mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: generating a music feature file (MFF, 200) based on a selected audio, the music feature file (MFF, 200) comprising metadata for the selected audio including a plurality of time markers indicating audio events in the selected audio; automatically controlling one or more lights according to the music feature file (MFF, 200); characterized in that the method further comprises: receiving a position for each of the one or more lights in a light show environment, wherein the position for each of the one or more lights in the light show environment is determined based on a signal from a mobile phone wirelessly connected to the respective light while in physical proximity to the respective light and in reaction to a user depressing a button on the respective light; mapping the position for each of the one or more lights to a grid corresponding to the light show environment; and adjusting control of the one or more lights based on the position mapped for the one or more lights in the grid. generating a music feature file (MFF, 200) based on a selected audio, the music feature file (MFF, 200) comprising metadata for the selected audio including a plurality of time markers indicating audio events in the selected audio; automatically controlling one or more lights according to the music feature file (MFF, 200); characterized in that the method further comprises: receiving a position for each of the one or more lights in a light show environment, wherein the position for each of the one or more lights in the light show environment is determined based on a signal from a mobile phone wirelessly connected to the respective light while in physical proximity to the respective light and in reaction to a user depressing a button on the respective light; mapping the position for each of the one or more lights to a grid corresponding to the light show environment; and adjusting control of the one or more lights based on the position mapped for the one or more lights in the grid. receiving a position for each of the one or more lights in a light show environment, wherein the position for each of the one or more lights in the light show environment is determined based on a signal from a mobile phone wirelessly connected to the respective light while in physical proximity to the respective light and in reaction to a user depressing a button on the respective light; mapping the position for each of the one or more lights to a grid corresponding to the light show environment; and adjusting control of the one or more lights based on the position mapped for the one or more lights in the grid.
An actuator for a syringe , the syringe comprising an elongated barrel having a first end, and a cap secured to the first end having a through-bore, the actuator comprising: a) a source of pressurized air ; b) a support for receiving and locating the syringe; and c) a supply block configured to receive pressurized air from the source and having an outlet for delivery of pressurized air, the supply block being movable between a first position spaced apart from the cap of the syringe and a second position in contact with the cap with fluid communication being established between the outlet of the supply block and the through-bore in the cap , characterised in that the actuator d) further comprises a base , the source of pressurized air , the support for receiving the syringe, and the supply block being mounted to the base a) a source of pressurized air ; b) a support for receiving and locating the syringe; and c) a supply block configured to receive pressurized air from the source and having an outlet for delivery of pressurized air, the supply block being movable between a first position spaced apart from the cap of the syringe and a second position in contact with the cap with fluid communication being established between the outlet of the supply block and the through-bore in the cap , characterised in that the actuator d) further comprises a base , the source of pressurized air , the support for receiving the syringe, and the supply block being mounted to the base
Method of repairing a damaged spar cap of a wind turbine blade of a wind turbine, the damaged spar cap comprising carbon fiber-reinforced plastic and the method having the steps of: (a) removing a damaged carbon fiber-reinforced plastic part from the damaged spar cap to obtain a corresponding recess in the damaged spar cap , (b) applying an adhesive to the recess , (c) fitting at least one patch comprising carbon fiber-reinforced plastic into the recess , and (d) joining the at least one patch with the spar cap to obtain a repaired spar cap , characterized in that the carbon fiber-reinforced plastic of the patch is provided as pultruded carbon elements . (a) removing a damaged carbon fiber-reinforced plastic part from the damaged spar cap to obtain a corresponding recess in the damaged spar cap , (b) applying an adhesive to the recess , (c) fitting at least one patch comprising carbon fiber-reinforced plastic into the recess , and (d) joining the at least one patch with the spar cap to obtain a repaired spar cap , characterized in that the carbon fiber-reinforced plastic of the patch is provided as pultruded carbon elements .
Lubricating oil composition comprising: (A) 50 to 90% by mass of at least one kind of lubricating oil base oil selected from mineral oils and synthetic oils; and (B) 10 to 50% by mass of a copolymer, being of weight average molecular weight 5,000 to 20,000, of an olefin and an alkyl methacrylate; wherein the lubricating base oil comprises 5 to 14% by mass relative to the total amount of the lubricating oil composition of (C) a carboxylic acid ester compound, wherein the carboxylic acid ester (c) is a polyol ester. (A) 50 to 90% by mass of at least one kind of lubricating oil base oil selected from mineral oils and synthetic oils; and (B) 10 to 50% by mass of a copolymer, being of weight average molecular weight 5,000 to 20,000, of an olefin and an alkyl methacrylate;
A fuel nozzle for a combustor of a gas turbine engine (20;20A) comprising: an outer air swirler along an axis, said outer air swirler defining an outer annular air passage ; and an inner air swirler along said axis to define an annular fuel gas passage around said axis between said outer air swirler and said inner air swirler , said annular fuel gas passage having an annular liquid passage radially therein and terminating with a multiple of skewed slots angled with respect to said axis at an angle greater than an angle of swirl of a surrounding air stream, wherein each of said multiple of skewed slots is at least partially defined by a vane within said annular fuel gas passage . an outer air swirler along an axis, said outer air swirler defining an outer annular air passage ; and an inner air swirler along said axis to define an annular fuel gas passage around said axis between said outer air swirler and said inner air swirler , said annular fuel gas passage having an annular liquid passage radially therein and terminating with a multiple of skewed slots angled with respect to said axis at an angle greater than an angle of swirl of a surrounding air stream, wherein each of said multiple of skewed slots is at least partially defined by a vane within said annular fuel gas passage .
