mhurhangee/patent-ind-claim-en huggingface dataset:
A coupler comprising: an inner insertion part ; and an outer support part configured to surround the outside of the inner insertion part, the outer support part including a cylindrical outer wall and a plurality of projection parts , characterized in that : the inner insertion part includes a cylindrical-shaped protruding part having a through hole disposed at a center thereof and a polygonal-shaped plate configured to extend in a radial direction from an outer circumferential surface of the protruding part, the outer support part includes an accommodation part coupled to the plate , the cylindrical outer wall being configured to extend from an edge of the accommodation part, and the plurality of projection parts being configured to extend toward the protruding part from an inner side of the outer wall , the plate includes a plurality of connection grooves , and the accommodation part is partially disposed in the connection groove . an inner insertion part ; and an outer support part configured to surround the outside of the inner insertion part, the outer support part including a cylindrical outer wall and a plurality of projection parts , characterized in that : the inner insertion part includes a cylindrical-shaped protruding part having a through hole disposed at a center thereof and a polygonal-shaped plate configured to extend in a radial direction from an outer circumferential surface of the protruding part, the outer support part includes an accommodation part coupled to the plate , the cylindrical outer wall being configured to extend from an edge of the accommodation part, and the plurality of projection parts being configured to extend toward the protruding part from an inner side of the outer wall , the plate includes a plurality of connection grooves , and the accommodation part is partially disposed in the connection groove . the inner insertion part includes a cylindrical-shaped protruding part having a through hole disposed at a center thereof and a polygonal-shaped plate configured to extend in a radial direction from an outer circumferential surface of the protruding part, the outer support part includes an accommodation part coupled to the plate , the cylindrical outer wall being configured to extend from an edge of the accommodation part, and the plurality of projection parts being configured to extend toward the protruding part from an inner side of the outer wall , the plate includes a plurality of connection grooves , and the accommodation part is partially disposed in the connection groove .
A system for generating perturbations with a known waveform and amplitude to calibrate a torsional, axial and radial force sensor , the system comprising: a first rotor holding a first magnet and a second magnet ; a second rotor holding a third magnet and a fourth magnet , wherein the first rotor is rotatably arranged with the second rotor , the first rotor being arranged concentrically within the second rotor , wherein the first magnet and the second magnet are configured to interact with the third magnet and the fourth magnet to create a force between the first rotor and the second rotor as the first rotor rotates relative to the second rotor, wherein the first rotor is non-rotatably secured to a first rotating shaft , and the second rotor is non-rotatably secured to a second rotating shaft ; a first drive motor configured to rotate the first shaft ; a second drive motor configured to rotate the second shaft ; and the sensor configured to measure the axial, torsional, and radial forces applied to the first shaft; wherein the drive motors are arranged to rotate in similar and/or opposite directions in order to create the required frequency of perturbations. a first rotor holding a first magnet and a second magnet ; a second rotor holding a third magnet and a fourth magnet , wherein the first rotor is rotatably arranged with the second rotor , the first rotor being arranged concentrically within the second rotor , wherein the first magnet and the second magnet are configured to interact with the third magnet and the fourth magnet to create a force between the first rotor and the second rotor as the first rotor rotates relative to the second rotor, wherein the first rotor is non-rotatably secured to a first rotating shaft , and the second rotor is non-rotatably secured to a second rotating shaft ; a first drive motor configured to rotate the first shaft ; a second drive motor configured to rotate the second shaft ; and the sensor configured to measure the axial, torsional, and radial forces applied to the first shaft; wherein the drive motors are arranged to rotate in similar and/or opposite directions in order to create the required frequency of perturbations.
A blocked polyisocyanate compound having a hydrophilic group and at least one blocked isocyanate group selected from the group consisting of a blocked isocyanate group represented by the following formula (I): wherein R 1 , R 2 , R 4 and R 5 each independently represent a C1-12 hydrocarbon group and R 3 represents a C1-12 straight or branched alkylene group, a blocked isocyanate group represented by the following formula (II): wherein R 2 , R 3 , R 4 and R 5 are as defined above, and a blocked isocyanate group represented by the following formula (III): wherein R 2 , R 3 , R 4 and R 5 are as defined above, and R 6 represents a C1-12 hydrocarbon group, wherein the blocked polyisocyanate compound is produced by reacting the isocyanate groups of a polyisocyanate compound (b 1 ) having two or more isocyanate groups in the molecule with an active hydrogen-containing compound having a hydrophilic group (b 2 ) and an active methylene compound (b 3 ) to obtain a blocked polyisocyanate compound precursor having a hydrophilic group (b 4 ),and then reacting the blocked polyisocyanate compound precursor having a hydrophilic group (b 4 ) with a secondary alcohol (b 5 ). wherein R 1 , R 2 , R 4 and R 5 each independently represent a C1-12 hydrocarbon group and R 3 represents a C1-12 straight or branched alkylene group, a blocked isocyanate group represented by the following formula (II): wherein R 2 , R 3 , R 4 and R 5 are as defined above, and a blocked isocyanate group represented by the following formula (III): wherein R 2 , R 3 , R 4 and R 5 are as defined above, and R 6 represents a C1-12 hydrocarbon group, wherein the blocked polyisocyanate compound is produced by reacting the isocyanate groups of a polyisocyanate compound (b 1 ) having two or more isocyanate groups in the molecule with an active hydrogen-containing compound having a hydrophilic group (b 2 ) and an active methylene compound (b 3 ) to obtain a blocked polyisocyanate compound precursor having a hydrophilic group (b 4 ),and then reacting the blocked polyisocyanate compound precursor having a hydrophilic group (b 4 ) with a secondary alcohol (b 5 ).
