mhurhangee/patent-ind-claim-en huggingface dataset:
A method for implementing data transmission, comprising: generating a second signal to-be-sent, wherein the second signal comprises multiple second sub-signals, and a subcarrier frequency spacing of each first sub-signal comprised in a first signal is M times as large as a subcarrier frequency spacing of each second sub-signal, wherein M is a positive integer greater than 1; and the second signal is adjacent to the first signal in a frequency domain; and performing the following operation on each second sub-signal: sending the second sub-signal carried on a subcarrier corresponding to a subcarrier frequency of the second sub-signal, wherein in the second signal, and in a range of a first preset frequency apart from a reference subcarrier frequency, at least one second sub-signal sent on at least one subcarrier corresponding to a subcarrier frequency whose difference from the reference subcarrier frequency is an integer multiple of the subcarrier frequency spacing of the first sub-signal is a non-zero signal, and all the second sub-signals sent on each subcarrier corresponding to a subcarrier frequency whose difference from the reference subcarrier frequency is a non-integer multiple of the subcarrier frequency spacing of the first sub-signal are zero signals, wherein the reference subcarrier frequency is a subcarrier frequency of the first sub-signal adjacent to the second signal in the frequency domain. generating a second signal to-be-sent, wherein the second signal comprises multiple second sub-signals, and a subcarrier frequency spacing of each first sub-signal comprised in a first signal is M times as large as a subcarrier frequency spacing of each second sub-signal, wherein M is a positive integer greater than 1; and the second signal is adjacent to the first signal in a frequency domain; and performing the following operation on each second sub-signal: sending the second sub-signal carried on a subcarrier corresponding to a subcarrier frequency of the second sub-signal, wherein in the second signal, and in a range of a first preset frequency apart from a reference subcarrier frequency, at least one second sub-signal sent on at least one subcarrier corresponding to a subcarrier frequency whose difference from the reference subcarrier frequency is an integer multiple of the subcarrier frequency spacing of the first sub-signal is a non-zero signal, and all the second sub-signals sent on each subcarrier corresponding to a subcarrier frequency whose difference from the reference subcarrier frequency is a non-integer multiple of the subcarrier frequency spacing of the first sub-signal are zero signals, wherein the reference subcarrier frequency is a subcarrier frequency of the first sub-signal adjacent to the second signal in the frequency domain.
A device , the device comprising: an image sensor configured to capture image data for an image in the image sensor's field of view, wherein the image data is captured based at least in part on rolling shutter exposure; one or more components configured to: receive an ambient light detection signal from a semiconductor component that receives ambient light and produces an ambient light detection signal based on the received ambient light ; determine a frequency of the ambient light based on analysis of the ambient light detection signal ; and for an exposure window for capturing portions of the image data according to the rolling shutter exposure, determine a modification to the window ,the modification based on the determined frequency of the ambient light ; for a modification that exceeds an exposure threshold, avoid the modification to the exposure window ; for a modification that does not exceed the exposure threshold, modify the exposure window according to the modification ; and capture the associated image in accordance with the exposure window . an image sensor configured to capture image data for an image in the image sensor's field of view, wherein the image data is captured based at least in part on rolling shutter exposure; one or more components configured to: receive an ambient light detection signal from a semiconductor component that receives ambient light and produces an ambient light detection signal based on the received ambient light ; determine a frequency of the ambient light based on analysis of the ambient light detection signal ; and for an exposure window for capturing portions of the image data according to the rolling shutter exposure, determine a modification to the window ,the modification based on the determined frequency of the ambient light ; for a modification that exceeds an exposure threshold, avoid the modification to the exposure window ; for a modification that does not exceed the exposure threshold, modify the exposure window according to the modification ; and capture the associated image in accordance with the exposure window . receive an ambient light detection signal from a semiconductor component that receives ambient light and produces an ambient light detection signal based on the received ambient light ; determine a frequency of the ambient light based on analysis of the ambient light detection signal ; and for an exposure window for capturing portions of the image data according to the rolling shutter exposure, determine a modification to the window ,the modification based on the determined frequency of the ambient light ; for a modification that exceeds an exposure threshold, avoid the modification to the exposure window ; for a modification that does not exceed the exposure threshold, modify the exposure window according to the modification ; and capture the associated image in accordance with the exposure window .
A galvanic oxygen sensor comprising: a housing , a cathode , a bismuth anode and an lead, aqueous electrolyte comprising a salt wherein the anode is free of characterized in that the electrolyte comprises a polyol.
