mhurhangee/patent-ind-claim-en huggingface dataset:
Method for printing on at least one narrow surface of a workpiece , in particular a workpiece which is at least partially made of wood, a wood-based material, a plastic, a composite material or the like and is provided, at least in certain areas, with a coating material, having the steps that - surface information of at least one workpiece surface which is adjacent to the narrow surface to be printed is, at least in certain areas, optically registered by means of a sensor device , - the registered surface information is communicated to a print controller and the print controller determines printing information for controlling a printing unit depending on the registered surface information , wherein - the printing information is used to control a printing process by which a narrow surface decoration is printed onto the narrow surface which is adapted to a decoration pattern of the optically registered workpiece surface, and - the optically registered workpiece surface has a workpiece decoration which corresponds to a decoration section from the determined decoration template , wherein the print controller determines the corresponding decoration section from the decoration template with positional accuracy on the basis of the registered surface information and/or the workpiece dimensions, and the printing information for printing the narrow surface decoration can be determined from at least one decoration area of the decoration template . - surface information of at least one workpiece surface which is adjacent to the narrow surface to be printed is, at least in certain areas, optically registered by means of a sensor device , - the registered surface information is communicated to a print controller and the print controller determines printing information for controlling a printing unit depending on the registered surface information , wherein - the printing information is used to control a printing process by which a narrow surface decoration is printed onto the narrow surface which is adapted to a decoration pattern of the optically registered workpiece surface, and - the optically registered workpiece surface has a workpiece decoration which corresponds to a decoration section from the determined decoration template , wherein the print controller determines the corresponding decoration section from the decoration template with positional accuracy on the basis of the registered surface information and/or the workpiece dimensions, and the printing information for printing the narrow surface decoration can be determined from at least one decoration area of the decoration template .
A microorganism of the genus Corynebacterium with enhanced ability to produce L-arginine, which has an enhanced activity of aspartate ammonia-lyase and aspartate aminotransferase compared to the endogenous activity of a microorganism of the genus Corynebacterium with an ability to produce L-arginine, wherein said enhanced activity is obtained by a method selected from: (a) a method of increasing the copy number of a nucleotide sequence encoding aspartate ammonia-lyase and aspartate aminotransferase in said microorganism comprising introducing a gene encoding aspartate ammonia-lyase and aspartate aminotransferase into a vector and transforming the microorganism with the vector; and (b) a method of replacing the promoters of the aspartate ammonia-lyase and aspartate amino transferase genes with strong promoters in said microorganism. (a) a method of increasing the copy number of a nucleotide sequence encoding aspartate ammonia-lyase and aspartate aminotransferase in said microorganism comprising introducing a gene encoding aspartate ammonia-lyase and aspartate aminotransferase into a vector and transforming the microorganism with the vector; and (b) a method of replacing the promoters of the aspartate ammonia-lyase and aspartate amino transferase genes with strong promoters in said microorganism.
A method of determining a position of a first mobile device, the method comprising: determining a first time difference, wherein the first time difference comprises a time difference between: a time a first wireless reference signal transmitted by a network entity arrives at the first mobile device, and a time the first mobile device transmits a second wireless reference signal; determining a second time difference, wherein the second time difference comprises a time difference between: a time a third wireless reference signal transmitted by the network entity arrives at a second mobile device, and a time the second wireless reference signal arrives at the second mobile device; determining the position of the first mobile device based on the first time difference and the second time difference; and providing the position of the first mobile device. determining a first time difference, wherein the first time difference comprises a time difference between: a time a first wireless reference signal transmitted by a network entity arrives at the first mobile device, and a time the first mobile device transmits a second wireless reference signal; a time a first wireless reference signal transmitted by a network entity arrives at the first mobile device, and a time the first mobile device transmits a second wireless reference signal; determining a second time difference, wherein the second time difference comprises a time difference between: a time a third wireless reference signal transmitted by the network entity arrives at a second mobile device, and a time the second wireless reference signal arrives at the second mobile device; a time a third wireless reference signal transmitted by the network entity arrives at a second mobile device, and a time the second wireless reference signal arrives at the second mobile device; determining the position of the first mobile device based on the first time difference and the second time difference; and providing the position of the first mobile device.
