mhurhangee/patent-ind-claim-en huggingface dataset:
A method for seismic data processing, comprising: receiving seismic data for a region of interest, wherein the seismic data comprises a seismic wavefield and was acquired during a seismic survey; calculating a summation as a weighted sum of a particle motion velocity component of the seismic wavefield in a vertical direction and a pressure component of the seismic wavefield, wherein the summation comprises a weight for the particle motion velocity component and a weight for the pressure component; predicting an upgoing pressure component of the seismic wavefield for the region of interest based at least in part on a Generalized Matching Pursuit Technique model of an upgoing pressure component of the seismic wavefield; determining a two-component measurement vector based on the summation and the seismic wavefield; determining a two-component ghosting operator, i.e. a filter that includes ghost operators directed to the pressure component and particle motion velocity component in the vertical direction for the two-component measurement vector; using the summation to analyze an upgoing pressure component that corresponds to the summation with derived data based on a predicted upgoing pressure component; comparing the predicted upgoing pressure component to received seismic data that corresponds to the received summation; and updating the model based at least in part on the comparison. receiving seismic data for a region of interest, wherein the seismic data comprises a seismic wavefield and was acquired during a seismic survey; calculating a summation as a weighted sum of a particle motion velocity component of the seismic wavefield in a vertical direction and a pressure component of the seismic wavefield, wherein the summation comprises a weight for the particle motion velocity component and a weight for the pressure component; predicting an upgoing pressure component of the seismic wavefield for the region of interest based at least in part on a Generalized Matching Pursuit Technique model of an upgoing pressure component of the seismic wavefield; determining a two-component measurement vector based on the summation and the seismic wavefield; determining a two-component ghosting operator, i.e. a filter that includes ghost operators directed to the pressure component and particle motion velocity component in the vertical direction for the two-component measurement vector; using the summation to analyze an upgoing pressure component that corresponds to the summation with derived data based on a predicted upgoing pressure component; comparing the predicted upgoing pressure component to received seismic data that corresponds to the received summation; and updating the model based at least in part on the comparison.
A compound having a formula or a salt, solvate, N-oxide, diastereomer or enantiomer thereof, wherein: x is from 0 to 4; each R 1 independently is hydroxyl, halogen, C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, amino, protected amino, -COOR where R is C 1-6 alkyl, or two R's, together with the atoms to which they are attached, form a phenyl ring or 5- to 6-membered heterocyclyl; each of R 2 , R 3 , R 4 and R 5 independently is H, halogen, C 1-6 alkyl, C 1-4 hydroxyalkyl, protected C 1-4 hydroxyalkyl, phenyl, 5- to 6-membered heteroaryl, hydroxyl, protected hydroxyl, C 1-4 haloalkyl, amino, protected amino, -COOR where R is C 1-6 alkyl, or two of R 2 , R 3 , R 4 and R 5 that are attached to the same carbon together form =O or =S; Q 1 is CH 2 - or -CH 2 CH 2 -; Q 2 is CH 2 - or -CH 2 CH 2 -; and wherein each protected hydroxyl, protected amino and protected C 1-4 hydroxyalkyl independently comprises a protecting group selected from acetate, chloroacetate, dichloroacetate, trichloroacteate, trifluoroacetate, pivaloate, benzoate, p-methoxybenzoate, p-bromobenzoate, methyl carbonate, 9-(fluorenylmethyl) carbonate (Fmoc), allyl carbonate, benzyl carbonate (CBZ), t-butyl carbonate (Boc), dimethylthiocarbonate (DMTC), methoxymethyl (MOM), tert-butyl, iso-propyl, and a silyl protecting group. x is from 0 to 4; each R 1 independently is hydroxyl, halogen, C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, amino, protected amino, -COOR where R is C 1-6 alkyl, or two R's, together with the atoms to which they are attached, form a phenyl ring or 5- to 6-membered heterocyclyl; each of R 2 , R 3 , R 4 and R 5 independently is H, halogen, C 1-6 alkyl, C 1-4 hydroxyalkyl, protected C 1-4 hydroxyalkyl, phenyl, 5- to 6-membered heteroaryl, hydroxyl, protected hydroxyl, C 1-4 haloalkyl, amino, protected amino, -COOR where R is C 1-6 alkyl, or two of R 2 , R 3 , R 4 and R 5 that are attached to the same carbon together form =O or =S; Q 1 is CH 2 - or -CH 2 CH 2 -; Q 2 is CH 2 - or -CH 2 CH 2 -; and wherein each protected hydroxyl, protected amino and protected C 1-4 hydroxyalkyl independently comprises a protecting group selected from acetate, chloroacetate, dichloroacetate, trichloroacteate, trifluoroacetate, pivaloate, benzoate, p-methoxybenzoate, p-bromobenzoate, methyl carbonate, 9-(fluorenylmethyl) carbonate (Fmoc), allyl carbonate, benzyl carbonate (CBZ), t-butyl carbonate (Boc), dimethylthiocarbonate (DMTC), methoxymethyl (MOM), tert-butyl, iso-propyl, and a silyl protecting group.
