mhurhangee/patent-ind-claim-en huggingface dataset:
Method for mapping (M) a vehicle environment of at least one vehicle and for locating (L) the at least one vehicle, wherein - measurement data relating to the vehicle environment are determined by at least one radar sensor of the at least one vehicle , - the measurement data of the at least one radar sensor are aggregated , - the aggregated measurement data are compared with already available aggregated measurement data , - the comparison between the aggregated measurement data and the already available aggregated measurement data is taken as a basis for optimizing the aggregated measurement data by reducing measurement errors , wherein - the optimized aggregated measurement data are used to create or update a map and - comparison of the determined measurement data with the created map is used to locate the at least one vehicle on the created or updated map , characterized in that the aggregated measurement data are matched to the already available aggregated measurement data or interpolated, wherein at least one node is formed on the basis of at least one measurement data cloud, wherein the aggregated measurement data form nodes and comparison with already available aggregated measurement data involves connection paths between the nodes being formed and compared. - measurement data relating to the vehicle environment are determined by at least one radar sensor of the at least one vehicle , - the measurement data of the at least one radar sensor are aggregated , - the aggregated measurement data are compared with already available aggregated measurement data , - the comparison between the aggregated measurement data and the already available aggregated measurement data is taken as a basis for optimizing the aggregated measurement data by reducing measurement errors , wherein - the optimized aggregated measurement data are used to create or update a map and - comparison of the determined measurement data with the created map is used to locate the at least one vehicle on the created or updated map , characterized in that the aggregated measurement data are matched to the already available aggregated measurement data or interpolated, wherein at least one node is formed on the basis of at least one measurement data cloud, wherein the aggregated measurement data form nodes and comparison with already available aggregated measurement data involves connection paths between the nodes being formed and compared.
A device comprising an optical fiber having one or more cores and an optical fiber termination at an end of the optical fiber, the optical fiber termination comprising: a structure having a termination volume including an absorptive region of absorptive material comprising cobalt-doped blue borosilicate glass, wherein a length of the structure is less than 5 mm and a largest transverse dimension of the structure is less than 325 um, wherein the structure includes a diffusion region in which radial diffusion of each of the one or more cores into the absorptive material is created from heating the end of the optical fiber together with a proximal portion of the absorptive region abutting the end of the optical fiber, wherein the optical fiber is associated with a first index of refraction and the absorptive region is associated with a second index of refraction, there being a mismatch between the first index of refraction and the second index of refraction, and wherein the diffusion region gradually transitions between the first index of refraction and the second index of refraction to reduce reflections that occur from the mismatch, and wherein a choice of the absorptive material and an extent of core diffusion into the absorptive material together reduce reflections into the one or more cores to a return loss of -70dB or less regardless of a presence of surfaces proximate the optical fiber termination. a structure having a termination volume including an absorptive region of absorptive material comprising cobalt-doped blue borosilicate glass, wherein a length of the structure is less than 5 mm and a largest transverse dimension of the structure is less than 325 um, wherein the structure includes a diffusion region in which radial diffusion of each of the one or more cores into the absorptive material is created from heating the end of the optical fiber together with a proximal portion of the absorptive region abutting the end of the optical fiber, wherein the optical fiber is associated with a first index of refraction and the absorptive region is associated with a second index of refraction, there being a mismatch between the first index of refraction and the second index of refraction, and wherein the diffusion region gradually transitions between the first index of refraction and the second index of refraction to reduce reflections that occur from the mismatch, and wherein a choice of the absorptive material and an extent of core diffusion into the absorptive material together reduce reflections into the one or more cores to a return loss of -70dB or less regardless of a presence of surfaces proximate the optical fiber termination.
An automatic locking device for fixing to and locking an endoscope, comprising: a tail bed , a lock buckle and an elastic element; wherein the tail bed is provided with a slot for mounting the lock buckle , the lock buckle is provided with an oblong hole in a center, and the inner wall of the lock buckle forming the oblong hole is mounted within the slot of the tail bed to realize the installation of the tail bed and the lock buckle , and the lock buckle is movable reciprocatedly within the slot along the oblong hole; and the lock buckle and the tail bed are elastically connected by the elastic element; the tail bed is used for mounting the lock buckle ; a radius of one end of the oblong hole of the center of the lock buckle is equal to a radius of the endoscope, and a radius of the other end is greater than the radius of the endoscope; the tail bed has a central hole for receiving the endoscope, the top portion of said central hole of the tail bed is a connector for mounting the endoscope wherein the connector has a round hole provided therein with a diameter greater than the diameter of the endoscope.
