mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a manufacturing system using multivariate time series, the method comprising: recording data from one or more devices in the manufacturing system; storing the recorded data in a data storage (306a,306b,306c) as a plurality of time series, wherein each time series has a first recorded value corresponding to a first time and a final recorded value corresponding to an end of the time series; interpolating, (308a,308b,308c) within a first time window, missing values in the plurality of time series using a Bayesian model, wherein the missing values fall between the first and end time of the respective time series; storing the interpolated values as prediction data in a prediction storage, (310a,310b,310c) wherein the interpolated values include the uncertainty of each interpolated value; loading the recorded data that fall within a second time window from the data storage; loading prediction data from the prediction storage that fall within the second time window and for which no recorded data are available; optimizing the parameters of the Bayesian model using the loaded recorded data and the prediction data; predicting, using the Bayesian model, values for each of the time series for which loaded recorded and prediction data are not available; storing the predicted values as prediction data in the prediction storage, wherein the prediction values include the uncertainty of each prediction value; and adjusting one or more of the devices that generate the recorded data based on the prediction data within the second time window. recording data from one or more devices in the manufacturing system; storing the recorded data in a data storage (306a,306b,306c) as a plurality of time series, wherein each time series has a first recorded value corresponding to a first time and a final recorded value corresponding to an end of the time series; interpolating, (308a,308b,308c) within a first time window, missing values in the plurality of time series using a Bayesian model, wherein the missing values fall between the first and end time of the respective time series; storing the interpolated values as prediction data in a prediction storage, (310a,310b,310c) wherein the interpolated values include the uncertainty of each interpolated value; loading the recorded data that fall within a second time window from the data storage; loading prediction data from the prediction storage that fall within the second time window and for which no recorded data are available; optimizing the parameters of the Bayesian model using the loaded recorded data and the prediction data; predicting, using the Bayesian model, values for each of the time series for which loaded recorded and prediction data are not available; storing the predicted values as prediction data in the prediction storage, wherein the prediction values include the uncertainty of each prediction value; and adjusting one or more of the devices that generate the recorded data based on the prediction data within the second time window.
Tyre provided with a tread, in which the tread has circumferential furrows having a depth P, and comprises a radially outer portion having a thickness E E and a radially inner portion having a thickness E I, characterized in that the radially inner portion consists of a composition based on: - an elastomeric matrix comprising at least diene elastomer, - from 0.2 to 10 phr of at least one salt of an alkali, alkaline-earth or lanthanide metal, - at least one reinforcing filler, and - a crosslinking system, wherein the composition of the radially outer portion of the tread is different from the composition of the radially inner portion of the tread, and wherein the salt of an alkali, alkaline-earth or lanthanide metal is an acetylacetonate of an alkali, alkaline-earth or lanthanide metal. - an elastomeric matrix comprising at least diene elastomer, - from 0.2 to 10 phr of at least one salt of an alkali, alkaline-earth or lanthanide metal, - at least one reinforcing filler, and - a crosslinking system, wherein the composition of the radially outer portion of the tread is different from the composition of the radially inner portion of the tread, and wherein the salt of an alkali, alkaline-earth or lanthanide metal is an acetylacetonate of an alkali, alkaline-earth or lanthanide metal. wherein the composition of the radially outer portion of the tread is different from the composition of the radially inner portion of the tread, and wherein the salt of an alkali, alkaline-earth or lanthanide metal is an acetylacetonate of an alkali, alkaline-earth or lanthanide metal.
An agrochemical composition comprising an efficacy-enhancing agent composition for amino acid-based agrochemicals, an amino acid-based agrochemical active ingredient, and water, wherein the amino acid-based agrochemical active ingredient is at least one compound selected from N-(phosphonomethyl)glycine or salts thereof, sodium salt of L-2-amino-4-[(hydroxy)(methyl)phosphinoyl]butyryl-L-alanyl -L-alanine and ammonium DL-homoalanine-4-yl(methyl) phosphinate), characterized in that the efficacy-enhancing agent composition for amino acid-based agrochemicals comprises a compound represented by the following general formula, optionally a compound represented by the following general formula, and optionally a compound represented by the following general formula, wherein: the mass ratio of the content of the compound to the sum of the contents of the compound and the compound, [content of compound]/[sum of contents of compounds and], is 0/100 or more and 10/90 or less; and the mass ratio of the content of the compound to the content of the compound, [content of compound]/[content of compound], is 0/100 or more and 50/50 or less, in the formulas, R 1 denotes a linear alkyl group having 1 or more and 4 or less carbon atoms, a linear alkenyl group having 2 or more and 4 or less carbon atoms, a branched alkyl group having 3 or more and 4 or less carbon atoms, or a branched alkenyl group having 3 or more and 4 or less carbon atoms; R 2 denotes a linear or branched alkyl or alkenyl group having 5 or more and 11 or less carbon atoms; and X - denotes a counter ion. the mass ratio of the content of the compound to the sum of the contents of the compound and the compound, [content of compound]/[sum of contents of compounds and], is 0/100 or more and 10/90 or less; and the mass ratio of the content of the compound to the content of the compound, [content of compound]/[content of compound], is 0/100 or more and 50/50 or less, in the formulas, R 1 denotes a linear alkyl group having 1 or more and 4 or less carbon atoms, a linear alkenyl group having 2 or more and 4 or less carbon atoms, a branched alkyl group having 3 or more and 4 or less carbon atoms, or a branched alkenyl group having 3 or more and 4 or less carbon atoms; R 2 denotes a linear or branched alkyl or alkenyl group having 5 or more and 11 or less carbon atoms; and X - denotes a counter ion.