A system for resampling an optical coherence tomography signal, the system comprising: a frequency scanning light source for generating a swept optical signal; a k-clock module that generates a reference signal in response to frequency sweeping of the swept optical signal, wherein a free spectral range of the k-clock module is wider than sweep-to-sweep wavelength jitter of the frequency scanning light source; an interferometer that generates interference signals from the swept optical signal; a data acquisition module , DAQ, configured to sample the reference signal at a constant rate and resample the interference signals based on the reference signal at uniform optical frequency intervals; and a field programmable gate array , FPGA, of the DAQ , wherein the FPGA is configured to multiply the reference signal to resample the interference signals using bandlimited interpolation implemented via a direct convolution with finite impulse response digital filters. a frequency scanning light source for generating a swept optical signal; a k-clock module that generates a reference signal in response to frequency sweeping of the swept optical signal, wherein a free spectral range of the k-clock module is wider than sweep-to-sweep wavelength jitter of the frequency scanning light source; an interferometer that generates interference signals from the swept optical signal; a data acquisition module , DAQ, configured to sample the reference signal at a constant rate and resample the interference signals based on the reference signal at uniform optical frequency intervals; and a field programmable gate array , FPGA, of the DAQ , wherein the FPGA is configured to multiply the reference signal to resample the interference signals using bandlimited interpolation implemented via a direct convolution with finite impulse response digital filters.
A photoelectric sensor having at least one of a light projecting portion which emits light to a front space and a light receiving portion which receives light from a front zone, characterized in that the photoelectric sensor comprises: a case body having an accommodation space which accommodates at least one of the light projecting portion and the light receiving portion therein, and a cable which accommodates a cord connected via a control portion to at least one of the light projecting portion and the light receiving portion , wherein a concave portion which is recessed toward an inside of the case body is provided in an outer surface of the case body , and wherein the cable is mounted in the concave portion , wherein the concave portion is provided in one of outer surfaces of the case body other than a front surface , the front surface having a light projecting and receiving surface through which the light from the light projecting portion and the light to the light receiving portion pass, the outer surface on which the concave portion is provided further has a connection surface extending from an edge of the concave portion toward another one of the outer surfaces of the case body other than the front surface , characterized in that the connection surface is parallel or orthogonal to the front surface , wherein an extending direction of the cord of the cable is perpendicular to the connection surface when the cable is mounted in an unbent state, and an outer peripheral surface of the cable comes into contact with the connection surface when the cable is mounted in a bent state. a case body having an accommodation space which accommodates at least one of the light projecting portion and the light receiving portion therein, and a cable which accommodates a cord connected via a control portion to at least one of the light projecting portion and the light receiving portion , wherein a concave portion which is recessed toward an inside of the case body is provided in an outer surface of the case body , and wherein the cable is mounted in the concave portion , wherein the concave portion is provided in one of outer surfaces of the case body other than a front surface , the front surface having a light projecting and receiving surface through which the light from the light projecting portion and the light to the light receiving portion pass, the outer surface on which the concave portion is provided further has a connection surface extending from an edge of the concave portion toward another one of the outer surfaces of the case body other than the front surface , characterized in that the connection surface is parallel or orthogonal to the front surface , wherein an extending direction of the cord of the cable is perpendicular to the connection surface when the cable is mounted in an unbent state, and an outer peripheral surface of the cable comes into contact with the connection surface when the cable is mounted in a bent state.
Cooking apparatus such as a hot air fryer comprising a heating system, a ventilation system, a drive motor capable of rotating a stirring element , said stirring element being removable, and a kit of elements for assembling a container of a cooking apparatus such as a hot air fryer, comprising an edge element , cooking apparatus such as a hot air fryer, characterised in that said kit of elements for assembling comprises at least two interchangeable bottom elements having different functionalities and means for assembling the edge element with a bottom element from among the at least two bottom elements and in that the edge element is open and has two side end portions , the assembling means being configured to bring together the two side end portions by tightening on itself said edge element, a guiding system being arranged between the two side end portions of the edge element so as to make them slide opposite one another during the tightening on itself of said edge element .