A blasting system which is established at a blast site , the blasting system including a control mechanism , a plurality of boreholes at the blast site, a base antenna positioned at a known reference location at the blast site, a reference GPS receiver , which includes a transmitter (38(T)), in communication with the base antenna , characterized in that it includes 4- at least one roving GPS receiver , which is movable by an operator on the blast site , which receives positional data corrections from the transmitter (38(T)) at the reference GPS receiver and which is in communication with the control mechanism .
A method for forming a furniture foundation comprising the steps of: forming a plurality of three dimensional expandable shapes formed of flexible material, each shaped as a regular hexagonal prism when expanded and each with a length, open at the top and bottom, each said regular hexagonal prism of generally the same dimensions as all others in said plurality; adjoining a plurality of said regular hexagonal prisms to one another to form a honeycomb sheet by abutting each of said regular hexagonal prism along a common side with at least one other of said regular hexagonal prisms by applying at least one glue line along a length for said adjoining; forming at least four of said honeycomb sheets; cutting each said honeycomb sheet to a desired dimension; expanding at least four of said plurality of honeycomb sheets and laying a first said honeycomb sheet over a second said honeycomb sheet; gluing said first and second said honeycomb sheets together by administering glue at at least some points of intersection thereby forming a first section; laying a third said honeycomb sheet over a fourth said honeycomb sheet; and gluing said third and fourth said honeycomb sheets together by administering glue at at least some points of intersection thereby forming a second section; and attaching said first and said second sections to a common connecting element, thereby forming a furniture foundation; where the furniture foundation is configured to fold on itself for transport. forming a plurality of three dimensional expandable shapes formed of flexible material, each shaped as a regular hexagonal prism when expanded and each with a length, open at the top and bottom, each said regular hexagonal prism of generally the same dimensions as all others in said plurality; adjoining a plurality of said regular hexagonal prisms to one another to form a honeycomb sheet by abutting each of said regular hexagonal prism along a common side with at least one other of said regular hexagonal prisms by applying at least one glue line along a length for said adjoining; forming at least four of said honeycomb sheets; cutting each said honeycomb sheet to a desired dimension; expanding at least four of said plurality of honeycomb sheets and laying a first said honeycomb sheet over a second said honeycomb sheet; gluing said first and second said honeycomb sheets together by administering glue at at least some points of intersection thereby forming a first section; laying a third said honeycomb sheet over a fourth said honeycomb sheet; and gluing said third and fourth said honeycomb sheets together by administering glue at at least some points of intersection thereby forming a second section; and attaching said first and said second sections to a common connecting element, thereby forming a furniture foundation; where the furniture foundation is configured to fold on itself for transport.
A method for the production of monoalkyl sulfate esters of alkali metal salts or sulfonate esters comprising the steps of - synthesis of boron esters by the methods given in open literature , - mixing boric acid and the alcohol , - heating the mixture , - adding toluene , - removing the water , - removing the toluene , - obtaining of boron ester , and characterized by the steps of - an acidolysis method for production of mono alkyl sulfates of alkali metal salts by reacting boron esters with sulfuric acid; or an acidolysis method for producing alkyl sulfonate esters of alcohols by reacting boron esters with sulfonic acid in high yields , - adding sulfuric acid or sulfonic acid to the boron ester in medium with solvent wherein dichloroethane is used as solvent, or without solvent , - stirring the mixture that is prepared , - removing boric acid which precipitates , - removing the solvent in case it is used , - obtaining sulfate or sulfonate esters wherein in the monoalkyl sulfate esters of alkali metal salts which are obtained "alkyl" represents a group having 1-22 carbons and comprises alkyl groups of primary and secondary alcohols and ethoxylated phenol, ethoxylated amine and ethoxylated amine alcohols; or in the sulfonate esters "alkyl" represents a (C1-C22) alkyl group having 1-22 carbons. - synthesis of boron esters by the methods given in open literature , - mixing boric acid and the alcohol , - heating the mixture , - adding toluene , - removing the water , - removing the toluene , - obtaining of boron ester , and characterized by the steps of - mixing boric acid and the alcohol , - heating the mixture , - adding toluene , - removing the water , - removing the toluene , - obtaining of boron ester , and characterized by the steps of - an acidolysis method for production of mono alkyl sulfates of alkali metal salts by reacting boron esters with sulfuric acid; or an acidolysis method for producing alkyl sulfonate esters of alcohols by reacting boron esters with sulfonic acid in high yields , - adding sulfuric acid or sulfonic acid to the boron ester in medium with solvent wherein dichloroethane is used as solvent, or without solvent , - stirring the mixture that is prepared , - removing boric acid which precipitates , - removing the solvent in case it is used , - obtaining sulfate or sulfonate esters - adding sulfuric acid or sulfonic acid to the boron ester in medium with solvent wherein dichloroethane is used as solvent, or without solvent , - stirring the mixture that is prepared , - removing boric acid which precipitates , - removing the solvent in case it is used , - obtaining sulfate or sulfonate esters