Securing device coupled to a movable unit of a linear guiding mechanism and configured to secure said movable unit to a guiding rail of said linear guiding mechanism, the securing device comprising - two securing portions (9A, 9B), and - a coupling portion, wherein the coupling portion is configured to couple said securing portions (9A, 9B) to said movable unit, and wherein the two securing portions (9A, 9B) are arranged at a predetermined distance from each other, said two securing portions (9A, 9B) defining an accommodating space for accommodating said movable unit; wherein the securing portions (9A, 9B) are engageable with said guiding rail in case of a failure of said movable unit in order to prevent said movable unit from coming off said guiding rail; wherein said accommodating space is further defined by said coupling portion; characterized in that said coupling portion comprises two support sections (23, 25) each of which connecting the securing portions (9A, 9B). - two securing portions (9A, 9B), and - a coupling portion,
A gap blocking system for an amusement park ride, comprising: a loading platform having a gap separating a first portion of the loading platform from a second portion of the loading platform, the first portion of the loading platform being movable in respect to the second portion of the loading platform; a ride vehicle coupled to a transport extending through the gap, wherein the transport is configured to propel the ride vehicle along a loading path (3 6) of the loading platform; a panel assembly coupled to the first portion of the loading platform and comprising a plurality of panels, wherein each panel of the plurality of panels is coupled to a respective biasing mechanism coupled to the first portion of the loading platform and configured to bias each panel towards a closed configuration in which each panel extends radially away from the first portion of the loading platform in order to block access to the gap; and a stationary post coupled to the loading platform and positioned within the gap, wherein the stationary post is configured to contact and exert an opposing force on at least one individual panel of the plurality of panels to overcome a biasing force of the biasing mechanism and to move the at least one individual panel out of the closed configuration into an open configuration to expose a portion of the gap to permit entry of the ride vehicle into the exposed portion of the gap. a loading platform having a gap separating a first portion of the loading platform from a second portion of the loading platform, the first portion of the loading platform being movable in respect to the second portion of the loading platform; a ride vehicle coupled to a transport extending through the gap, wherein the transport is configured to propel the ride vehicle along a loading path (3 6) of the loading platform; a panel assembly coupled to the first portion of the loading platform and comprising a plurality of panels, wherein each panel of the plurality of panels is coupled to a respective biasing mechanism coupled to the first portion of the loading platform and configured to bias each panel towards a closed configuration in which each panel extends radially away from the first portion of the loading platform in order to block access to the gap; and a stationary post coupled to the loading platform and positioned within the gap, wherein the stationary post is configured to contact and exert an opposing force on at least one individual panel of the plurality of panels to overcome a biasing force of the biasing mechanism and to move the at least one individual panel out of the closed configuration into an open configuration to expose a portion of the gap to permit entry of the ride vehicle into the exposed portion of the gap.