A method for securely managing biometric data, the method being conducted at a secure element which is directly connected to a biometric input and comprising: receiving biometric data directly from the biometric input ; obtaining a biometric signature based on the biometric data; accessing a seed value specific to the biometric data by obtaining the seed value from the biometric data or biometric signature; encoding the biometric signature using an obscured algorithm and the seed value to generate a token; outputting the token for secure storage within the secure element or secure transmission to a secure server for registration or authentication of the biometric data, and erasing the biometric data and biometric signature once the token has been output , characterized in that encoding the biometric signature using the obscured algorithm and the seed value to generate the token includes: generating a secret key based on the seed value and a key derivation function; obtaining a random number by inputting the secret key into a pseudorandom number generator; generating an encryption key based on the random number; and encoding the biometric signature using the obscured algorithm and the encryption key to generate the token. receiving biometric data directly from the biometric input ; obtaining a biometric signature based on the biometric data; accessing a seed value specific to the biometric data by obtaining the seed value from the biometric data or biometric signature; encoding the biometric signature using an obscured algorithm and the seed value to generate a token; outputting the token for secure storage within the secure element or secure transmission to a secure server for registration or authentication of the biometric data, and erasing the biometric data and biometric signature once the token has been output , characterized in that encoding the biometric signature using the obscured algorithm and the seed value to generate the token includes: generating a secret key based on the seed value and a key derivation function; obtaining a random number by inputting the secret key into a pseudorandom number generator; generating an encryption key based on the random number; and encoding the biometric signature using the obscured algorithm and the encryption key to generate the token. generating a secret key based on the seed value and a key derivation function; obtaining a random number by inputting the secret key into a pseudorandom number generator; generating an encryption key based on the random number; and encoding the biometric signature using the obscured algorithm and the encryption key to generate the token.
A method for synthesizing a deuterated dextromethorphan of Formula (I) the method comprising: (i) N-demethylating the tertiary amine of a dextromethorphan compound of Formula (II) to obtain an N-demethylated compound of Formula (V) (ii) deuterating the N-demethylated compound of Formula (V) to a compound of Formula (III) by N-methylation in the presence of a base and iodomethane-D 3 at a temperature in the range of -90°C to 90°C inclusive; (iii) O-demethylating the methoxy group of Formula (III) to a compound of Formula (VI) by mixing a compound of Formula (III) with a suitable acid and heating until the level of the compound of Formula (III) is ≤5% and (iv) deuterating the O-demethylated compound of Formula (VI) to the compound of Formula (I) by O-methylation in the presence of a base and iodomethane-D 3 at temperatures in the range of -10°C to 10°C inclusive. (i) N-demethylating the tertiary amine of a dextromethorphan compound of Formula (II) to obtain an N-demethylated compound of Formula (V) (ii) deuterating the N-demethylated compound of Formula (V) to a compound of Formula (III) by N-methylation in the presence of a base and iodomethane-D 3 at a temperature in the range of -90°C to 90°C inclusive; (iii) O-demethylating the methoxy group of Formula (III) to a compound of Formula (VI) by mixing a compound of Formula (III) with a suitable acid and heating until the level of the compound of Formula (III) is ≤5% and (iv) deuterating the O-demethylated compound of Formula (VI) to the compound of Formula (I) by O-methylation in the presence of a base and iodomethane-D 3 at temperatures in the range of -10°C to 10°C inclusive.
A device for the preparation of a double fabric for down products, which comprises a printing means , a drying means , a laminating means and a bonding means as follows: - a printing means which is provided with a printing apparatus carved with a predetermined printing pattern and which can print an adhesive in said printing pattern on a fabric ; - a drying means which can dry or fix the adhesive so that the adhesive printed on the fabric is not transferred during a laminating process; - a laminating means which can stack and laminate the fabrics on which an adhesive is printed; and - a bonding means which is provided with a pressing means on which a protrusion having a predetermined pressing pattern is formed and which can bond fabrics with the adhesive by pressing with said pressing means and high-frequency heating to cure the adhesive; characterized in that said printing pattern and the pressing pattern are the same in pattern, can be overlapped on the basis of the center line and have a difference in size of 20% or less. - a printing means which is provided with a printing apparatus carved with a predetermined printing pattern and which can print an adhesive in said printing pattern on a fabric ; - a drying means which can dry or fix the adhesive so that the adhesive printed on the fabric is not transferred during a laminating process; - a laminating means which can stack and laminate the fabrics on which an adhesive is printed; and - a bonding means which is provided with a pressing means on which a protrusion having a predetermined pressing pattern is formed and which can bond fabrics with the adhesive by pressing with said pressing means and high-frequency heating to cure the adhesive;
A veterinary composition comprising dinotefuran, permethrin, and pyriproxyfen, for use for sandfly control in non-human mammals, wherein the composition is intended to be administered in a single take, at a time T0 and then again at a time T1, at least 5 weeks later, said composition being intended to be topically applied to the skin of the non-human mammal, against the direction of the coat.
