mhurhangee/patent-ind-claim-en huggingface dataset:
An impulse generator comprising: a first substrate ; a first conductive film layer on the first substrate ; an insulation film layer on the first conductive film layer ; a second substrate ; a second conductive film layer on the second substrate ; and an elastic connection body for connecting the first substrate with the second substrate such that the insulation film layer and the second conductive film layer face each other; wherein, when no external force is applied on the first substrate or the second substrate , the insulation film layer is separated from the second conductive film layer , and, when an external force is applied on the first substrate or the second substrate , the insulation film layer contacts with the second conductive film layer to generate a surface charge transfer between the insulation film layer and the second conductive film layer , characterized in that when no external force is applied on the first substrate or the second substrate, a distance between the insulation film layer and the second conductive film layer is greater than a thickness of the insulation film layer by one or more order of magnitude. a first substrate ; a first conductive film layer on the first substrate ; an insulation film layer on the first conductive film layer ; a second substrate ; a second conductive film layer on the second substrate ; and an elastic connection body for connecting the first substrate with the second substrate such that the insulation film layer and the second conductive film layer face each other; wherein, when no external force is applied on the first substrate or the second substrate , the insulation film layer is separated from the second conductive film layer , and, when an external force is applied on the first substrate or the second substrate , the insulation film layer contacts with the second conductive film layer to generate a surface charge transfer between the insulation film layer and the second conductive film layer , characterized in that when no external force is applied on the first substrate or the second substrate, a distance between the insulation film layer and the second conductive film layer is greater than a thickness of the insulation film layer by one or more order of magnitude.
A preparation method of a fat-soluble nutrient microcapsule, comprising the following components in percentage by weight: a fat-soluble nutrient 0.2-51.6%; an antioxidant 0.2-5.0%; a wall material 41.4-97.6%; and water 2.0-5.0%; wherein the ratio of the fat-soluble nutrient that keeps active in the fat-soluble nutrient microcapsule to the fat-soluble nutrient that is initially added is 0.990-0.997: 1; the method comprising the steps of emulsifying or dispersing a molten fat-soluble nutrient oil phase or pre-dispersion containing a fat-soluble core material and an aqueous phase containing a water-soluble wall material by mixing or passing respectively into a multistage series cavitation emulsifier under a high pressure of 100-500 MPa to obtain an emulsion solution or a dispersion solution, and getting a fat-soluble nutrient microcapsule by spray granulation and drying of the obtained emulsion solution or dispersion solution. wherein the ratio of the fat-soluble nutrient that keeps active in the fat-soluble nutrient microcapsule to the fat-soluble nutrient that is initially added is 0.990-0.997: 1; the method comprising the steps of emulsifying or dispersing a molten fat-soluble nutrient oil phase or pre-dispersion containing a fat-soluble core material and an aqueous phase containing a water-soluble wall material by mixing or passing respectively into a multistage series cavitation emulsifier under a high pressure of 100-500 MPa to obtain an emulsion solution or a dispersion solution, and getting a fat-soluble nutrient microcapsule by spray granulation and drying of the obtained emulsion solution or dispersion solution.
An optical particle sensor comprising: - at least one light source configured to emit light rays , - at least one channel for accommodating a fluid transporting at least one particle , and for receiving at least some of the light rays emitted by the at least one source , so that said light rays are partly scattered by the at least one particle , - at least one photodetector able to receive said scattered light rays , said at least one source has an emission face facing one side (D) of the sensor and in that the at least one photodetector has a reception face facing the same side (D) of the sensor , so that light rays received by the at least one photodetector are light rays backscattered by the at least one particle , for at least 90% of them, said emission and reception faces being parallel to each other, and the at least one source and the at least one photodetector being disposed around the at least one channel and transversely to said at least one channel , said sensor being characterised in that said emission and reception faces are perpendicular to a main direction of flow of the fluid transporting the at least one particle. - at least one light source configured to emit light rays , - at least one channel for accommodating a fluid transporting at least one particle , and for receiving at least some of the light rays emitted by the at least one source , so that said light rays are partly scattered by the at least one particle , - at least one photodetector able to receive said scattered light rays , said at least one source has an emission face facing one side (D) of the sensor and in that the at least one photodetector has a reception face facing the same side (D) of the sensor , so that light rays received by the at least one photodetector are light rays backscattered by the at least one particle , for at least 90% of them, said emission and reception faces being parallel to each other, and the at least one source and the at least one photodetector being disposed around the at least one channel and transversely to said at least one channel , said sensor being characterised in that said emission and reception faces are perpendicular to a main direction of flow of the fluid transporting the at least one particle.