Method for grey balance correction of a target printing process in a printing system, the method comprising the following steps: • carrying out a reference printing process to determine first reference printing process color values (L 1 a 1 b 1) corresponding to the grey balance, • determining first characterization data of the target printing process by analyzing the spectral actual data (54, 54') of a test element (15, 15') printed in accordance with target printing process conditions, • deriving second colour values (L 2 a 2 b 2) for the target printing process from the first colour values (L 1 a 1 b 1), wherein respective paper colour values (L*RWa*RWb*RW), (L*ZWa*ZWb*ZW) for the paper white of the reference and target printing processes are determined and the second colour values (L 2 a 2 b 2) are determined under consideration of the differences of the paper white values (L*RWa*RWb*RW), (L*ZWa*ZWb*ZW), • determining new tonal value combinations that correspond to the corrected grey balance of the target printing process from the second colour values (L 2 a 2 b 2) and the first characterization data of the target printing process, • correcting the grey balance of the target printing process using the determined new tonal value combinations, • calibrating a printing operation in accordance with the target printing process based on the determined grey balance correction. • carrying out a reference printing process to determine first reference printing process color values (L 1 a 1 b 1) corresponding to the grey balance, • determining first characterization data of the target printing process by analyzing the spectral actual data (54, 54') of a test element (15, 15') printed in accordance with target printing process conditions, • deriving second colour values (L 2 a 2 b 2) for the target printing process from the first colour values (L 1 a 1 b 1), wherein respective paper colour values (L*RWa*RWb*RW), (L*ZWa*ZWb*ZW) for the paper white of the reference and target printing processes are determined and the second colour values (L 2 a 2 b 2) are determined under consideration of the differences of the paper white values (L*RWa*RWb*RW), (L*ZWa*ZWb*ZW), • determining new tonal value combinations that correspond to the corrected grey balance of the target printing process from the second colour values (L 2 a 2 b 2) and the first characterization data of the target printing process, • correcting the grey balance of the target printing process using the determined new tonal value combinations, • calibrating a printing operation in accordance with the target printing process based on the determined grey balance correction.
A system for removing dental deposits from an exterior surface of one or more teeth or gum tissue in a mouth of a mammal, the system comprising: a mouthpiece sized and shaped to be inserted into the mouth, the mouthpiece including one or more fluid ports to deliver liquid to the mouth and to remove liquid from the mouth; a pressure wave generator configured to generate pressure waves having a broadband power spectrum and acoustic waves at multiple different frequencies; a pump in fluid communication with the one or more fluid ports of the mouthpiece, and a control mechanism in communication with the pump, the control mechanism configured to control the operation of the pump, characterized in that the control mechanism is configured to operate the pump to move the liquid into and out of the one or more fluid ports of the mouthpiece in an oscillatory manner and in which the frequency of the oscillations varies during a treatment procedure, wherein the pump, the pressure wave generator or both are configured to generate an oscillatory movement of liquid at a first frequency range during a first treatment phase and at a second frequency range during a second treatment phase, the second frequency range differing from the first frequency range. a mouthpiece sized and shaped to be inserted into the mouth, the mouthpiece including one or more fluid ports to deliver liquid to the mouth and to remove liquid from the mouth; a pressure wave generator configured to generate pressure waves having a broadband power spectrum and acoustic waves at multiple different frequencies; a pump in fluid communication with the one or more fluid ports of the mouthpiece, and a control mechanism in communication with the pump, the control mechanism configured to control the operation of the pump, characterized in that the control mechanism is configured to operate the pump to move the liquid into and out of the one or more fluid ports of the mouthpiece in an oscillatory manner and in which the frequency of the oscillations varies during a treatment procedure, wherein the pump, the pressure wave generator or both are configured to generate an oscillatory movement of liquid at a first frequency range during a first treatment phase and at a second frequency range during a second treatment phase, the second frequency range differing from the first frequency range.
A method of indicating a spatial characteristic parameter set, performed by a user-side device and comprising: acquiring (S 110) first indication information, wherein the first indication information indirectly indicates a spatial characteristic parameter set scheduled to the user-side device, and the spatial characteristic parameter set is one of a plurality of spatial characteristic parameter sets configured for the user-side device; determining, according to the first indication information, the spatial characteristic parameter set scheduled to the user-side device, characterized in that, the first indication information is information of a resource location of a physical downlink control channel, PDCCH; acquiring the first indication information comprises: determining the first indication information according to a resource location of a received PDCCH; determining (S 120), according to the first indication information, the spatial characteristic parameter set scheduled to the user-side device comprises: determining, according to mapping relationship between the resource location of the PDCCH and the spatial characteristic parameter set, the spatial characteristic parameter set scheduled to the user-side device. acquiring (S 110) first indication information, wherein the first indication information indirectly indicates a spatial characteristic parameter set scheduled to the user-side device, and the spatial characteristic parameter set is one of a plurality of spatial characteristic parameter sets configured for the user-side device; determining, according to the first indication information, the spatial characteristic parameter set scheduled to the user-side device, characterized in that, the first indication information is information of a resource location of a physical downlink control channel, PDCCH; acquiring the first indication information comprises: determining the first indication information according to a resource location of a received PDCCH; determining (S 120), according to the first indication information, the spatial characteristic parameter set scheduled to the user-side device comprises: determining, according to mapping relationship between the resource location of the PDCCH and the spatial characteristic parameter set, the spatial characteristic parameter set scheduled to the user-side device.