A wood plastic composite composition comprising: - at least one wood component; - at least one thermoplastic polymer; - wax hydrocarbons having 15 to 110 carbon atoms; and - oxidized hydrocarbons having 15 to 110 carbon atoms consisting of (modified) hydrocarbons having at least one of hydroxyl-, carbonyl-, carboxylate- and lactone-group, wherein the mixture consisting of the wax hydrocarbons and the oxidized hydrocarbons is a wax composition having - a dynamic viscosity at 120 °C of below 25 mPa·s; - a content of molecules in which the carbon chain is linear of more than 65 wt.-%; - a congealing point according to ASTM D 938 from 55 °C to 105 °C; - a content of the oxidized hydrocarbons of at least 1 to 20 wt.-%; and - an acid number according to ASTM D 1386 of 0.1 to 10 mg KOH/g; and wherein the wax hydrocarbons are a Fischer-Tropsch wax and the oxidized hydrocarbons originate from an oxidation of a Fischer-Tropsch wax. - at least one wood component; - at least one thermoplastic polymer; - wax hydrocarbons having 15 to 110 carbon atoms; and - oxidized hydrocarbons having 15 to 110 carbon atoms consisting of (modified) hydrocarbons having at least one of hydroxyl-, carbonyl-, carboxylate- and lactone-group, - a dynamic viscosity at 120 °C of below 25 mPa·s; - a content of molecules in which the carbon chain is linear of more than 65 wt.-%; - a congealing point according to ASTM D 938 from 55 °C to 105 °C; - a content of the oxidized hydrocarbons of at least 1 to 20 wt.-%; and - an acid number according to ASTM D 1386 of 0.1 to 10 mg KOH/g;
A method for decomposing a nitroso compound, the method comprising the steps of: adding an aqueous solution containing hydrogen halide to a liquid to be treated that contains the nitroso compound so as to obtain a mixture in such a manner that the hydrogen halide is present in an amount of 2 mol or more and 20 mol or less per mol of a nitroso group in the nitroso compound, wherein the liquid to be treated is a liquid derived from an absorption liquid used in a method for recovering carbon dioxide in a gas to be treated; and subsequently heating the mixture at a temperature of not lower than 75°C and not higher than 100°C. adding an aqueous solution containing hydrogen halide to a liquid to be treated that contains the nitroso compound so as to obtain a mixture in such a manner that the hydrogen halide is present in an amount of 2 mol or more and 20 mol or less per mol of a nitroso group in the nitroso compound, wherein the liquid to be treated is a liquid derived from an absorption liquid used in a method for recovering carbon dioxide in a gas to be treated; and subsequently heating the mixture at a temperature of not lower than 75°C and not higher than 100°C.
A multilayer label for in-mold labeling, comprising a base (X), a layer (Z) containing an aluminum atom, and a layer (Y) containing a polymer (A) having a functional group containing a phosphorus atom, wherein the polymer (A) is a polymer of vinylphosphonic acids, the layer (Y) does not contain a polymer (B) having a hydroxy group and/or carboxyl group, the layer (Z) comprises a layer (Z1), a deposited layer (Z2) of aluminum or a deposited layer (Z3) of aluminum oxide, the layer (Z1) contains a reaction product (E), the reaction product (E) is a reaction product formed by a reaction between a metal oxide (C) containing an aluminum atom and a phosphorus compound (D), and in an infrared absorption spectrum of the layer (Z1), a maximum absorption wavenumber in a region of 800 to 1,400 cm -1 is 1,080 to 1,130 cm -1 .