A system comprising an electronically controlled smoker or grill and a cloud computing platform , wherein the smoker or grill comprises: one or more manual controls such as buttons or knobs , a display allowing a user to input customized smoking cycles or modify existing smoking cycles, and the cloud computing platform is configured for communicating with and controlling operation of the smoker or grill , the cloud computing platform comprising a hardware processor , a receiver configured to receive inputs from a smart phone including a first input indicating that the smoker or grill is permitted to communicate with the cloud computing platform , if such communication is permitted by the user, the system is configured to establish communication between the smoker or grill and an access point that permits flow of control inputs between the grill or smoker and the cloud computing platform and/or between the grill or smoker and the smart phone , to enable the user to control the smoker or grill from any location that has internet access, and wherein the system is configured to disable an ignition functionality unless the smart phone is within a specified distance of the smoker or grill . one or more manual controls such as buttons or knobs , a display allowing a user to input customized smoking cycles or modify existing smoking cycles, and the cloud computing platform is configured for communicating with and controlling operation of the smoker or grill , the cloud computing platform comprising a hardware processor , a receiver configured to receive inputs from a smart phone including a first input indicating that the smoker or grill is permitted to communicate with the cloud computing platform , if such communication is permitted by the user, the system is configured to establish communication between the smoker or grill and an access point that permits flow of control inputs between the grill or smoker and the cloud computing platform and/or between the grill or smoker and the smart phone , to enable the user to control the smoker or grill from any location that has internet access, and wherein the system is configured to disable an ignition functionality unless the smart phone is within a specified distance of the smoker or grill .
An information processing apparatus comprising: a sensor unit configured to acquire a captured image; a detection unit configured to detect an object from the captured image, the object including a targeted point; a clipping unit configured to clip a periphery of the object from the captured image into a predetermined shape and provide an input image; a targeted point estimation unit configured to identify probability maps indicating existence probabilities of the targeted point in a plurality of projection directions on a basis of the input image; and a synthesis unit configured to identify a three-dimensional position of the targeted point on a basis of the probability maps in the plurality of projection directions, wherein the synthesis unit is configured to acquire the two-dimensional positions having the maximum values in the respective probability maps from the probability map in each projection direction and to identify the three-dimensional position of the targeted point on a basis of the two-dimensional positions. a sensor unit configured to acquire a captured image; a detection unit configured to detect an object from the captured image, the object including a targeted point; a clipping unit configured to clip a periphery of the object from the captured image into a predetermined shape and provide an input image; a targeted point estimation unit configured to identify probability maps indicating existence probabilities of the targeted point in a plurality of projection directions on a basis of the input image; and a synthesis unit configured to identify a three-dimensional position of the targeted point on a basis of the probability maps in the plurality of projection directions, wherein the synthesis unit is configured to acquire the two-dimensional positions having the maximum values in the respective probability maps from the probability map in each projection direction and to identify the three-dimensional position of the targeted point on a basis of the two-dimensional positions.
A method for operating a power plant , the power plant comprising at least one gas turbine engine and at least one fuel gas compressor (53. 54, 55), the method comprising supplying fuel gas through a utility supply line , wherein the fuel gas in the utility supply line is at a line supply pressure; compressing the fuel gas to a plant supply pressure in at least one operating fuel gas compressor and supplying the compressed fuel gas to a plant supply line ; operating the at least one gas turbine engine at a set power output according to a power demand signal, and detecting whether an operating fuel gas compressor has a failure; characterized by , if a failure of an operating fuel gas compressor is detected, reducing the power output of the at least one gas turbine engine to an emergency power output which is lower than the set power output and restricting the power output of the at least one gas turbine engine to the emergency power output; wherein the reduction of the power output is performed in one single step and controlled by at least one feedforward control signal. supplying fuel gas through a utility supply line , wherein the fuel gas in the utility supply line is at a line supply pressure; compressing the fuel gas to a plant supply pressure in at least one operating fuel gas compressor and supplying the compressed fuel gas to a plant supply line ; operating the at least one gas turbine engine at a set power output according to a power demand signal, and detecting whether an operating fuel gas compressor has a failure; characterized by , if a failure of an operating fuel gas compressor is detected, reducing the power output of the at least one gas turbine engine to an emergency power output which is lower than the set power output and restricting the power output of the at least one gas turbine engine to the emergency power output; wherein the reduction of the power output is performed in one single step and controlled by at least one feedforward control signal.
