mhurhangee/patent-ind-claim-en huggingface dataset:
A method , comprising: packaging an application that is associated with sensitive data into at least a first image and a second image by placing first layers in the first image, the first layers including a main application and a copier layer and by placing second layers in the second image, wherein the second layers include a decryptor layer and an encrypted layer that includes the sensitive data in an encrypted form; configuring the second image to run before the first image ; and further comprising: running the second image as an initialization container , wherein execution of the initialization container includes decrypting , by the decryptor, the encrypted layer to obtain decrypted sensitive data; storing the decrypted sensitive data in a directory of a filesystem; running the first image as a main application container after the initialization container successfully completes; and running the copier layer, wherein the copier layer copies the decrypted sensitive data in the directory to a location in a layer root directory associated with the main application. packaging an application that is associated with sensitive data into at least a first image and a second image by placing first layers in the first image, the first layers including a main application and a copier layer and by placing second layers in the second image, wherein the second layers include a decryptor layer and an encrypted layer that includes the sensitive data in an encrypted form; configuring the second image to run before the first image ; and further comprising: running the second image as an initialization container , wherein execution of the initialization container includes decrypting , by the decryptor, the encrypted layer to obtain decrypted sensitive data; storing the decrypted sensitive data in a directory of a filesystem; running the first image as a main application container after the initialization container successfully completes; and running the copier layer, wherein the copier layer copies the decrypted sensitive data in the directory to a location in a layer root directory associated with the main application.
A cooking appliance comprising: a cooking chamber for receiving a food item for cooking; a camera having a field of view including at least a portion of the cooking chamber and configured to capture an image of a food item inside the cooking chamber ; a computing device in communication with the camera characterized in that the cooking appliance comprises a software module configured to trigger the capturing of images by the camera at an event triggered interval , the event triggered interval being based on a temperature-based interval or on a doneness-based interval ; a temperature probe for measuring an internal temperature of the food item , the temperature probe being in communication with the computing device and configured to output a temperature reading; and a user interface in communication with the computing device and configured to display the captured images . a cooking chamber for receiving a food item for cooking; a camera having a field of view including at least a portion of the cooking chamber and configured to capture an image of a food item inside the cooking chamber ; a computing device in communication with the camera characterized in that the cooking appliance comprises a software module configured to trigger the capturing of images by the camera at an event triggered interval , the event triggered interval being based on a temperature-based interval or on a doneness-based interval ; a temperature probe for measuring an internal temperature of the food item , the temperature probe being in communication with the computing device and configured to output a temperature reading; and a user interface in communication with the computing device and configured to display the captured images .
One track vehicle comprising: - at least one front wheel and one rear wheel , - a frame having a rear swing arm comprising at least one arm , wherein the rear wheel is supported on the at least one arm , - an electric motor , which is drivingly coupled with the rear wheel and a motor control unit for controlling the electric motor , wherein the electric motor as well as the motor control unit are arranged in an installation space of the rear swing arm , which is limited in transverse direction (Q) orthogonal to the driving direction (F) by the at least one arm , - a cover that covers the installation space on a top side, characterized in that the cover comprises a support part for a spring-damper-unit . - at least one front wheel and one rear wheel , - a frame having a rear swing arm comprising at least one arm , wherein the rear wheel is supported on the at least one arm , - an electric motor , which is drivingly coupled with the rear wheel and a motor control unit for controlling the electric motor , wherein the electric motor as well as the motor control unit are arranged in an installation space of the rear swing arm , which is limited in transverse direction (Q) orthogonal to the driving direction (F) by the at least one arm , - a cover that covers the installation space on a top side,
A laser cutting tool with protective enclosure assembly for manipulating a workpiece on a, preferably movable, platen, said laser cutting tool with protective enclosure assembly comprising: a middle protection shield ; a bottom protection assembly ; a laser torch head ; being characterized by : a frame ; a top protection assembly ; and further characterized in that said top protection assembly , said middle protection shield , and said bottom protection assembly are removably mounted to said frame ; wherein said top protection assembly , said middle protection shield , and said bottom protection assembly form a cavity enclosing completely only said laser torch head ; and wherein said frame comprises at least one shield interlock switch , said middle protection shield being removably mounted to said frame via its contact with the at least one interlock switch , and said frame comprises at least one top interlock switch , said top protection assembly is mounted to said frame via its contact with the at least one top interlock switch . a middle protection shield ; a bottom protection assembly ; a laser torch head ; being characterized by : a frame ; a top protection assembly ; and further characterized in that said top protection assembly , said middle protection shield , and said bottom protection assembly are removably mounted to said frame ; wherein said top protection assembly , said middle protection shield , and said bottom protection assembly form a cavity enclosing completely only said laser torch head ; and wherein said frame comprises at least one shield interlock switch , said middle protection shield being removably mounted to said frame via its contact with the at least one interlock switch , and said frame comprises at least one top interlock switch , said top protection assembly is mounted to said frame via its contact with the at least one top interlock switch . a frame ; a top protection assembly ; and further characterized in that said top protection assembly , said middle protection shield , and said bottom protection assembly are removably mounted to said frame ; wherein said top protection assembly , said middle protection shield , and said bottom protection assembly form a cavity enclosing completely only said laser torch head ; and wherein said frame comprises at least one shield interlock switch , said middle protection shield being removably mounted to said frame via its contact with the at least one interlock switch , and said frame comprises at least one top interlock switch , said top protection assembly is mounted to said frame via its contact with the at least one top interlock switch .