A device for detecting a bending degree and warping degree of a silicon wafer of a solar cell, wherein the device comprises - a detecting mechanism configured to detect the bending degree and warping degree of the silicon wafer of the solar cell; - an uploading mechanism configured to grasp the silicon wafer of the solar cell and to place the silicon wafer of the solar cell on the detecting mechanism; and - a downloading mechanism configured to remove the detected silicon wafer of the solar cell from the detecting mechanism; and - a conveying mechanism ; wherein the detecting mechanism comprises a bracket and a detection box disposed on the bracket, and the conveying mechanism comprises a lifting mechanism (3;4), wherein the conveying mechanism is configured to support the silicon wafer of the solar cell to be detected being forwarded from a side of the uploading mechanism through the detection box to a side of the downloading mechanism, wherein the lifting mechanism (3;4) comprises a lower carrier plate and a lifting cylinder disposed at the bottom of the lower carrier plate , wherein the lifting cylinder is configured to drive the lower carrier plate to move up and down, and wherein the conveying mechanism above the lower carrier plate is provided with a photoelectric sensor and with the detection box being located directly above the lower carrier plate , wherein the detection box is configured as a cylindrical empty box with an opening at a lower end, and wherein the lower carrier plate is sized to cover at least the opening at the lower end of the detection box , the detection box being internally provided with an image scanning assembly parallel to the lower carrier plate , the image scanning assembly comprises an upper cover , a scanning lamp , a reflector, a mirror, a CCD camera, an image processing system , a computer and a display, wherein the computer is installed with image processing software configured to cooperate with the image processing system , wherein the scanning lamp is located within an imaging chamber formed by the upper cover and the detection box , and is located above the upper cover, the scanning lamp , the reflector, the mirror and the CCD camera are optically connected, and the CCD camera is wired to the image processing system , the computer and the display. - a detecting mechanism configured to detect the bending degree and warping degree of the silicon wafer of the solar cell; - an uploading mechanism configured to grasp the silicon wafer of the solar cell and to place the silicon wafer of the solar cell on the detecting mechanism; and - a downloading mechanism configured to remove the detected silicon wafer of the solar cell from the detecting mechanism; and - a conveying mechanism ;
Epoxy resin composition comprising: A) at least one epoxy compound and B) a hardener composition consisting of: B1) 20%-40% by weight of at least one diamine and/or polyamine based on triacetonediamine and B2) 60%-80% by weight of at least one further diamine and/or polyamine selected from isophoronediamine, 4,4'-diaminodicyclohexylmethane, 2,4'-diaminodicyclohexylmethane, 2,2'-diaminodicyclohexylmethane, alone or in mixtures of the isomers, a mixture of the isomers of 2,2,4-trimethylhexamethylenediamine and 2,4,4-trimethylhexamethylenediamine, adduct hardeners based on the reaction products of epoxy compounds and di- and/or polyamines B2) or combinations of the aforementioned di- and/or polyamines B2) wherein the stoichiometric ratio of the epoxy groups of A) and the number of active hydrogen atoms of the functional groups of B) varies from 1:0.5 to 1:1, preferably 1:0.6 to 1:0.8, C) 0.1% to 10% by weight of at least one curing accelerator, D) optionally at least one latent hardener, wherein the amounts of A)-D) add up to 100% by weight, E) optionally further additives. A) at least one epoxy compound and B) a hardener composition consisting of: B1) 20%-40% by weight of at least one diamine and/or polyamine based on triacetonediamine and B2) 60%-80% by weight of at least one further diamine and/or polyamine selected from isophoronediamine, 4,4'-diaminodicyclohexylmethane, 2,4'-diaminodicyclohexylmethane, 2,2'-diaminodicyclohexylmethane, alone or in mixtures of the isomers, a mixture of the isomers of 2,2,4-trimethylhexamethylenediamine and 2,4,4-trimethylhexamethylenediamine, adduct hardeners based on the reaction products of epoxy compounds and di- and/or polyamines B2) or combinations of the aforementioned di- and/or polyamines B2) wherein the stoichiometric ratio of the epoxy groups of A) and the number of active hydrogen atoms of the functional groups of B) varies from 1:0.5 to 1:1, preferably 1:0.6 to 1:0.8, B1) 20%-40% by weight of at least one diamine and/or polyamine based on triacetonediamine and B2) 60%-80% by weight of at least one further diamine and/or polyamine selected from isophoronediamine, 4,4'-diaminodicyclohexylmethane, 2,4'-diaminodicyclohexylmethane, 2,2'-diaminodicyclohexylmethane, alone or in mixtures of the isomers, a mixture of the isomers of 2,2,4-trimethylhexamethylenediamine and 2,4,4-trimethylhexamethylenediamine, adduct hardeners based on the reaction products of epoxy compounds and di- and/or polyamines B2) or combinations of the aforementioned di- and/or polyamines B2) C) 0.1% to 10% by weight of at least one curing accelerator, D) optionally at least one latent hardener, wherein the amounts of A)-D) add up to 100% by weight, E) optionally further additives.
