mhurhangee/patent-ind-claim-en huggingface dataset:
A device for accurate wind measurement, the device comprising: a bench carrying a camera having camera optics; a moving object connected to said camera by a string ; and a digital signal processor (DSP) or a computer ; characterized by: said camera being generally directed downward and taking images of said object's movement while influenced by gravity and aerodynamic forces; said camera being configured to stream the images to a digital signal processor or computer, and said digital signal processor or computer being adapted to decode the images and compute the object location and spatial angles. a bench carrying a camera having camera optics; a moving object connected to said camera by a string ; and a digital signal processor (DSP) or a computer ; characterized by: said camera being generally directed downward and taking images of said object's movement while influenced by gravity and aerodynamic forces; said camera being configured to stream the images to a digital signal processor or computer, and said digital signal processor or computer being adapted to decode the images and compute the object location and spatial angles. said camera being generally directed downward and taking images of said object's movement while influenced by gravity and aerodynamic forces; said camera being configured to stream the images to a digital signal processor or computer, and said digital signal processor or computer being adapted to decode the images and compute the object location and spatial angles.
A transducer modulus (11; 51; 91), comprising a supporting substrate and a cap , which extends over the supporting substrate and defines therewith a chamber , characterized in that it further comprises: a first MEMS transducer (12'; 53), which has a first sensitive element (19; 59) facing the chamber and configured to detect a first environmental quantity and generating a first transduced signal exclusively as a function of the first environmental quantity detected; and a second MEMS transducer (12"; 54), which has a second sensitive element (29; 69) facing the supporting substrate and configured to detect a second environmental quantity and generate a second transduced signal exclusively as a function of the second environmental quantity detected, wherein said cap has a first window configured to form an access path of the first environmental quantity towards the first sensitive element (19; 59) only, and the supporting substrate has a second window configured to form an access path of the second environmental quantity towards the second sensitive element (29; 69) only, and wherein: i) the first MEMS transducer (12'; 53) and the second MEMS transducer (12"; 54) are integrated on opposite sides of a same monolithic body of semiconductor material, or ii) the first MEMS transducer (12'; 53) is integrated in a first chip and the second MEMS transducer (12"; 54) is integrated in a second chip , the first and second chips being stacked on one another. a first MEMS transducer (12'; 53), which has a first sensitive element (19; 59) facing the chamber and configured to detect a first environmental quantity and generating a first transduced signal exclusively as a function of the first environmental quantity detected; and a second MEMS transducer (12"; 54), which has a second sensitive element (29; 69) facing the supporting substrate and configured to detect a second environmental quantity and generate a second transduced signal exclusively as a function of the second environmental quantity detected, wherein said cap has a first window configured to form an access path of the first environmental quantity towards the first sensitive element (19; 59) only, and the supporting substrate has a second window configured to form an access path of the second environmental quantity towards the second sensitive element (29; 69) only, and wherein: i) the first MEMS transducer (12'; 53) and the second MEMS transducer (12"; 54) are integrated on opposite sides of a same monolithic body of semiconductor material, or ii) the first MEMS transducer (12'; 53) is integrated in a first chip and the second MEMS transducer (12"; 54) is integrated in a second chip , the first and second chips being stacked on one another. i) the first MEMS transducer (12'; 53) and the second MEMS transducer (12"; 54) are integrated on opposite sides of a same monolithic body of semiconductor material, or ii) the first MEMS transducer (12'; 53) is integrated in a first chip and the second MEMS transducer (12"; 54) is integrated in a second chip , the first and second chips being stacked on one another.
A personal care composition comprising: a surfactant system; taurine; and a deposition aid comprising a vinylimidazolium vinyl pyrrolidone copolymer. a surfactant system; taurine; and a deposition aid comprising a vinylimidazolium vinyl pyrrolidone copolymer.