A method for smoothing coordinates, comprising: acquiring (S102, S202, S302) touch point coordinates of a current data frame on a touch screen, and touch point coordinates of N consecutive data frames prior to the current data frame, the N being a natural number greater than or equal to 2; performing (S104, S204, S304) a Bessel interpolation iteration on the touch point coordinates including the current data frame and the N consecutive data frames with the touch point coordinates of the N+1 data frames as initial iteration values; and acquiring (S106) an iteration result of the Bessel interpolation iteration, and implementing coordinate smoothing according to the iteration result; wherein the acquiring an iteration result of the Bessel interpolation iteration, and implementing coordinate smoothing according to the iteration result comprises: updating the touch point coordinates of the current data frame with the iteration result of the Bessel interpolation iteration to implement coordinate smoothing. acquiring (S102, S202, S302) touch point coordinates of a current data frame on a touch screen, and touch point coordinates of N consecutive data frames prior to the current data frame, the N being a natural number greater than or equal to 2; performing (S104, S204, S304) a Bessel interpolation iteration on the touch point coordinates including the current data frame and the N consecutive data frames with the touch point coordinates of the N+1 data frames as initial iteration values; and acquiring (S106) an iteration result of the Bessel interpolation iteration, and implementing coordinate smoothing according to the iteration result; wherein the acquiring an iteration result of the Bessel interpolation iteration, and implementing coordinate smoothing according to the iteration result comprises: updating the touch point coordinates of the current data frame with the iteration result of the Bessel interpolation iteration to implement coordinate smoothing.
Method for automatically adapting an image data set obtained by means of an X-ray device, which maps a target object , having the following method steps - acquiring the image data set, wherein the image data set comprises a plurality of single images , which map different layers of the target object , - for each of the single images using at least one specified threshold value, generating a respective binary mask, which differentiates different components of the target object in the single images from each other, - using all of the binary masks, determining that one of the single images which contains a largest cohesive region of one of the components as a reference image , - determining a mean value of all pixel values of the reference image pertaining to the largest cohesive region , - determining an offset from the determined mean value and a specified target value in such a way that by applying it to the pixel values used for determining the mean value, the pixel values are adapted in such a way that a mean value of the pixel values adapted by means of the offset corresponds to the specified target value, - applying the determined offset to all pixel values of the image data set in order to adapt the image data set. - acquiring the image data set, wherein the image data set comprises a plurality of single images , which map different layers of the target object , - for each of the single images using at least one specified threshold value, generating a respective binary mask, which differentiates different components of the target object in the single images from each other, - using all of the binary masks, determining that one of the single images which contains a largest cohesive region of one of the components as a reference image , - determining a mean value of all pixel values of the reference image pertaining to the largest cohesive region , - determining an offset from the determined mean value and a specified target value in such a way that by applying it to the pixel values used for determining the mean value, the pixel values are adapted in such a way that a mean value of the pixel values adapted by means of the offset corresponds to the specified target value, - applying the determined offset to all pixel values of the image data set in order to adapt the image data set.