A method for generating authentication parameters for access to a joint account, wherein the joint account is jointly managed by N joint managers, N is a natural number greater than 1, and wherein the method is performed by client software and comprises: obtaining a user-side authentication parameter of the joint account, wherein the user-side authentication parameter corresponds to a network-side authentication parameter of the joint account and is used to perform authentication on operation permission for the joint account, wherein obtaining the user-side authentication parameter of the joint account comprises i) generating the user-side authentication parameter and the network-side authentication parameter of the joint account and ii) uploading the network-side authentication parameter to a server; dividing the user-side authentication parameter into 2N non-overlapping parts, comprising dividing the user-side authentication parameter into 2N numbered segments, wherein the 2N segments are numbered in order; generating N joint management authentication parameters based on the 2N non-overlapping parts, comprising, for each value k ranging from 1 to N i) providing the k-th segment, (k+N)th segment, and k as input to a mapping algorithm to obtain a mapping output and ii) encrypting the mapping output to obtain a respective joint management authentication parameter; and transmitting each of the N joint management authentication parameters to a respective device controlled by each joint manager. obtaining a user-side authentication parameter of the joint account, wherein the user-side authentication parameter corresponds to a network-side authentication parameter of the joint account and is used to perform authentication on operation permission for the joint account, wherein obtaining the user-side authentication parameter of the joint account comprises i) generating the user-side authentication parameter and the network-side authentication parameter of the joint account and ii) uploading the network-side authentication parameter to a server; i) generating the user-side authentication parameter and the network-side authentication parameter of the joint account and ii) uploading the network-side authentication parameter to a server; dividing the user-side authentication parameter into 2N non-overlapping parts, comprising dividing the user-side authentication parameter into 2N numbered segments, wherein the 2N segments are numbered in order; generating N joint management authentication parameters based on the 2N non-overlapping parts, comprising, for each value k ranging from 1 to N i) providing the k-th segment, (k+N)th segment, and k as input to a mapping algorithm to obtain a mapping output and ii) encrypting the mapping output to obtain a respective joint management authentication parameter; and i) providing the k-th segment, (k+N)th segment, and k as input to a mapping algorithm to obtain a mapping output and ii) encrypting the mapping output to obtain a respective joint management authentication parameter; and transmitting each of the N joint management authentication parameters to a respective device controlled by each joint manager.
A nuclear fuel rod comprising at least one or more fuel pellets , a cladding tube surrounding the fuel pellets , and a burnable absorber inside the cladding tube , wherein the burnable absorber comprises a burnable absorber material and a cladding material surrounding the burnable absorber material , and the cladding material is an alloy comprising zirconium, characterised in that the burnable absorber has a disk shape. wherein the burnable absorber comprises a burnable absorber material and a cladding material surrounding the burnable absorber material , and the cladding material is an alloy comprising zirconium, characterised in that the burnable absorber has a disk shape.
A conjugated diene-based rubber comprising a polymer block (A) containing isoprene monomer unit as the main component, and a polymer block (B) containing 1,3-butadiene monomer unit as the main component, wherein at least one of the polymer block (A) and the polymer block (B) contains a unit of a vinyl compound having a functional group interactive with silica, the unit of a vinyl compound having a functional group interactive with silica is a unit represented by General Formula , and the polymer block (A) has a weight average molecular weight (Mw) in the range of 1,000 to 30,000, and the entire conjugated diene-based rubber has a weight average molecular weight (Mw) in the range of 50,000 to 5,000,000: where X 5 represents a chemical single bond or a hydrocarbylene group, and X 6 , X 7 and X 8 each independently represent a hydroxyl group, a substituted amino group, a hydrocarbyloxy group, or an optionally substituted hydrocarbyl group. wherein at least one of the polymer block (A) and the polymer block (B) contains a unit of a vinyl compound having a functional group interactive with silica, the unit of a vinyl compound having a functional group interactive with silica is a unit represented by General Formula , and the polymer block (A) has a weight average molecular weight (Mw) in the range of 1,000 to 30,000, and the entire conjugated diene-based rubber has a weight average molecular weight (Mw) in the range of 50,000 to 5,000,000: where X 5 represents a chemical single bond or a hydrocarbylene group, and X 6 , X 7 and X 8 each independently represent a hydroxyl group, a substituted amino group, a hydrocarbyloxy group, or an optionally substituted hydrocarbyl group.
A matrix layer suitable for use in a transdermal delivery patch for administration of a biologically active compound, the matrix layer comprising a mixture of a mono-tocopheryl phosphate compound and a di-tocopheryl phosphate compound and a polymer carrier comprising polymers selected from the group consisting of polyvinyl pyrrolidone, polysiloxanes, polyalkyl acrylates and polymethyl methacrylate, wherein the polymer carrier is present in an amount within the range of 30%w/w to 95%w/w of the total weight of the matrix layer.