A method comprising: initiating a secure string instance of a program module; receiving sensitive data at the secure string instance of the program module, the sensitive data being in plaintext; storing the sensitive data in an allocated memory used for execution of the program module; retrieving one or more parameters that are sourced from outside of the allocated memory used for execution of the program module; storing the one or more parameters in the allocated memory; generating an encryption key using the one or more parameters; encrypting the sensitive data using the encryption key to obtain encrypted data; overwriting the one or more parameters in the allocated memory; discarding the encryption key after encrypting the sensitive data; storing the encrypted data in the allocated memory so as to overwrite the sensitive data in the allocated memory; receiving a trigger to send a message that is to be generated using the sensitive data; responsive to receipt of the trigger, retrieving the one or more parameters that are sourced from outside the allocated memory; storing the one or more parameters in the allocated memory;generating a decryption key using the one or more parameters; decrypting the encrypted data using the decryption key to obtain the sensitive data; overwriting the one or more parameters in the allocated memory; discarding the decryption key after decryption of the encrypted data; using the sensitive data to generate the message; and overwriting the sensitive data in the allocated memory so as to delete the sensitive data. initiating a secure string instance of a program module; receiving sensitive data at the secure string instance of the program module, the sensitive data being in plaintext; storing the sensitive data in an allocated memory used for execution of the program module; retrieving one or more parameters that are sourced from outside of the allocated memory used for execution of the program module; storing the one or more parameters in the allocated memory; generating an encryption key using the one or more parameters; encrypting the sensitive data using the encryption key to obtain encrypted data; overwriting the one or more parameters in the allocated memory; discarding the encryption key after encrypting the sensitive data; storing the encrypted data in the allocated memory so as to overwrite the sensitive data in the allocated memory; receiving a trigger to send a message that is to be generated using the sensitive data; responsive to receipt of the trigger, retrieving the one or more parameters that are sourced from outside the allocated memory; storing the one or more parameters in the allocated memory;generating a decryption key using the one or more parameters; decrypting the encrypted data using the decryption key to obtain the sensitive data; overwriting the one or more parameters in the allocated memory; discarding the decryption key after decryption of the encrypted data; using the sensitive data to generate the message; and overwriting the sensitive data in the allocated memory so as to delete the sensitive data.
An electric motor drive system, comprising: a mechanical power generation device (1 to 5) for outputting a mechanical power by combustion of a liquid or gas fuel; a plurality of generators (6 to 10) to be driven by the mechanical power generation device (1 to 5) and for generating an AC voltage; a common bus to which the output terminals of the plurality of the generators (6 to 10) are connected in parallel; a plurality of electric power conversion devices (52 to 55; 58 to 61; 66 to 69; 74 to 77; 79 to 82; 86 to 89) for outputting an AC voltage of variable amplitude and variable frequency; and a plurality of electric motors (23 to 26) respectively connected to the respective electric power conversion devices, and for driving a load machine, characterized in that the electric power conversion devices are configured to individually detect the voltage of the common bus , extract an oscillation component of a system voltage from the detected voltage of the common bus via a filter , and control the reactive power exchanged with the common bus based on the oscillation component, thereby to control the amplitude of the common bus voltage to be constant. a mechanical power generation device (1 to 5) for outputting a mechanical power by combustion of a liquid or gas fuel; a plurality of generators (6 to 10) to be driven by the mechanical power generation device (1 to 5) and for generating an AC voltage; a common bus to which the output terminals of the plurality of the generators (6 to 10) are connected in parallel; a plurality of electric power conversion devices (52 to 55; 58 to 61; 66 to 69; 74 to 77; 79 to 82; 86 to 89) for outputting an AC voltage of variable amplitude and variable frequency; and a plurality of electric motors (23 to 26) respectively connected to the respective electric power conversion devices, and for driving a load machine, characterized in that the electric power conversion devices are configured to individually detect the voltage of the common bus , extract an oscillation component of a system voltage from the detected voltage of the common bus via a filter , and control the reactive power exchanged with the common bus based on the oscillation component, thereby to control the amplitude of the common bus voltage to be constant.