A battery module, comprising a plurality of batteries, a first enclosing plate, a second enclosing plate, and fasteners, wherein the first enclosing plate comprises a first side plate, a first front plate connected to the first side plate and containing at least a first connecting hole, and a first rear plate connected to the first side plate and containing a third connecting hole, wherein the first rear plate and the first front plate are disposed oppositely in a longitudinal direction; the second enclosing plate comprises a second side plate, a second front plate connected to the second side plate and containing a second connecting hole, and a second rear plate connected to the second side plate and containing a fourth connecting hole, wherein the second rear plate and the second front plate are disposed oppositely in the longitudinal direction; and the first connecting hole and the second connecting hole are fixedly connected to the first front plate and the second front plate by the fasteners, and the third connecting hole and the fourth connecting hole are fixedly connected to the first rear plate and the second rear plate by the fasteners, and wherein the batteries comprise a lower region and an upper-middle region in an up-down direction; and wherein a number of first connecting holes disposed in a part that is of the first front plate and that corresponds to the upper-middle region is larger than a number of first connecting holes disposed in a part that is of the first front plate and that corresponds to the lower region. the first enclosing plate comprises a first side plate, a first front plate connected to the first side plate and containing at least a first connecting hole, and a first rear plate connected to the first side plate and containing a third connecting hole, wherein the first rear plate and the first front plate are disposed oppositely in a longitudinal direction; the second enclosing plate comprises a second side plate, a second front plate connected to the second side plate and containing a second connecting hole, and a second rear plate connected to the second side plate and containing a fourth connecting hole, wherein the second rear plate and the second front plate are disposed oppositely in the longitudinal direction; and the first connecting hole and the second connecting hole are fixedly connected to the first front plate and the second front plate by the fasteners, and the third connecting hole and the fourth connecting hole are fixedly connected to the first rear plate and the second rear plate by the fasteners, and wherein the batteries comprise a lower region and an upper-middle region in an up-down direction; and wherein a number of first connecting holes disposed in a part that is of the first front plate and that corresponds to the upper-middle region is larger than a number of first connecting holes disposed in a part that is of the first front plate and that corresponds to the lower region.
A method of isolating DNA from a sample, the method comprising: partitioning the DNA of the sample into a plurality of partitions, the plurality comprising at least a hypermethylated partition and a hypomethylated partition; preparing a first pool comprising at least a first portion of the DNA of the hypomethylated partition; preparing a second pool comprising at least a first portion of the DNA of the hypermethylated partition; capturing at least a first set of target regions from the first pool; and capturing at least a second set of target regions from the second pool, wherein the first set of target regions and the second set of target regions are not identical. partitioning the DNA of the sample into a plurality of partitions, the plurality comprising at least a hypermethylated partition and a hypomethylated partition; preparing a first pool comprising at least a first portion of the DNA of the hypomethylated partition; preparing a second pool comprising at least a first portion of the DNA of the hypermethylated partition; capturing at least a first set of target regions from the first pool; and capturing at least a second set of target regions from the second pool, wherein the first set of target regions and the second set of target regions are not identical.
A thermoplastic screen printing paste comprising: - one or more hydroxy-functional polyesters, - one or more blocked polyisocyanates, - pigments, - additives, characterized in, that the paste is solid at room temperature, that the melting or softening range of the thermoplastic screen printing paste lies at temperatures below 90°C and that the paste is free of bisphenol-A and free of further substances which are directly involved in polymerization. - one or more hydroxy-functional polyesters, - one or more blocked polyisocyanates, - pigments, - additives, characterized in, that the paste is solid at room temperature, that the melting or softening range of the thermoplastic screen printing paste lies at temperatures below 90°C and that the paste is free of bisphenol-A and free of further substances which are directly involved in polymerization.
Method for saving and analysing data, particularly vital data, wherein the data is detected by at least one sensor and saved by a processing unit of a user terminal and wherein saved data can be retrievable by an external evaluating device, wherein the data is saved by the processing unit of the user terminal in a hierarchically aggregated format such that the data or data parts saved on the user terminal are retrievable in aggregated format by the evaluating device via a digital query interface, characterised in that the data is prepared by the processing unit of the user terminal in a hierarchically aggregated format for hierarchical data navigation such that it can be read in various chronologically and/or semantically condensed forms, wherein various aggregation methods can be applied alternatively or cumulatively to one set of raw data, wherein the data volume declines with increasing aggregation.