Article (C) for reproducing a predetermined image with three-dimensional effect, said article (C) comprising a succession of sheets and said succession of sheets comprising at least: - a first sheet having a first surface , on which a first part of said predetermined image is shown, and a second surface , opposite to said first surface , - a second sheet having a first surface , on which a second part of said predetermined image is shown, and a second surface , opposite to said first surface , said second part of said predetermined image comprising: ∘ a first portion showing a first image reproducing said first part of said predetermined image in shadow, and ∘ a second portion showing a second image, different from said first image; wherein said first sheet has at least one opening or portion of transparent material having predetermined dimensions, and said article (C) is configured in such a way that, when in use, said second sheet is parallel or substantially parallel to said first sheet and is aligned to said first sheet along an axis (A), said axis (A) being perpendicular to said first sheet and to said second sheet , said first surface of said second sheet is at a predetermined first distance from the second surface of said first sheet , said at least one opening or portion of transparent material is arranged with respect to the first surface of said second sheet in such a way that said second portion of said second part is visible from the outside and the projection along said axis (A) of said first part of said predetermined image shown on the first surface of said first sheet falls on the first surface of said second sheet substantially in correspondence of said first portion of said second part . - a first sheet having a first surface , on which a first part of said predetermined image is shown, and a second surface , opposite to said first surface , - a second sheet having a first surface , on which a second part of said predetermined image is shown, and a second surface , opposite to said first surface , said second part of said predetermined image comprising: ∘ a first portion showing a first image reproducing said first part of said predetermined image in shadow, and ∘ a second portion showing a second image, different from said first image; ∘ a first portion showing a first image reproducing said first part of said predetermined image in shadow, and ∘ a second portion showing a second image, different from said first image;
Alarm handling system in plant process automation with a data processing device comprising • at least one interface , configured to access and/or to process one or more process signals and determining corresponding process variables , • an alarm configuration device , configured to access and/or to provide alarm configuration information comprising at least one setpoint for one or more determined process variables, • a prediction device configured to determine and process a current rate of change of at least one of the determined process variables, and further configured: - to predict the period until the at least one of the determined process variables will reach or cross the respective setpoint; - and/or to predict at which date and/or time the at least one of the determined process variables will reach or cross the respective setpoint; wherein the prediction device is further configured to determine a change of said current rate of change and to execute the prediction on an event triggered basis, when a change of said current rate of change is detected; wherein the prediction is based on a simple linear extrapolation with the current rate of change. • at least one interface , configured to access and/or to process one or more process signals and determining corresponding process variables , • an alarm configuration device , configured to access and/or to provide alarm configuration information comprising at least one setpoint for one or more determined process variables, • a prediction device configured to determine and process a current rate of change of at least one of the determined process variables, and further configured: - to predict the period until the at least one of the determined process variables will reach or cross the respective setpoint; - and/or to predict at which date and/or time the at least one of the determined process variables will reach or cross the respective setpoint; wherein the prediction device is further configured to determine a change of said current rate of change and to execute the prediction on an event triggered basis, when a change of said current rate of change is detected; wherein the prediction is based on a simple linear extrapolation with the current rate of change. - to predict the period until the at least one of the determined process variables will reach or cross the respective setpoint; - and/or to predict at which date and/or time the at least one of the determined process variables will reach or cross the respective setpoint; wherein the prediction device is further configured to determine a change of said current rate of change and to execute the prediction on an event triggered basis, when a change of said current rate of change is detected; wherein the prediction is based on a simple linear extrapolation with the current rate of change. wherein the prediction device is further configured to determine a change of said current rate of change and to execute the prediction on an event triggered basis, when a change of said current rate of change is detected; wherein the prediction is based on a simple linear extrapolation with the current rate of change.