Surgical system , comprising: - an operating microscope with an imaging optical unit and a control unit for setting imaging parameters of the operating microscope , - an image processing device for overlaying an overlay image stored in the image processing device with an image generated by the operating microscope , and - a data processing unit , which is connected to the control unit of the operating microscope and to the image processing device , the control unit being designed such that, before a change of at least one imaging parameter of the operating microscope from a first value to a second value, it stores both the first value and the second value and makes them available to the data processing unit , and stores at least one time stamp together with the first and/or second value and makes it available to the data processing unit , the at least one imaging parameter comprising a setting parameter of the zoom, focus, position and spatial alignment of the operating microscope and/or of the patient, the image processing device being designed in such a way that it modifies the overlay image in a way corresponding to the stored first and second value of the at least one imaging parameter, and the data processing unit being designed such that it provides at least one limit value for the value of the imaging parameter, the image processing device not generating a modified overlay image if the second value of the imaging parameter is beyond the limit value. - an operating microscope with an imaging optical unit and a control unit for setting imaging parameters of the operating microscope , - an image processing device for overlaying an overlay image stored in the image processing device with an image generated by the operating microscope , and - a data processing unit , which is connected to the control unit of the operating microscope and to the image processing device , the control unit being designed such that, before a change of at least one imaging parameter of the operating microscope from a first value to a second value, it stores both the first value and the second value and makes them available to the data processing unit , and stores at least one time stamp together with the first and/or second value and makes it available to the data processing unit , the at least one imaging parameter comprising a setting parameter of the zoom, focus, position and spatial alignment of the operating microscope and/or of the patient, the image processing device being designed in such a way that it modifies the overlay image in a way corresponding to the stored first and second value of the at least one imaging parameter, and the data processing unit being designed such that it provides at least one limit value for the value of the imaging parameter, the image processing device not generating a modified overlay image if the second value of the imaging parameter is beyond the limit value.
A method performed by a wireless device for selecting a transmission setting in the wireless device to use for a Device-to-Device, D2D, transmission from the wireless device in a first frequency band, the method comprising: determining in a first case that there is not an interference risk from the D2D transmission with respect to a frequency band (f1) considered to be a critical frequency band if used as a communication band, due to out-of-band interference arising from D2D transmissions, and determining in a second case that there is an interference risk; in the first case, selecting a first transmission setting for the D2D transmission; and in the second case, selecting a second transmission setting for the D2D transmission, wherein, as compared to the first transmission setting, the second transmission setting is configured to reduce possible out-of-band interference arising from the D2D transmission. determining in a first case that there is not an interference risk from the D2D transmission with respect to a frequency band (f1) considered to be a critical frequency band if used as a communication band, due to out-of-band interference arising from D2D transmissions, and determining in a second case that there is an interference risk; in the first case, selecting a first transmission setting for the D2D transmission; and in the second case, selecting a second transmission setting for the D2D transmission, wherein, as compared to the first transmission setting, the second transmission setting is configured to reduce possible out-of-band interference arising from the D2D transmission.
Method for setting user data (NN) of a new user in a motor vehicle of a predetermined vehicle type (T1, T2) in order to personalise the motor vehicle for the new user , wherein the user data (NN) required for the personalisation comprise personal data (NP) of the new user and configuration data (K2, K12) for at least one unit of the motor vehicle , wherein in the method: - the personal data (P) of several other users of the vehicle type (T1, T2) and configuration data (K) set by the users are collected and - an assignment rule between personal data (P) and configuration data (K) is formed from the collected personal data (P) and the collected configuration data (K) and - only a part of the user data (NN) required from the new user is detected, and - the user data (NN) required from the new user are completed by personal data and/or configuration data (K2, K12) which are still missing being determined on the basis of the detected part of the user data (NN) of the new user and by means of the assignment rule , and - the completed user data (NN) are provided in the motor vehicle , characterised in that after the setting of the completed user data (NN) of the new user in the motor vehicle , a change in the configuration data (K2) made by the new user and resulting in correction data (DK) is determined, and a user-specific user type (NT3) is determined depending on the correction data (DK) and describes a personal preference of the new user regarding the use of the at least one unit, and, when the new user changes from the motor vehicle to another motor vehicle of another vehicle type (T2), configuration data (K12) of the other motor vehicle are set on the basis of the user type (NT3). - the personal data (P) of several other users of the vehicle type (T1, T2) and configuration data (K) set by the users are collected and - an assignment rule between personal data (P) and configuration data (K) is formed from the collected personal data (P) and the collected configuration data (K) and - only a part of the user data (NN) required from the new user is detected, and - the user data (NN) required from the new user are completed by personal data and/or configuration data (K2, K12) which are still missing being determined on the basis of the detected part of the user data (NN) of the new user and by means of the assignment rule , and - the completed user data (NN) are provided in the motor vehicle ,
An apparatus, comprising: a manikin with at least a head portion and an ear portion ; wherein the head portion has an inner side and an outer side and accommodates a mouth simulator including an electroacoustic transducer , characterized in further comprising: an electrodynamic vibrator and a vibrating rod coupled to the electrodynamic vibrator ; wherein the vibrating rod is coupled to the manikin to exert a vibrating force at the head portion ; wherein the vibrating force induces vibration of the manikin at least at the ear portion . a manikin with at least a head portion and an ear portion ; wherein the head portion has an inner side and an outer side and accommodates a mouth simulator including an electroacoustic transducer , characterized in further comprising: an electrodynamic vibrator and a vibrating rod coupled to the electrodynamic vibrator ; wherein the vibrating rod is coupled to the manikin to exert a vibrating force at the head portion ; wherein the vibrating force induces vibration of the manikin at least at the ear portion .
