sensor configured for measuring temperature, wherein the first thermal sensor is positioned in the mounting chamber of the needle tube close to the head end; an antenna configured for transmitting signals, wherein the antenna is mounted inside the needle tube and electrically connected to the first thermal sensor ; and a locking assembly configured for connecting the handle to the needle tube , and locking the handle and the needle tube with each other, wherein the locking assembly comprises a locking member , and a locking nut , wherein the locking nut is connected to the antenna ; characterised in that the locking assembly further comprises two limiting nuts ; the two limiting nuts are connected to the antenna ; the locking member is limited between the two limiting nuts ; an inner wall of the needle tube is defined with a locking slot configured for snap-in of the locking member ; and the locking nut cooperates with the two limiting nuts , such that the handle abuts against the tail end of the needle tube , so that a high stability mounting of the handle can be achieved. a needle tube having a hollow mounting chamber , wherein the needle tube has a head end and a tail end along a length direction thereof; a handle configured to abut against the tail end of the needle tube ; a first thermal sensor configured for measuring temperature, wherein the first thermal sensor is positioned in the mounting chamber of the needle tube close to the head end; an antenna configured for transmitting signals, wherein the antenna is mounted inside the needle tube and electrically connected to the first thermal sensor ; and a locking assembly configured for connecting the handle to the needle tube , and locking the handle and the needle tube with each other, wherein the locking assembly comprises a locking member , and a locking nut , wherein the locking nut is connected to the antenna ; characterised in that the locking assembly further comprises two limiting nuts ; the two limiting nuts are connected to the antenna ; the locking member is limited between the two limiting nuts ; an inner wall of the needle tube is defined with a locking slot configured for snap-in of the locking member ; and the locking nut cooperates with the two limiting nuts , such that the handle abuts against the tail end of the needle tube , so that a high stability mounting of the handle can be achieved.
A compound of the formula: or a pharmaceutically acceptable salt thereof, wherein: R 1 is -(CH 2 ) a -C(O)-NH 2 , -(NH)-[CH 2 ] z -C(O)-NH 2 , -CH(CH 3 )-C(O)-NH 2 , -C(CH 3 )(CH 3 )-C(O)-NH 2 , -CH(OH)-C(O)-NH 2 , or -CH(OCH 3 )-C(O)-NH 2 ; a is 0 or 1; z is 1 or 2; R 2 is H or alkyl; W is: or the compound 1-((1 R ,3a S ,6 S ,7 R ,7a S )-7-(( E )-2-(5-(2-cyanophenyl)pyridin-2-yl)vinyl)-5,5-difluoro-1,6-dimethyl-3-oxo-octahydroisobenzofuran-3a-yl)azetidine-3-carboxamide; or 1-((1 R ,3a S ,6 S ,7 R ,7a S )-5,5-difluoro-7-(( E )-2-(5-(3-fluorophenyl)pyridin-2-yl)vinyl)-1,6-dimethyl-3-oxo-octahydroisobenzofuran-3a-yl)azetidine-3-carboxamide. or a pharmaceutically acceptable salt thereof, wherein: R 1 is -(CH 2 ) a -C(O)-NH 2 , -(NH)-[CH 2 ] z -C(O)-NH 2 , -CH(CH 3 )-C(O)-NH 2 , -C(CH 3 )(CH 3 )-C(O)-NH 2 , -CH(OH)-C(O)-NH 2 , or -CH(OCH 3 )-C(O)-NH 2 ; a is 0 or 1; z is 1 or 2; R 2 is H or alkyl; W is: or the compound 1-((1 R ,3a S ,6 S ,7 R ,7a S )-7-(( E )-2-(5-(2-cyanophenyl)pyridin-2-yl)vinyl)-5,5-difluoro-1,6-dimethyl-3-oxo-octahydroisobenzofuran-3a-yl)azetidine-3-carboxamide; or 1-((1 R ,3a S ,6 S ,7 R ,7a S )-5,5-difluoro-7-(( E )-2-(5-(3-fluorophenyl)pyridin-2-yl)vinyl)-1,6-dimethyl-3-oxo-octahydroisobenzofuran-3a-yl)azetidine-3-carboxamide.