A discharge lamp drive device comprising: a discharge lamp drive section adapted to supply a drive current to a discharge lamp having a first electrode and a second electrode ; a control section adapted to control the discharge lamp drive section; and a voltage detection section adapted to detect an inter-electrode voltage between the first and second electrodes of the discharge lamp, characterised in that the discharge lamp drive device further comprises a storage section adapted to store a plurality of drive patterns of the drive current, and in that the control section is adapted to perform a machine learning evaluation of the plurality of drive patterns based on a change in the inter-electrode voltage (VIa) to select any one of the drive patterns based on the machine learning evaluation, and to execute the drive pattern selected. a discharge lamp drive section adapted to supply a drive current to a discharge lamp having a first electrode and a second electrode ; a control section adapted to control the discharge lamp drive section; and a voltage detection section adapted to detect an inter-electrode voltage between the first and second electrodes of the discharge lamp, characterised in that the discharge lamp drive device further comprises a storage section adapted to store a plurality of drive patterns of the drive current, and in that the control section is adapted to perform a machine learning evaluation of the plurality of drive patterns based on a change in the inter-electrode voltage (VIa) to select any one of the drive patterns based on the machine learning evaluation, and to execute the drive pattern selected.
A downlink control information transmission method, wherein the method comprises: determining, by a network device, a first resource set based on M resource subsets into which target resources are divided, wherein the M resource subsets do not overlap in frequency domain, and each resource subset comprises at least one control channel bearing resource unit, M is an integer, and M ≥ 2; the first resource set comprises N control channel bearing resource units, at least two of the N control channel bearing resource units belong to different resource subsets, and at least two of the N control channel bearing resource units are inconsecutive in frequency domain, N ≥ 2; wherein each of the N control channel bearing resource units includes at least two resource element groups, REGs, at least two REGs included in each control channel bearing resource unit are consecutive in frequency domain, each REG comprises a plurality of resource elements, REs; and sending (S230), by the network device, downlink control information on the first resource set. determining, by a network device, a first resource set based on M resource subsets into which target resources are divided, wherein the M resource subsets do not overlap in frequency domain, and each resource subset comprises at least one control channel bearing resource unit, M is an integer, and M ≥ 2; the first resource set comprises N control channel bearing resource units, at least two of the N control channel bearing resource units belong to different resource subsets, and at least two of the N control channel bearing resource units are inconsecutive in frequency domain, N ≥ 2; wherein each of the N control channel bearing resource units includes at least two resource element groups, REGs, at least two REGs included in each control channel bearing resource unit are consecutive in frequency domain, each REG comprises a plurality of resource elements, REs; and sending (S230), by the network device, downlink control information on the first resource set.
A computer-implemented method, comprising: generating a velocity model based upon seismic waveforms via a velocity model builder; receiving data representative of a physical attribute of an area surrounding one or more wells, wherein the data comprises a sediment velocity of a formation in a region of a subsurface filled with brine; generating an attribute model based upon the velocity model and the data; and rendering an image based upon the attribute model for use with seismic exploration above the region comprising a hydrocarbon reservoir and containing structural or stratigraphic features conducive to a presence, migration, or accumulation of hydrocarbons. generating a velocity model based upon seismic waveforms via a velocity model builder; receiving data representative of a physical attribute of an area surrounding one or more wells, wherein the data comprises a sediment velocity of a formation in a region of a subsurface filled with brine; generating an attribute model based upon the velocity model and the data; and rendering an image based upon the attribute model for use with seismic exploration above the region comprising a hydrocarbon reservoir and containing structural or stratigraphic features conducive to a presence, migration, or accumulation of hydrocarbons.
A metal closed switchgear , an internal space of which is divided into a plurality of compartments by partition walls , wherein some of the partition walls are provided with an explosion proof filter , characterized in that the explosion proof filter employs a sintered metal material and includes a metal holder mounted to the partition wall and supportively fixing the sintered metal material in position, wherein the explosion proof filter includes an elastic body disposed between the sintered metal material and a support member for supportively fixing the sintered metal material in position and wherein the sintered metal material is slidably inserted in a recess of the metal holder and supportively fixed between the support member and the metal holder . wherein some of the partition walls are provided with an explosion proof filter , characterized in that the explosion proof filter employs a sintered metal material and includes a metal holder mounted to the partition wall and supportively fixing the sintered metal material in position, wherein the explosion proof filter includes an elastic body disposed between the sintered metal material and a support member for supportively fixing the sintered metal material in position and wherein the sintered metal material is slidably inserted in a recess of the metal holder and supportively fixed between the support member and the metal holder .