A conditioning system for a vehicle passenger seat, comprising: at least one conditioning unit comprising a Venturi device configured to generate air flow relative to a seat element and a heating element configured to heat the Venturi device; a temperature sensor configured to sense a temperature in relation to the at least one conditioning unit; and a controller communicatively coupled to the temperature sensor and operably coupled to the at least one conditioning unit; wherein the controller is operable for operating the at least one conditioning unit in a first operating condition in which the Venturi device is activated and the heating element is inactive, and a second operating condition in which both the Venturi device and the heating element are activated ; characterized in that : the Venturi device comprises a main body having a compressed air inlet configured to be coupled in fluid communication to a compressed air source , an ambient air inlet for fluid communication with ambient air of an air column provided in a cushion assembly rigid support of the vehicle passenger seat, and an air outlet for directing the generated air flow from the Venturi device towards a cushion assembly ; and the heating element is implemented as a sheet positioned in direct physical contact against an outer surface of the main body . at least one conditioning unit comprising a Venturi device configured to generate air flow relative to a seat element and a heating element configured to heat the Venturi device; a temperature sensor configured to sense a temperature in relation to the at least one conditioning unit; and a controller communicatively coupled to the temperature sensor and operably coupled to the at least one conditioning unit; wherein the controller is operable for operating the at least one conditioning unit in a first operating condition in which the Venturi device is activated and the heating element is inactive, and a second operating condition in which both the Venturi device and the heating element are activated ; characterized in that : the Venturi device comprises a main body having a compressed air inlet configured to be coupled in fluid communication to a compressed air source , an ambient air inlet for fluid communication with ambient air of an air column provided in a cushion assembly rigid support of the vehicle passenger seat, and an air outlet for directing the generated air flow from the Venturi device towards a cushion assembly ; and the heating element is implemented as a sheet positioned in direct physical contact against an outer surface of the main body . the Venturi device comprises a main body having a compressed air inlet configured to be coupled in fluid communication to a compressed air source , an ambient air inlet for fluid communication with ambient air of an air column provided in a cushion assembly rigid support of the vehicle passenger seat, and an air outlet for directing the generated air flow from the Venturi device towards a cushion assembly ; and the heating element is implemented as a sheet positioned in direct physical contact against an outer surface of the main body .
A device for mitral valve, MV, cerclage annuloplasty comprising: a capturing catheter adapted for pulling out a right ventricular outflow tract, RVOT, wire through the inferior vena cava, IVC, wherein the RVOT wire is positioned in the right ventricle, RV, through superior vena cava, SVC, and coronary sinus, CS, wherein the capturing catheter is inserted through the IVC to the RV traversing through a safe zone for capturing the RVOT wire , wherein the capturing catheter comprises a central lumen catheter , an outer catheter and a mesh , wherein the central lumen catheter holds a wire and the outer catheter holds the central lumen catheter , enabling the central lumen catheter to move in and out of the outer catheter , and wherein a distal portion of the mesh is secured to the central lumen catheter and a proximal portion of the mesh is secured to the outer catheter , characterized in that , when the mesh is expanded, the RVOT wire can pass through the mesh , and when the mesh is collapsed, the RVOT wire can be securely grabbed by the mesh enabling the capturing catheter to pull out the RVOT wire through the IVC, and the capturing catheter further comprises at least one connector which attaches the mesh to the central lumen catheter allowing the connector to move back and forth causing the mesh to expand and collapse thereby forming a D-shape when the mesh is expanded. a capturing catheter adapted for pulling out a right ventricular outflow tract, RVOT, wire through the inferior vena cava, IVC, wherein the RVOT wire is positioned in the right ventricle, RV, through superior vena cava, SVC, and coronary sinus, CS, wherein the capturing catheter is inserted through the IVC to the RV traversing through a safe zone for capturing the RVOT wire , wherein the capturing catheter comprises a central lumen catheter , an outer catheter and a mesh , wherein the central lumen catheter holds a wire and the outer catheter holds the central lumen catheter , enabling the central lumen catheter to move in and out of the outer catheter , and wherein a distal portion of the mesh is secured to the central lumen catheter and a proximal portion of the mesh is secured to the outer catheter , characterized in that , when the mesh is expanded, the RVOT wire can pass through the mesh , and when the mesh is collapsed, the RVOT wire can be securely grabbed by the mesh enabling the capturing catheter to pull out the RVOT wire through the IVC, and the capturing catheter further comprises at least one connector which attaches the mesh to the central lumen catheter allowing the connector to move back and forth causing the mesh to expand and collapse thereby forming a D-shape when the mesh is expanded.