A composite panel suitable for heating an environment, the panel comprising: a face sheet abutting the environment and comprising a 3D woven structure, the 3D woven structure comprising: at least one z-fiber extending in a first direction, the first direction representing a thickness of the face sheet; a plurality of weft layers , each of the weft layers comprising a weft fiber extending in a second direction; a warp layer disposed between the plurality of weft layers, the warp layer comprising a warp fiber extending in a third direction; wherein the at least one z-fiber extends along the plurality of weft layers across a full extent of the 3D woven structure in the first direction; a first core layer positioned on a side of the face sheet opposite the environment; characterised in that the first core layer comprises a high-density honeycomb core formed from aluminum; and further comprising, a second core layer disposed on a side of the first core layer opposite the face sheet, wherein the second core layer comprises a polymer foam or polymer honeycomb. a face sheet abutting the environment and comprising a 3D woven structure, the 3D woven structure comprising: at least one z-fiber extending in a first direction, the first direction representing a thickness of the face sheet; a plurality of weft layers , each of the weft layers comprising a weft fiber extending in a second direction; a warp layer disposed between the plurality of weft layers, the warp layer comprising a warp fiber extending in a third direction; wherein the at least one z-fiber extends along the plurality of weft layers across a full extent of the 3D woven structure in the first direction; a first core layer positioned on a side of the face sheet opposite the environment; characterised in that the first core layer comprises a high-density honeycomb core formed from aluminum; and further comprising, a second core layer disposed on a side of the first core layer opposite the face sheet, wherein the second core layer comprises a polymer foam or polymer honeycomb. at least one z-fiber extending in a first direction, the first direction representing a thickness of the face sheet; a plurality of weft layers , each of the weft layers comprising a weft fiber extending in a second direction; a warp layer disposed between the plurality of weft layers, the warp layer comprising a warp fiber extending in a third direction; wherein the at least one z-fiber extends along the plurality of weft layers across a full extent of the 3D woven structure in the first direction; a first core layer positioned on a side of the face sheet opposite the environment; characterised in that the first core layer comprises a high-density honeycomb core formed from aluminum; and further comprising, a second core layer disposed on a side of the first core layer opposite the face sheet, wherein the second core layer comprises a polymer foam or polymer honeycomb.
A path selection method, comprising: receiving , by a third device, M pieces of discovery information, wherein an m th discovery information of the M pieces of discovery information comprises an ID of the third device, an ID of a second device, and IDs of N m relay devices, or the m th discovery information of the M pieces of discovery information comprises the ID of the second device and the IDs of the N m relay devices, wherein M and N m are positive integers, and m is an integer within [1, M]; determining , by the third device, one piece of discovery information of the M pieces of discovery information as first discovery information, and generating first path information according to the first discovery information, wherein the first path information comprises an ID of a relay device, the ID of the third device, and the ID of the second device included in the first discovery information, or the first path information comprises the IDs of the relay devices and the ID of the second device included in the first discovery information; and sending , by the third device, the first path information, wherein the first path information further comprises duration information of the first path information, wherein the duration information of the first path information is used to indicate validity duration of the first path information. receiving , by a third device, M pieces of discovery information, wherein an m th discovery information of the M pieces of discovery information comprises an ID of the third device, an ID of a second device, and IDs of N m relay devices, or the m th discovery information of the M pieces of discovery information comprises the ID of the second device and the IDs of the N m relay devices, wherein M and N m are positive integers, and m is an integer within [1, M]; determining , by the third device, one piece of discovery information of the M pieces of discovery information as first discovery information, and generating first path information according to the first discovery information, wherein the first path information comprises an ID of a relay device, the ID of the third device, and the ID of the second device included in the first discovery information, or the first path information comprises the IDs of the relay devices and the ID of the second device included in the first discovery information; and sending , by the third device, the first path information, wherein the first path information further comprises duration information of the first path information, wherein the duration information of the first path information is used to indicate validity duration of the first path information.
Consumption data module having a memory for consumption data, a control and/or regulating unit , communication means for consumption data transmission, a metrological measuring unit for capturing the consumption data, and a module for managing keys (Sl-n) for software-related authorizations that is in the form of a hardware and/or software component, wherein there is provision for various keys (Sl-n) for different software-related authorizations, and wherein the software-related authorizations stipulated in the consumption data module are command authorizations, characterized in that the metrological measuring unit holds the metrological properties, which include the following properties individually or in combination: standardization, calibration and alignment, of the consumption data module , and in that the metrological properties in the metrological measuring unit are protected by a software-related authorization that includes write rights.