Vehicle awning comprising an awning cloth and awning arms (3, 3', 3", 3"') which are mounted at one of the ends thereof so as to be pivotable about a pivot axis (S1, S2), characterized in that the pivot axis (S1, S2) of at least two awning arms ; (3", 3"') matches and the pivot axis at least two awning arms (3, 3"); (3', 3"') does not match, and awning arms (3, 3', 3", 3"') are arranged side by side and one above the other when the awning is in the closed state.
Crystal form A of a compound of formula (I) having an X-ray powder diffraction pattern with characteristic diffraction peaks at 2θ angles: 8.40 ± 0.2°, 13.46 ± 0.2°, and 14.13 ± 0.2°,
A device comprising at least one electromechanical system having an input and at least one output, and an electronic control unit comprising both a servo control loop connecting together the input and the output of the electromechanical system, and also a digital corrector, the device being characterized in that it includes a software module having an input connected to the output of the electromechanical system and an output connected to an input of electromechanical system, and in that , for each frequency in a set of frequencies that are to be analyzed, the software module is programmed: · to generate at least one sinusoidal excitation signal (P); · to issue the sinusoidal excitation signal on its output and to recover a response signal on its input; · to model the response signal by means of a Fresnel representation and to filter it about the excitation frequency by means of at least one Kalman filter in order to obtain a state vector of the filtered response signal; · to multiply the state vector by a rotation matrix in order to obtain a real part and an imaginary part; and · to perform complex number division to obtain at least one transfer function for the system from the model, from the excitation signal, and from the input signal. · to generate at least one sinusoidal excitation signal (P); · to issue the sinusoidal excitation signal on its output and to recover a response signal on its input; · to model the response signal by means of a Fresnel representation and to filter it about the excitation frequency by means of at least one Kalman filter in order to obtain a state vector of the filtered response signal; · to multiply the state vector by a rotation matrix in order to obtain a real part and an imaginary part; and · to perform complex number division to obtain at least one transfer function for the system from the model, from the excitation signal, and from the input signal.
A method of preparing a pharmaceutical composition comprising: coating Ibuprofen with a first coating material to form coated Ibuprofen, wherein the first coating material comprises one or more deformable components; applying mechanical stress to the coated Ibuprofen to deform the one or more deformable components; coating the coated Ibuprofen with a second coating material comprising silica; applying mechanical stress to embed the second coating material onto the first coating material of the coated Ibuprofen; sieving the coated Ibuprofen to remove excess first coating material, wherein the excess first coating material comprises first coating material not bound to the coated Ibuprofen; forming a pharmaceutical suspension comprising the twice coated Ibuprofen and a matrix solution or suspension; and dosing the pharmaceutical suspension into a mold; and freeze drying the dosed pharmaceutical suspension in the mold to form a pharmaceutical composition. coating Ibuprofen with a first coating material to form coated Ibuprofen, wherein the first coating material comprises one or more deformable components; applying mechanical stress to the coated Ibuprofen to deform the one or more deformable components; coating the coated Ibuprofen with a second coating material comprising silica; applying mechanical stress to embed the second coating material onto the first coating material of the coated Ibuprofen; sieving the coated Ibuprofen to remove excess first coating material, wherein the excess first coating material comprises first coating material not bound to the coated Ibuprofen; forming a pharmaceutical suspension comprising the twice coated Ibuprofen and a matrix solution or suspension; and dosing the pharmaceutical suspension into a mold; and freeze drying the dosed pharmaceutical suspension in the mold to form a pharmaceutical composition.
A method of manufacturing an inkjet print head , the inkjet print head comprising a silicon part having at least a part of a fluidic path (44-47) arranged therein, the method comprising the steps of: • electrically connecting the silicon part to an electrical source ; • providing an alkaline fluid in the fluidic path (44-47); • electrically connecting the alkaline fluid to the electrical source ; characterized by the step of: • applying a voltage over the alkaline fluid and the silicon part, wherein the voltage is higher than a passivation voltage to form an oxide layer on a surface part of the silicon part, which surface part is in contact with the alkaline fluid. • electrically connecting the silicon part to an electrical source ; • providing an alkaline fluid in the fluidic path (44-47); • electrically connecting the alkaline fluid to the electrical source ; • applying a voltage over the alkaline fluid and the silicon part, wherein the voltage is higher than a passivation voltage to form an oxide layer on a surface part of the silicon part, which surface part is in contact with the alkaline fluid.