Fuselage component for an aircraft , comprising: a flatly extending shell part made of a fibre composite material; and a stiffening structure connected to an inner surface of the shell part , comprising a plurality of moulded parts made of a fibre composite material; wherein the moulded parts each have a planar base portion extending along the inner surface of the shell part and a step-shaped profile edge extending circumferentially around the base portion ; wherein the moulded parts are arranged in the form of a parquetry with overlapping profile edges , wherein the overlapping profile edges form stiffening profiles crossing each other at a crossing point . a flatly extending shell part made of a fibre composite material; and a stiffening structure connected to an inner surface of the shell part , comprising a plurality of moulded parts made of a fibre composite material; wherein the moulded parts each have a planar base portion extending along the inner surface of the shell part and a step-shaped profile edge extending circumferentially around the base portion ; wherein the moulded parts are arranged in the form of a parquetry with overlapping profile edges , wherein the overlapping profile edges form stiffening profiles crossing each other at a crossing point .
An inulin composition comprising GF n - and F m -compounds which composition comprises 25 to 40 wt.-% (dry matter, based on total mass of carbohydrates) of compounds having a DP ≥11 (degree of polymerization), 15 to 30 wt.-% (dry matter, based on total mass of carbohydrates) of F m compounds with m=2 to 9, wherein the DP AV (average degree of polymerization) of the inulin composition is 6.5 to 9.
A wireless communication method, comprising: receiving (S210), by a terminal device, a first physical downlink control channel, PDCCH, from a network device, wherein the first PDCCH indicates one or more first time-frequency resources scheduled by the network device for the terminal device; receiving (S230), by the terminal device, at least one piece of first posterior resource indication information from the network device, wherein the at least one piece of first posterior resource indication information indicates at least one reallocated time-frequency resource in the one or more first time-frequency resources; receiving, by the terminal device based on the PDCCH and the at least one piece of first posterior resource indication information, downlink data from the network device on time-frequency resource that is in the one or more first time-frequency resources and that is not overlapped with the at least one reallocated time-frequency resource; and skipping, by the terminal, demodulation or decoding, according to the first PDCCH and the at least one piece of first posterior resource indication information, data carried on the at least one reallocated time-frequency resource. receiving (S210), by a terminal device, a first physical downlink control channel, PDCCH, from a network device, wherein the first PDCCH indicates one or more first time-frequency resources scheduled by the network device for the terminal device; receiving (S230), by the terminal device, at least one piece of first posterior resource indication information from the network device, wherein the at least one piece of first posterior resource indication information indicates at least one reallocated time-frequency resource in the one or more first time-frequency resources; receiving, by the terminal device based on the PDCCH and the at least one piece of first posterior resource indication information, downlink data from the network device on time-frequency resource that is in the one or more first time-frequency resources and that is not overlapped with the at least one reallocated time-frequency resource; and skipping, by the terminal, demodulation or decoding, according to the first PDCCH and the at least one piece of first posterior resource indication information, data carried on the at least one reallocated time-frequency resource.
A field device commissioning system , comprising a commissioning tool configured to communicate with a field device and a repository : characterized in that the commissioning tool is configured to: determine, from a control system loop information file in the repository , if the field device is configured as an input or output device; when the field device is determined to be configured as the input device, determine, from a protocol device registration file in the repository, if the field device is a pressure transmitter; when the field device is determined to be the pressure transmitter, determine, from a control system loop information file in the repository , if the field device is configured in the control system to measure flow; when the field device is determined to be configured in the control system to measure flow, determine, from the control system loop information file , a linearization type in the control system associated to the field device ; retrieve a linearization type of the field device from the field device ; and determine, using the retrieved linearization type of the field device and the determined linearization type in the control system associated to the field device , a linearization check result. determine, from a control system loop information file in the repository , if the field device is configured as an input or output device; when the field device is determined to be configured as the input device, determine, from a protocol device registration file in the repository, if the field device is a pressure transmitter; when the field device is determined to be the pressure transmitter, determine, from a control system loop information file in the repository , if the field device is configured in the control system to measure flow; when the field device is determined to be configured in the control system to measure flow, determine, from the control system loop information file , a linearization type in the control system associated to the field device ; retrieve a linearization type of the field device from the field device ; and determine, using the retrieved linearization type of the field device and the determined linearization type in the control system associated to the field device , a linearization check result.
Transport padding, comprising a foam padding body which has corners (1.3) and, when in a use position, has an upper and a lower side (1.1, 1.2), the upper side (1.1) being designed to receive an object to be transported, and the lower side (1.2) being designed as a standing surface, characterised in that each corner (1.3) is connected to the padding body via an easily breakable connecting region (1.4), and, after the connecting regions (1.4) have been broken off, the standing surface has an annular shape for the rolling transport of the object.