A movable machine , comprising a safety system , a safety controller , a localization system , a distance sensor for an at least areal monitoring of a monitored zone, and a contour recognition unit , wherein a position of a safe location can be identified by means of the localization system , wherein the localization system determines a position of the movable machine on a surface or in space, wherein the position determination takes place locally by means of radio, by an ultra-wideband system (UWB), and a contour of the safe location can be identified by means of the distance sensor and the contour recognition unit , wherein the safe location can be uniquely identified by two mutually independent features, wherein the features are the position and the contour of the safe location , wherein the safe location is identified by a redundant, diverse system, wherein a change in the safety function of the safety system takes place by means of the safety controller on an identification of the position of the safe location and of the contour of the safe location , wherein the localization system determines a position of the movable machine on a surface or in space, wherein the localization system has a map or a map model, wherein the safe locations are entered in the map or the map model, wherein the position of the safe location respectively has at least one position identifier, wherein the contour of a safe location respectively has at least one contour identifier and the contour identifier and the position identifier of a safe location are linked via a correlation rule. a position of a safe location can be identified by means of the localization system , wherein the localization system determines a position of the movable machine on a surface or in space, wherein the position determination takes place locally by means of radio, by an ultra-wideband system (UWB), and a contour of the safe location can be identified by means of the distance sensor and the contour recognition unit , wherein the safe location can be uniquely identified by two mutually independent features, wherein the features are the position and the contour of the safe location , wherein the safe location is identified by a redundant, diverse system, wherein a change in the safety function of the safety system takes place by means of the safety controller on an identification of the position of the safe location and of the contour of the safe location , wherein the localization system determines a position of the movable machine on a surface or in space, wherein the localization system has a map or a map model, wherein the safe locations are entered in the map or the map model, wherein the position of the safe location respectively has at least one position identifier, wherein the contour of a safe location respectively has at least one contour identifier and the contour identifier and the position identifier of a safe location are linked via a correlation rule.
An outlet device (10; 110) of a solid bowl screw centrifuge for separating a multi-phase material , which outlet device is arranged on an end wall of a centrifuge drum , which rotates about a longitudinal axis , at an outlet opening arranged in the end wall , and which comprises a deflecting apparatus for deflecting a fluid of the material that has passed through the outlet opening in the direction toward the end wall circumference , in which the deflecting apparatus has a distance element having a deflecting distance , which distance element is arranged to be spaced from the longitudinal axis by a distance radius , along which deflecting distance the deflected fluid can be conducted in the direction toward the end wall circumference before being thrown off laterally by the outlet device (10; 110), wherein the outlet device (10; 110) comprises guiding means arranged downstream behind the deflecting distance , and by means of which the deflected fluid can be brought to an energetically lower positional potential in the gravitation field of the solid bowl screw centrifuge before being thrown off by the outlet device (10; 110), wherein the guiding means are configured such that the fluid conducted along the deflecting distance can be guided starting from the distance radius to a throw-off radius situated radially further outward, before being thrown off by the outlet device (10; 110), wherein the outlet device (10; 110) comprises a weir element arranged to be spaced from the longitudinal axis by a weir radius , wherein the throw-off radius of the outlet device (10; 110) is larger than the weir radius , wherein a weir edge is formed by means of the weir element over the entire deflecting distance of the distance element , which weir edge defines the weir radius , wherein the weir radius corresponds to the distance radius .
A method performed by a system, comprising: a server as an information system ; and a set of computer executable instructions configured to be installed on client devices , the set of computer executable instructions, when executed by a processing unit of a client device , configure the processing unit to implement at least one of an information transmitting client system and an information receiving client system; wherein the information transmitting client system receives from the server a random number corresponding to a target information; and provides the random number to an information receiving client system of another client device by broadcasting the random number as a service set identifier through a beacon frame of a wireless communication protocol; and wherein the information receiving client system of the other client device obtains the random number; and receives from the server the target information through submitting the random number to the server. a server as an information system ; and a set of computer executable instructions configured to be installed on client devices , the set of computer executable instructions, when executed by a processing unit of a client device , configure the processing unit to implement at least one of an information transmitting client system and an information receiving client system; wherein the information transmitting client system receives from the server a random number corresponding to a target information; and provides the random number to an information receiving client system of another client device by broadcasting the random number as a service set identifier through a beacon frame of a wireless communication protocol; and wherein the information receiving client system of the other client device obtains the random number; and receives from the server the target information through submitting the random number to the server.