A method of detecting inconsistencies in a structure , the method comprising: directing, by a light source , a first light as a pulsed laser beam towards the structure , wherein the first light takes the form of a line pump on the surface , wherein a plurality of types of ultrasonic signals is formed in the structure when radiation of the pulsed laser beam is absorbed by the structure ; transmitting, by detectors , second light onto the surface of the structure , the second light forming a point detector on the first surface of the structure , and detecting the plurality of types of ultrasonic signals to form data , wherein the plurality of types of ultrasonic signals includes at least surface waves , wherein the plurality of types of ultrasonic signals is detected by the point detector , wherein the pulsed laser beam and the point detector are spaced apart such that the plurality of types of ultrasonic signals is detected, and wherein the surface waves are transmitted through a joint in the structure in a first direction for a first inspection and in a different second direction for a second inspection, wherein the method further comprises identifying a joint inconsistency in the joint in the structure by using the data representing the surface waves from the first and the second inspection. directing, by a light source , a first light as a pulsed laser beam towards the structure , wherein the first light takes the form of a line pump on the surface , wherein a plurality of types of ultrasonic signals is formed in the structure when radiation of the pulsed laser beam is absorbed by the structure ; transmitting, by detectors , second light onto the surface of the structure , the second light forming a point detector on the first surface of the structure , and detecting the plurality of types of ultrasonic signals to form data , wherein the plurality of types of ultrasonic signals includes at least surface waves , wherein the plurality of types of ultrasonic signals is detected by the point detector , wherein the pulsed laser beam and the point detector are spaced apart such that the plurality of types of ultrasonic signals is detected, and wherein the surface waves are transmitted through a joint in the structure in a first direction for a first inspection and in a different second direction for a second inspection, wherein the method further comprises identifying a joint inconsistency in the joint in the structure by using the data representing the surface waves from the first and the second inspection.
A data transmission method, executed by an edge node , comprising: receiving (S11, S111) a request to access a data file from a user agent ; requesting to access the data file from an intermediate node ; receiving (S12) response data packets of the data file from the intermediate node , wherein the response data packets include a signature code uniquely identifying the content of the data file; looking up (S13) the signature code in a signature code database; when the signature code is present, notifying (S14) the intermediate node to stop transmission of the data file, and creating a cache pointer record that points to a cache file to which the signature code corresponds, wherein the cache file and the data file belong to different domain names; and sending (S15) the cache file to the user agent , wherein the cache file is stored locally on the edge node . receiving (S11, S111) a request to access a data file from a user agent ; requesting to access the data file from an intermediate node ; receiving (S12) response data packets of the data file from the intermediate node , wherein the response data packets include a signature code uniquely identifying the content of the data file; looking up (S13) the signature code in a signature code database; when the signature code is present, notifying (S14) the intermediate node to stop transmission of the data file, and creating a cache pointer record that points to a cache file to which the signature code corresponds, wherein the cache file and the data file belong to different domain names; and sending (S15) the cache file to the user agent , wherein the cache file is stored locally on the edge node .
Panel for an air handling unit , the panel defining a main axis (X6) perpendicular to its surface and including: - at least two first plates , each provided with at least two folded-over edges , and - at least two second plates , each provided with at least folded-over edges , the plates being parallel to one another and perpendicular to the main axis of the panel, wherein the panel includes at least one internal joining element inserted between the first plate and the second plate along the main axis (X6); wherein the internal joining element comprises at least one bore , wherein the first plates each comprise at least one opening aligned with the bore , the bore and the openings being configured to receive the same attachment means ; wherein each second plate is mounted on the internal joining element by means of its own attachment means ; characterized in that the adjacent folded-over edges of the adjacent first and second plates are provided with a curved end configured to exert a resilient bearing force in first and second niches of the internal joining element . - at least two first plates , each provided with at least two folded-over edges , and - at least two second plates , each provided with at least folded-over edges , the plates being parallel to one another and perpendicular to the main axis of the panel,