Composite particles comprising: i) a matrix containing at least one inorganic and/or at least one organic material and ii) at least one inorganic UV filter which is doped by at least one transition metal, wherein the composite particles are spherical particles containing a core comprising at least one organic and/or one inorganic material, the said core being covered at least partially by at least one layer of inorganic UV filter which is doped by at least one transition metal. i) a matrix containing at least one inorganic and/or at least one organic material and ii) at least one inorganic UV filter which is doped by at least one transition metal, wherein the composite particles are spherical particles containing a core comprising at least one organic and/or one inorganic material, the said core being covered at least partially by at least one layer of inorganic UV filter which is doped by at least one transition metal.
Method for the pyrolytic cleaning of a cooking appliance having at least one cooking chamber capable of being heated up, a heating device for heating up the cooking chamber and a temperature regulation device for regulating a cooking chamber temperature (T), the cooking chamber being heated up in a heating phase (A) to a pyrolysis target temperature (ZT) of between 400°C and 600°C, characterised by the following steps: - heating up the cooking chamber to a cooking chamber temperature (T) of 270°C, - starting from a cooking chamber temperature (T) of 270°C, heating up the cooking chamber to a cooking chamber temperature (T) of 350°C with an average heating-up rate of 2 K/min to 4 K/min. - heating up the cooking chamber to a cooking chamber temperature (T) of 270°C, - starting from a cooking chamber temperature (T) of 270°C, heating up the cooking chamber to a cooking chamber temperature (T) of 350°C with an average heating-up rate of 2 K/min to 4 K/min.
A gas sensor comprising: a sensor element ; a cylindrical body in which the sensor element is disposed, the cylindrical body having an open end ; a lead wire having electrical continuity to the sensor element and extending outward from an inside of the cylindrical body through the open end ; a tube that covers an outer peripheral surface of an end portion of the cylindrical body including the open end and a portion of the lead wire extending outward from the open end ; and a grip member that grips a portion of the outer peripheral surface of the cylindrical body covered with the tube so that the tube protrudes to a side opposite from the open end ; wherein the tube is a flexible insulating cylindrical member; and wherein the cylindrical body extends beyond both sides of the grip member ; and wherein the maximum value of an outer diameter (D4) of a portion of the tube closer to the open end than the portion gripped by the grip member is larger than or equal to an inner diameter (D1) of the grip member . a sensor element ; a cylindrical body in which the sensor element is disposed, the cylindrical body having an open end ; a lead wire having electrical continuity to the sensor element and extending outward from an inside of the cylindrical body through the open end ; a tube that covers an outer peripheral surface of an end portion of the cylindrical body including the open end and a portion of the lead wire extending outward from the open end ; and a grip member that grips a portion of the outer peripheral surface of the cylindrical body covered with the tube so that the tube protrudes to a side opposite from the open end ; wherein the tube is a flexible insulating cylindrical member; and wherein the cylindrical body extends beyond both sides of the grip member ; and wherein the maximum value of an outer diameter (D4) of a portion of the tube closer to the open end than the portion gripped by the grip member is larger than or equal to an inner diameter (D1) of the grip member .
An apparatus for learning by physical demonstration, comprising: a first glove to fit a human hand of a trainer, the first glove comprising: a palm-side outer surface ; a dorsal-side outer surface opposite from the palm-side outer surface; and one or more finger portion adapted to at least partially enclose a respective finger; and characterized that the apparatus further comprising: a second glove to fit a human hand of a trainee, the second glove comprising: a palm-side outer surface; a dorsal-side outer surface opposite from the palm-side outer surface ; and one or more finger portions adapted to at least partially enclose a respective finger, wherein the second glove is coupled to the first glove by an attachment mechanism that causes the hand of the trainee to mimic movements made by the hand of the trainer, and wherein seams of the first glove or the second glove are located only on an outer surface of the first glove or second glove, respectively. a second glove to fit a human hand of a trainee, the second glove comprising: a palm-side outer surface; a dorsal-side outer surface opposite from the palm-side outer surface ; and one or more finger portions adapted to at least partially enclose a respective finger, wherein the second glove is coupled to the first glove by an attachment mechanism that causes the hand of the trainee to mimic movements made by the hand of the trainer, and wherein seams of the first glove or the second glove are located only on an outer surface of the first glove or second glove, respectively.