A fluorinated copolymer composition comprising a fluorinated copolymer (A) having units having a nitrile group, units based on tetrafluoroethylene, and units based on a perfluoro(alkyl vinyl ether), a fluorinated copolymer (B) having units having at least one functional group selected from the group consisting of a carboxy group and an acid anhydride group, units based on tetrafluoroethylene, and units based on a perfluoro(alkyl vinyl ether), and a crosslinking agent, wherein, in the fluorinated copolymer (A), the contents of the units having a nitrile group are from 0.05 to 5 mol%, the units based on tetrafluoroethylene are from 60 to 80 mol%, and the units based on a perfluoro(alkyl vinyl ether) are from 20 to 40 mol% to all units in the fluorinated copolymer (A), wherein, in the fluorinated copolymer (B), the contents of the units having at least one functional group selected from the group consisting of a carboxy group and an acid anhydride group are from 0.01 to 3 mol%, the units based on tetrafluoroethylene are from 90 to 99.89 mol%, and the units based on a perfluoro(alkyl vinyl ether) are from 0.1 to 9.99 mol% to all units in the fluorinated copolymer (B), and wherein the content of the fluorinated copolymer (B) is 2 parts by mass or higher and 50 parts by mass or lower to 100 parts by mass of the fluorinated copolymer (A). wherein, in the fluorinated copolymer (A), the contents of the units having a nitrile group are from 0.05 to 5 mol%, the units based on tetrafluoroethylene are from 60 to 80 mol%, and the units based on a perfluoro(alkyl vinyl ether) are from 20 to 40 mol% to all units in the fluorinated copolymer (A), wherein, in the fluorinated copolymer (B), the contents of the units having at least one functional group selected from the group consisting of a carboxy group and an acid anhydride group are from 0.01 to 3 mol%, the units based on tetrafluoroethylene are from 90 to 99.89 mol%, and the units based on a perfluoro(alkyl vinyl ether) are from 0.1 to 9.99 mol% to all units in the fluorinated copolymer (B), and wherein the content of the fluorinated copolymer (B) is 2 parts by mass or higher and 50 parts by mass or lower to 100 parts by mass of the fluorinated copolymer (A).
A method of detecting corrosion on surfaces of an object , the method comprising immersing the object into an electrolyte, detecting by electrochemical techniques the presence of corrosion on the surfaces of the object , wherein the step of detecting comprises using linear sweep voltammetry (LSV) or cyclic voltammetry (CV) scan and using an Ag or an AgCl reference electrode in the LSV or CV scan as the third electrode, and characterised in that detecting presence of corrosion is based on current originating from redox reaction of iron and the potential window for the LSV or CV scan is between -0.35V and 0.35V vs Ag/AgCl reference. immersing the object into an electrolyte, detecting by electrochemical techniques the presence of corrosion on the surfaces of the object , wherein the step of detecting comprises using linear sweep voltammetry (LSV) or cyclic voltammetry (CV) scan and using an Ag or an AgCl reference electrode in the LSV or CV scan as the third electrode, and characterised in that detecting presence of corrosion is based on current originating from redox reaction of iron and the potential window for the LSV or CV scan is between -0.35V and 0.35V vs Ag/AgCl reference.
A compound of formula (la) wherein n is 1; and R 1 is NO 2 , CF 3 , CCl 3 , F, Cl, or CN, and R 2 , R 3 , R 4 , R 5 , R 6 , and R 7 are hydrogen; including tautomeric forms, enantiomeric forms, diastereoisomeric forms, and racemic forms thereof; or a pharmaceutically acceptable salt thereof; for use in the treatment of an arthritic disease, wherein said compound is to be administered with methotrexate (MTX). R 1 is NO 2 , CF 3 , CCl 3 , F, Cl, or CN, and R 2 , R 3 , R 4 , R 5 , R 6 , and R 7 are hydrogen; including tautomeric forms, enantiomeric forms, diastereoisomeric forms, and racemic forms thereof; or a pharmaceutically acceptable salt thereof; for use in the treatment of an arthritic disease, wherein said compound is to be administered with methotrexate (MTX).
A self-organizing structure of modular design containing at least two structural components joined with connectors, where each of the structural components contains a housing, within which there is a drive, characterized in that the housing of at least of two structural components is made of two matching, at least single layer hemispheres, of which at least one layer is covered with a ferromagnetic material or is made of a ferromagnetic material; inside the housing there is a flywheel connected to a drive motor with a brake , representing the drive, which in turn is connected to an energy storage module ; inside the housing there is a coordination module , which is connected to the flywheel , the drive motor with a brake and the energy storage module ; the connectors are equipped with a profiled aerostatic bearing , profiled seals and an air fitting , and in each connector there is an embedded magnet ; wherein a flat base of each connector is equipped with a holder constituting a side surface of the connector , a top surface of the connector being concave with a concave arc matching the curvature of the hemispheres, and having the top surface of the magnet embedded in its centre; wherein the top surface of magnet is surrounded concentrically by the aerostatic bearing and the seal ; wherein a power connector and said air fitting are located on the side surface of the holder .