Computer implemented method for determining an entry of an occupancy map of a vicinity of a vehicle, the method comprising the following steps carried out by computer hardware components: - acquiring first sensor data of a first sensor of the vicinity of the vehicle; - acquiring second sensor data of a second sensor of the vicinity of the vehicle; - determining a first sensor data portion of the first sensor data which represents a potential object in the vicinity of the vehicle; - based on the first sensor data portion, determining a second sensor data portion of the second sensor data which corresponds to a location of the potential object; and - determining an entry of the occupancy map based on the first sensor data portion and the second sensor data portion; wherein the first sensor data portion is a first sensor patch of a pre-determined first sensor data portion size; wherein the second sensor data portion is a second sensor patch of a pre-determined second sensor data portion dimension size; and wherein the entry of the occupancy map is determined using an artificial neural network based on the first sensor data portion and the second sensor data portion. the method comprising the following steps carried out by computer hardware components: - acquiring first sensor data of a first sensor of the vicinity of the vehicle; - acquiring second sensor data of a second sensor of the vicinity of the vehicle; - determining a first sensor data portion of the first sensor data which represents a potential object in the vicinity of the vehicle; - based on the first sensor data portion, determining a second sensor data portion of the second sensor data which corresponds to a location of the potential object; and - determining an entry of the occupancy map based on the first sensor data portion and the second sensor data portion; - acquiring first sensor data of a first sensor of the vicinity of the vehicle; - acquiring second sensor data of a second sensor of the vicinity of the vehicle; - determining a first sensor data portion of the first sensor data which represents a potential object in the vicinity of the vehicle; - based on the first sensor data portion, determining a second sensor data portion of the second sensor data which corresponds to a location of the potential object; and - determining an entry of the occupancy map based on the first sensor data portion and the second sensor data portion; wherein the first sensor data portion is a first sensor patch of a pre-determined first sensor data portion size; wherein the second sensor data portion is a second sensor patch of a pre-determined second sensor data portion dimension size; and wherein the entry of the occupancy map is determined using an artificial neural network based on the first sensor data portion and the second sensor data portion.
A process for the production of sugars from biomass including at least one polysaccharide which comprises putting a biomass in contact with an aqueous solution of at least one organic acid said at least one organic acid being selected from alkyl-sulfonic acids having general formula (I): R-SO 3 H (I) wherein R represents a linear or branched C 1 -C 3 alkyl group, the pH of said aqueous solution being ranging from 0.6 to 1.6, preferably ranging from 0.9 to 1.3.
An apparatus for induction heating and wireless power transmission, the apparatus comprising: a first group of working coils comprising a first working coil (WC1) and a second working coil (WC2) that are electrically connected to each other in parallel; a first inverter (IV1) configured to perform a switching operation to generate a resonance current in at least one of the first working coil (WC1) or the second working coil (WC2); a first semiconductor switch (S1) electrically connected to the first working coil (WC1) and configured to turn on and turn off the first working coil (WC1); a second semiconductor switch (S2) electrically connected to the second working coil (WC2) and configured to turn on and turn off the second working coil (WC2); and a controller , characterized in that the controller is configured to: control operation of each of the first inverter (IV1), the first semiconductor switch (S1), and the second semiconductor switch (S2) to detect an attenuation degree of the resonance current generated in the at least one of the first working coil (WC1) or the second working coil (WC2), and detect whether an object is disposed above at least one of the first working coil (WC1) or the second working coil (WC2) based on the attenuation degree of the resonance current. a first group of working coils comprising a first working coil (WC1) and a second working coil (WC2) that are electrically connected to each other in parallel; a first inverter (IV1) configured to perform a switching operation to generate a resonance current in at least one of the first working coil (WC1) or the second working coil (WC2); a first semiconductor switch (S1) electrically connected to the first working coil (WC1) and configured to turn on and turn off the first working coil (WC1); a second semiconductor switch (S2) electrically connected to the second working coil (WC2) and configured to turn on and turn off the second working coil (WC2); and a controller , characterized in that the controller is configured to: control operation of each of the first inverter (IV1), the first semiconductor switch (S1), and the second semiconductor switch (S2) to detect an attenuation degree of the resonance current generated in the at least one of the first working coil (WC1) or the second working coil (WC2), and detect whether an object is disposed above at least one of the first working coil (WC1) or the second working coil (WC2) based on the attenuation degree of the resonance current. control operation of each of the first inverter (IV1), the first semiconductor switch (S1), and the second semiconductor switch (S2) to detect an attenuation degree of the resonance current generated in the at least one of the first working coil (WC1) or the second working coil (WC2), and detect whether an object is disposed above at least one of the first working coil (WC1) or the second working coil (WC2) based on the attenuation degree of the resonance current.