A rubber composition for tires, comprising a rubber component comprising at least 80% by mass in total of at least one of an isoprene-based rubber, a polybutadiene rubber, or a styrene-butadiene rubber, the rubber composition comprising, per 100 parts by mass of the rubber component, 3 to 250 parts by mass of a reinforcing filler and 0.2 to 10 parts by mass of a tetrazine compound represented by the following formula : wherein R 1 and R 2 may be the same or different and each represent a hydrogen atom, -COOR 3 in which R 3 represents either a hydrogen atom or an alkyl group, or a C1-C11 monovalent hydrocarbon group optionally containing a heteroatom, and R 1 and R 2 may each form a salt, the rubber composition comprising a hydrocarbon resin, the rubber composition satisfying the equation: Y/X = 3 to 100 wherein X and Y denote amounts of the tetrazine compound and the resin, respectively, per 100 parts by mass of the rubber component. the rubber composition comprising, per 100 parts by mass of the rubber component, 3 to 250 parts by mass of a reinforcing filler and 0.2 to 10 parts by mass of a tetrazine compound represented by the following formula : wherein R 1 and R 2 may be the same or different and each represent a hydrogen atom, -COOR 3 in which R 3 represents either a hydrogen atom or an alkyl group, or a C1-C11 monovalent hydrocarbon group optionally containing a heteroatom, and R 1 and R 2 may each form a salt, the rubber composition comprising a hydrocarbon resin, the rubber composition satisfying the equation: Y/X = 3 to 100 wherein X and Y denote amounts of the tetrazine compound and the resin, respectively, per 100 parts by mass of the rubber component.
A method for separating partial discharge and noise signals, the method comprises: receiving digital signals that are converted from waveforms of signals collected from a source; generating a feature from a time domain for each of the digital signals; generating a plurality of features from a frequency domain for each of the digital signals; applying clustering algorithm on the generated features for all the digital signals to identify a plurality of distinct clusters; and displaying each distinct cluster on a Phase-Resolved Partial Discharge (PRPD) chart; characterised in that the step of generating the feature from the time domain for each of the digital signals comprises: determining histogram bin width and the number of bins for all measured amplitudes in the digital signals, wherein the histogram bin width and the number of bins are determined via Freedman-Diaconis (FD) rule; associating all measured amplitudes with their respective bin values; building a global probability table; and encoding information in the global probability table to generate the feature. receiving digital signals that are converted from waveforms of signals collected from a source; generating a feature from a time domain for each of the digital signals; generating a plurality of features from a frequency domain for each of the digital signals; applying clustering algorithm on the generated features for all the digital signals to identify a plurality of distinct clusters; and displaying each distinct cluster on a Phase-Resolved Partial Discharge (PRPD) chart; characterised in that the step of generating the feature from the time domain for each of the digital signals comprises: determining histogram bin width and the number of bins for all measured amplitudes in the digital signals, wherein the histogram bin width and the number of bins are determined via Freedman-Diaconis (FD) rule; associating all measured amplitudes with their respective bin values; building a global probability table; and encoding information in the global probability table to generate the feature.
A tire comprising: at least one annular structure configured to interface with a wheel ; a circumferential tread disposed in a crown region of the tire ; and characterised in that the tire further comprises a plurality of packages having magnetic particles and an erodible medium, disposed within the circumferential tread, wherein in each package the magnetic particles are distributed along a gradient of increasing concentration, and wherein each package is a tread insert , each tread insert having an erodible medium with magnetic particles disposed therein, wherein each tread insert has a first tier including magnetic particles at a first concentration, a second tier including magnetic particles at a second concentration less than or equal to the first concentration, and a third tier including magnetic particles at a third concentration less than the first concentration. at least one annular structure configured to interface with a wheel ; a circumferential tread disposed in a crown region of the tire ; and characterised in that the tire further comprises a plurality of packages having magnetic particles and an erodible medium, disposed within the circumferential tread, wherein in each package the magnetic particles are distributed along a gradient of increasing concentration, and wherein each package is a tread insert , each tread insert having an erodible medium with magnetic particles disposed therein, wherein each tread insert has a first tier including magnetic particles at a first concentration, a second tier including magnetic particles at a second concentration less than or equal to the first concentration, and a third tier including magnetic particles at a third concentration less than the first concentration.