A coated, isolated substrate for use as an electrode, the coated isolated substrate comprising a substrate that is at least partially coated with a layer comprising a polymer and a redox active substance, wherein the polymer is a cation exchange polymer, and wherein the redox active substance is present in both an oxidised and reduced state. substrate comprising a substrate that is at least partially coated with a layer comprising a polymer and a redox active substance, wherein the polymer is a cation exchange polymer, and wherein the redox active substance is present in both an oxidised and reduced state.
Laboratory apparatus with a control device comprising a touch-sensitive display unit , wherein the display unit is configured to display a plurality of control elements within a control panel , the plurality of control elements being assigned to different control functions of the laboratory apparatus, wherein the control elements are embodied to set parameters of the control functions, characterized in that at least two of the control elements are assigned to the same control function and are embodied differently to set the same parameter of this control function, wherein the display unit displays the at least two control elements (111; 112) in an at least partially interleaved arrangement, wherein one of the at least two control elements is a circular slide control , and one or more control elements of the at least two control elements are located in the interior of the circle of the circular slide control.
A metal foil for electromagnetic shielding, comprising: a metal foil base, an Sn-Ni alloy layer formed on one or both surfaces of the base, and an oxide layer including Sn and Ni formed on a surface of the Sn-Ni alloy layer, wherein the Sn-Ni alloy layer includes 20 to 80% by mass of Sn and has a thickness of 30 to 500 nm, and wherein when an analysis in a depth direction is carried out by an XPS being the depth from an outermost surface as X nm, and an atomic percentage (%) of Sn is represented by A Sn (X), an atomic percentage (%) of Ni is represented by A Ni (X), an atomic percentage (%) of oxygen is represented by A O (X), and X is defined to be X O when A O (X) =0, 30 nm ≥ X O ≥ 0.5 nm, and 0.4 ≥ ∫ A Ni X o dx / ∫ A Sn X dx ≥ 0.05 in a section [0, X 0 ] is satisfied. a metal foil base, an Sn-Ni alloy layer formed on one or both surfaces of the base, and an oxide layer including Sn and Ni formed on a surface of the Sn-Ni alloy layer, wherein the Sn-Ni alloy layer includes 20 to 80% by mass of Sn and has a thickness of 30 to 500 nm, and wherein when an analysis in a depth direction is carried out by an XPS being the depth from an outermost surface as X nm, and an atomic percentage (%) of Sn is represented by A Sn (X), an atomic percentage (%) of Ni is represented by A Ni (X), an atomic percentage (%) of oxygen is represented by A O (X), and X is defined to be X O when A O (X) =0, 30 nm ≥ X O ≥ 0.5 nm, and 0.4 ≥ ∫ A Ni X o dx / ∫ A Sn X dx ≥ 0.05 in a section [0, X 0 ] is satisfied.
Method for controlling a beverage filling system , having a circular filling machine , which has a plurality of filling elements , each having a filling valve for filling a beverage into a container , in particular a bottle, and a flow meter , in which method the filling volume supplied to the containers via the filling valve is detected by means of the flow meter during the filling process, wherein, according to the method, each filling element of the filling machine is supplied from a product container , in particular a ring bowl, and a product inflow is regulated to maintain a target fill level in the product container , in which method - the signals from the flow meters of all filling elements are combined into a current volume flow signal or - the speed of the filling machine is currently measured, and from the measured speed value, in consideration of the number of filling elements and of the volume of one container which is to be filled, a current volume flow signal is calculated, and the current volume flow signal is used to derive a control signal for the product inflow , and the product inflow is controlled/regulated in dependence on the current volume flow signal, characterised in that the current revolution speed of the filling machine is measured, and the revolution speed characteristic curve of the filling machine during braking is stored, wherein, from the actual revolution speed and the current volume flow signal, in consideration of the stored revolution signal, the expected volume flow is calculated, and the product inflow is regulated to the expected volume flow at the braking of the filling machine . - the signals from the flow meters of all filling elements are combined into a current volume flow signal or - the speed of the filling machine is currently measured, and from the measured speed value, in consideration of the number of filling elements and of the volume of one container which is to be filled, a current volume flow signal is calculated,