Power module comprising at least three layers that are stacked one above the other, including: - at least one cooling body having an upper face , - at least one intermediate layer that is applied to the upper face of the cooling body and extends in a planar manner and provides an adhesive bond and comprises a first face that is facing the upper face of the cooling body and a second face that is remote from the first face , - at least one metal layer that is arranged on the second face of the intermediate layer and is sub-divided into conductor track sections and comprises a contact face that faces the second face of the intermediate layer , wherein the power module furthermore comprises at least one electric and/or electronic power component that is applied to at least one conductor track section of the metal layer and is in electrical contact with the at least one conductor track section of the metal layer , wherein the metal layer that is sub-divided into conductor track sections is produced from at least one metal sheet, which is sub-divided into conductor track sections , independently from the production of the intermediate layer and independently from the production of the cooling body , characterized in that the first face of the intermediate layer is laminated to the upper face of the cooling body and in that the second face of the intermediate layer is laminated to the contact face of the metal layer , wherein the intermediate layer is configured as a laminating film that is embodied from a synthetic material. - at least one cooling body having an upper face , - at least one intermediate layer that is applied to the upper face of the cooling body and extends in a planar manner and provides an adhesive bond and comprises a first face that is facing the upper face of the cooling body and a second face that is remote from the first face , - at least one metal layer that is arranged on the second face of the intermediate layer and is sub-divided into conductor track sections and comprises a contact face that faces the second face of the intermediate layer ,
A method of cutting slabs (L) made of stone and/or ceramic material with a cutting head having a tool-holder frame mounted on a carriage movable above the slabs (L), wherein said frame supports at least one first and one second blade which are substantially vertical and mutually aligned along a longitudinal cutting direction (D) and have respective centres (C 1 , C 2 ) spaced apart by a predetermined distance (V), said frame being hinged to said carriage by means of a substantially horizontal pin so as to allow the oscillation of said frame and vary the relative height ( h R ) of said blades and the respective cutting depth (h 1 , h 2 ) thereof, the method comprising the following steps: a) first inclination of said frame by a first predetermined angle ( α 1 ) with respect to a first slab (L 1 ) to be cut so that said first blade is lower than said second blade by a first relative height (h R1 ); b) pre-cutting the first slab (L 1 ) using said first blade ; c) second inclination of said frame by a second predetermined angle ( α 2 ) with respect to the first slab ( L 1 ) so that said first blade is higher than said second blade by a second relative height ( h R2 ); d) cutting the first slab (L 1 ) using said second blade ; e) third inclination of said frame by a third predetermined angle ( α 3 ) with respect to the first slab ( L 1 ) so that said first blade is higher than said second blade by a third relative height (h R3 ) greater than said second relative height (h R2 ) so as to prevent said first blade from interacting with a second slab ( L 2 ) adjacent to the first slab ( L 1 ). a) first inclination of said frame by a first predetermined angle ( α 1 ) with respect to a first slab (L 1 ) to be cut so that said first blade is lower than said second blade by a first relative height (h R1 ); b) pre-cutting the first slab (L 1 ) using said first blade ; c) second inclination of said frame by a second predetermined angle ( α 2 ) with respect to the first slab ( L 1 ) so that said first blade is higher than said second blade by a second relative height ( h R2 ); d) cutting the first slab (L 1 ) using said second blade ; e) third inclination of said frame by a third predetermined angle ( α 3 ) with respect to the first slab ( L 1 ) so that said first blade is higher than said second blade by a third relative height (h R3 ) greater than said second relative height (h R2 ) so as to prevent said first blade from interacting with a second slab ( L 2 ) adjacent to the first slab ( L 1 ).
A pharmaceutical composition comprising: a pharmaceutically effective amount of at least one peptide; and a pharmaceutically acceptable amount of a combination of: (a) at least one metal in the form of any of, or a combination of, a salt thereof and a complex thereof; and (b) at least one reducing agent, wherein, said at least one metal is selected from any of, or a combination of: vanadium (V) oxide, sodium vanadate, vanadium sulfate, vanadyl sulfate, vanadium biguanide, bis(maltolato)oxavandium (IV), vanadium acetate, vanadyl picolinate, vanadyl citrate, chromium picolinate, chromium polynicotinate, chromium nicotinate, chromium chloride, chromium acetate, manganese gluconate, manganese sulfate, potassium permanganate and manganese chloride. a pharmaceutically effective amount of at least one peptide; and a pharmaceutically acceptable amount of a combination of: (a) at least one metal in the form of any of, or a combination of, a salt thereof and a complex thereof; and (b) at least one reducing agent, (a) at least one metal in the form of any of, or a combination of, a salt thereof and a complex thereof; and (b) at least one reducing agent, wherein, said at least one metal is selected from any of, or a combination of: vanadium (V) oxide, sodium vanadate, vanadium sulfate, vanadyl sulfate, vanadium biguanide, bis(maltolato)oxavandium (IV), vanadium acetate, vanadyl picolinate, vanadyl citrate, chromium picolinate, chromium polynicotinate, chromium nicotinate, chromium chloride, chromium acetate, manganese gluconate, manganese sulfate, potassium permanganate and manganese chloride.