An aqueous dispersion comprising (a) an active agent which is a humic substance and (b) fumed silica, wherein: - the % by weight of the active agent with respect to the total weight of the dispersion is comprised from 20-50%; and - the weight ratio between the active agent and the fumed silica is comprised from 1.5:1 to 75:1, particularly from 1.5:1 to 60:1; and wherein the fumed silica is hydrophobic fumed silica. - the % by weight of the active agent with respect to the total weight of the dispersion is comprised from 20-50%; and - the weight ratio between the active agent and the fumed silica is comprised from 1.5:1 to 75:1, particularly from 1.5:1 to 60:1; and
Method for installation and/or maintenance of a flange connection comprising a plurality of screw connections (12.1 to 12.n) with a manually movable tool at least comprising a screw tensioning means , a processing unit and a screw identification sensor , wherein the steps are carried out: - assigning a one-to-one identification to each screw connection (12.1 to 12.n) of the flange connection , - determining a screw connection (12.1 to 12.n) to be tensioned, - positioning the tool on the screw connection (12.1 to 12.n) to be tensioned, - identifying the screw connection (12.1 to 12.n) by means of the screw identification sensor , - releasing the screw tensioning means by means of the processing unit , - tensioning the screw connection (12.1 to 12.n) by means of the screw tensioning means ; characterized in that - it is checked whether the tool or the screw tensioning means is placed correctly on the screw connection (12.1 to 12.n); and - the screw tensioning means is released when the result of this check is positive and/or the screw tensioning means is blocked or stopped when the result of this check is negative or not positive. - assigning a one-to-one identification to each screw connection (12.1 to 12.n) of the flange connection , - determining a screw connection (12.1 to 12.n) to be tensioned, - positioning the tool on the screw connection (12.1 to 12.n) to be tensioned, - identifying the screw connection (12.1 to 12.n) by means of the screw identification sensor , - releasing the screw tensioning means by means of the processing unit , - tensioning the screw connection (12.1 to 12.n) by means of the screw tensioning means ; characterized in that - it is checked whether the tool or the screw tensioning means is placed correctly on the screw connection (12.1 to 12.n); and - the screw tensioning means is released when the result of this check is positive and/or the screw tensioning means is blocked or stopped when the result of this check is negative or not positive.
A non-transitory processor-readable storage device including instructions which, when executed by one or more processors, cause the one or more processors to carry out a method of providing deferred state mutation, the method comprising: receiving information defining processes (110, 120, 130; 251) to be executed in parallel implementing part of a client application , wherein the received information includes explicit computer executable instructions, the explicit computer executable instructions configured to read and modify global states associated with each process; automatically generating computer executable instructions for each of the processes to create respective private views of global states for each of the processes; creating the respective private views by smart wrappers corresponding to each process, wherein a private view of a global state is created for a process when the global state is being written to by an explicit computer executable instruction of the process, but not when the global state is being read; automatically associating separate implicit computer executable instructions, the implicit computer executable instructions configured to modify respective private views of the global states, with corresponding explicit computer executable instructions that modify the global states, wherein the implicit computer executable instructions are executed during runtime of the client application instead of the respective explicit computer executable instructions; and resolving the private views of each global state when execution of the processes end. receiving information defining processes (110, 120, 130; 251) to be executed in parallel implementing part of a client application , wherein the received information includes explicit computer executable instructions, the explicit computer executable instructions configured to read and modify global states associated with each process; automatically generating computer executable instructions for each of the processes to create respective private views of global states for each of the processes; creating the respective private views by smart wrappers corresponding to each process, wherein a private view of a global state is created for a process when the global state is being written to by an explicit computer executable instruction of the process, but not when the global state is being read; automatically associating separate implicit computer executable instructions, the implicit computer executable instructions configured to modify respective private views of the global states, with corresponding explicit computer executable instructions that modify the global states, wherein the implicit computer executable instructions are executed during runtime of the client application instead of the respective explicit computer executable instructions; and resolving the private views of each global state when execution of the processes end.
A method of brazing a treatment area of a load-bearing gas turbine component , wherein the load-bearing component is a component being designed to support a structural load applied to the component , and wherein the component is a super alloy hot gas path component and comprises portions with different geometries, comprising: applying a repair material over the treatment area of one of the portions of the component ; positioning an induction brazing coil having a geometry corresponding to the treatment area over the repair material and the treatment area , being characterised in that : the induction brazing coil has at least a flexible portion which allows to accommodate a number of component geometries and includes a pair of coils or coil sections , wherein a first coil or coil section of the pair is positioned over repair material that is applied over the treatment area and a second coil or coil section of the pair is positioned over a surface opposite the treatment area ; and in that the method further comprises heating the repair material utilizing the induction brazing coil to a temperature sufficient to cause at least partial melting of the repair material , thereby effecting a brazed joint between the treatment area and the repair material . applying a repair material over the treatment area of one of the portions of the component ; positioning an induction brazing coil having a geometry corresponding to the treatment area over the repair material and the treatment area , being characterised in that : the induction brazing coil has at least a flexible portion which allows to accommodate a number of component geometries and includes a pair of coils or coil sections , wherein a first coil or coil section of the pair is positioned over repair material that is applied over the treatment area and a second coil or coil section of the pair is positioned over a surface opposite the treatment area ; and in that the method further comprises heating the repair material utilizing the induction brazing coil to a temperature sufficient to cause at least partial melting of the repair material , thereby effecting a brazed joint between the treatment area and the repair material .
A method of establishing a communication service, the method comprising: a first network function in a first communication network of a mobile radio communication network determining that the communication service requires an Identifier for service interworking with a second communication network; the first network function in the first communication network requesting an Identifier from a second network function in the first communication network of the mobile radio communication network; and the second network function determining whether the requested Identifier for service interworking with the second communication network is available for the communication service and, in case the requested Identifier is not available, providing an information to the first network function in the first communication network that the request is rejected; wherein the first network function in the first communication network subscribes for the Identifier for service interworking with the second communication network availability notification with the second network function in the first communication network; wherein the first network function in the first communication network is a Session Managing Function , and/or wherein the second network function in the first communication is an Access and Mobility Management Function ; wherein the Identifier for service interworking with the second communication network is an Evolved Packet System Bearer Identifier for a service interworking with the Evolved Packet Core network. a first network function in a first communication network of a mobile radio communication network determining that the communication service requires an Identifier for service interworking with a second communication network; the first network function in the first communication network requesting an Identifier from a second network function in the first communication network of the mobile radio communication network; and the second network function determining whether the requested Identifier for service interworking with the second communication network is available for the communication service and, in case the requested Identifier is not available, providing an information to the first network function in the first communication network that the request is rejected; wherein the first network function in the first communication network subscribes for the Identifier for service interworking with the second communication network availability notification with the second network function in the first communication network; wherein the first network function in the first communication network is a Session Managing Function , and/or wherein the second network function in the first communication is an Access and Mobility Management Function ; wherein the Identifier for service interworking with the second communication network is an Evolved Packet System Bearer Identifier for a service interworking with the Evolved Packet Core network.
A tail pipe that is a double pipe including an external pipe and an internal pipe , and in which a noise absorbing material is disposed between an outer periphery of the internal pipe provided with through-holes , which are formed in a peripheral wall, and an inner periphery of the external pipe , wherein the internal pipe is eccentrically positioned relative to the external pipe so that the noise absorbing material has a larger thickness on one side in a pipe radial direction and a smaller thickness on the other side in the pipe radial direction, characterised in that the external pipe and the internal pipe curve toward a direction in which the internal pipe is eccentrically positioned relative to the external pipe .
A system for capturing dust generated by an excavation component carrying a plurality of cutting teeth , the excavation component being rotatable about a central axis of the excavation component , the system comprising÷ a shroud for at least partially covering the excavation component , the shroud defining a local dust extraction volume; wherein the system for capturing dust is characterized by the fact that the system also comprises a first intake conduit positioned within the local dust extraction volume between the shroud and the excavation component , the first intake conduit defining a plurality of air intake openings that are spaced-apart along a length of the first intake conduit . a shroud for at least partially covering the excavation component , the shroud defining a local dust extraction volume; wherein the system for capturing dust is characterized by the fact that the system also comprises a first intake conduit positioned within the local dust extraction volume between the shroud and the excavation component , the first intake conduit defining a plurality of air intake openings that are spaced-apart along a length of the first intake conduit .