A torque-limiting driver comprising: a generally hollow cylindrical body ; a nose cone at one end of said body ; within said body an upper shank ; within said body a lower shank , the lower shank being integrally connected to said nose cone ; said nose cone having a D-shaped hole ; the torque-limiting driver further comprising a tip with a D-shaped end corresponding to the D-shaped hole , wherein the D-shaped end is configured to be inserted into the D-shaped hole; wherein the D-shaped hole is configured to receive the D-shaped end of the tip ; within said body a locking screw extending through the upper shank and coupled to the lower shank ; within said body a spring between a portion of the locking screw and the upper shank , the spring applying a force across the upper shank and the lower shank ; wherein the upper shank and the lower shank have a plurality of teeth forming a pair a crown gears and an axial bore that defines an inner radius of the upper and lower shank; wherein the teeth of the upper and lower shank forcibly engage for relative upper and lower shank rotation and wherein the teeth disengage when a predetermined value of torque is exceeded; wherein the torque-limiting driver further comprises at least one lumen providing access to a distally-located worksite from a proximal end of the torque-limiting driver through a central axis of the torque-limiting driver ; and wherein the at least one lumen extends axially through at least one of the nose cone , the upper shank , the lower shank , and the locking screw . a generally hollow cylindrical body ; a nose cone at one end of said body ; within said body an upper shank ; within said body a lower shank , the lower shank being integrally connected to said nose cone ; said nose cone having a D-shaped hole ; the torque-limiting driver further comprising a tip with a D-shaped end corresponding to the D-shaped hole , wherein the D-shaped end is configured to be inserted into the D-shaped hole; wherein the D-shaped hole is configured to receive the D-shaped end of the tip ; within said body a locking screw extending through the upper shank and coupled to the lower shank ; within said body a spring between a portion of the locking screw and the upper shank , the spring applying a force across the upper shank and the lower shank ; wherein the upper shank and the lower shank have a plurality of teeth forming a pair a crown gears and an axial bore that defines an inner radius of the upper and lower shank; wherein the teeth of the upper and lower shank forcibly engage for relative upper and lower shank rotation and wherein the teeth disengage when a predetermined value of torque is exceeded; wherein the torque-limiting driver further comprises at least one lumen providing access to a distally-located worksite from a proximal end of the torque-limiting driver through a central axis of the torque-limiting driver ; and wherein the at least one lumen extends axially through at least one of the nose cone , the upper shank , the lower shank , and the locking screw .
A linear actuator (1200; 1330) for a gas regulating valve, comprising: a housing ; a hollow yoke mounted inside the housing: a coil assembly including a hollow bobbin inserted within the yoke ; a magnetic element inserted within the coil assembly ; a circuit assembly coupled to the outer surface of the yoke ; and a central aperture of the yoke, the coil assembly and the magnetic element adapted to receive a gas flow path therethrough, wherein the coil assembly includes the bobbin having a wire coil wound thereon and wire aligning structures adapted to facilitate attachment of ends of the wire coil to the circuit assembly through apertures provided in the yoke , and wherein the coil assembly is adapted to move in a linear direction within the yoke in response to electro-magnetic forces applied by the stationary magnetic element a housing ; a hollow yoke mounted inside the housing: a coil assembly including a hollow bobbin inserted within the yoke ; a magnetic element inserted within the coil assembly ; a circuit assembly coupled to the outer surface of the yoke ; and a central aperture of the yoke, the coil assembly and the magnetic element adapted to receive a gas flow path therethrough, a coil assembly including a hollow bobbin inserted within the yoke ; a magnetic element inserted within the coil assembly ; a circuit assembly coupled to the outer surface of the yoke ; and a central aperture of the yoke, the coil assembly and the magnetic element adapted to receive a gas flow path therethrough, wherein the coil assembly includes the bobbin having a wire coil wound thereon and wire aligning structures adapted to facilitate attachment of ends of the wire coil to the circuit assembly through apertures provided in the yoke , and wherein the coil assembly is adapted to move in a linear direction within the yoke in response to electro-magnetic forces applied by the stationary magnetic element
A cryoprotectant for use in a method of removing heat from subcutaneous lipid rich cells of a subject having skin, the method also using: a treatment device having a housing, a thermal mass, and a heat exchanging surface in thermal communication with the thermal mass, wherein the thermal mass reduces a temperature of a region of the skin during the method such that lipid rich cells in the region are disabled, destroyed, removed or killed while non-lipid rich cells proximate to the heat exchanging surface are preserved; and an absorbent preloaded with an excess of the cryoprotectant sufficient to continually supply the cryoprotectant to the skin during the method to be absorbed in the epidermis, wherein the absorbent is positioned at least partially between the heat exchanging surface and the region during the method, and wherein the absorbent is a mesh, a foam, a porous plastic material and/or a porous metal material, wherein the cryoprotectant substantially covers an interface between the treatment device and the skin during the method, and wherein the cryoprotectant contacts the treatment device and the skin during the method. a treatment device having a housing, a thermal mass, and a heat exchanging surface in thermal communication with the thermal mass, wherein the thermal mass reduces a temperature of a region of the skin during the method such that lipid rich cells in the region are disabled, destroyed, removed or killed while non-lipid rich cells proximate to the heat exchanging surface are preserved; and an absorbent preloaded with an excess of the cryoprotectant sufficient to continually supply the cryoprotectant to the skin during the method to be absorbed in the epidermis, wherein the absorbent is positioned at least partially between the heat exchanging surface and the region during the method, and wherein the absorbent is a mesh, a foam, a porous plastic material and/or a porous metal material, wherein the cryoprotectant substantially covers an interface between the treatment device and the skin during the method, and wherein the cryoprotectant contacts the treatment device and the skin during the method.
Method for optimizing control data of the elevator controller of an existing or modernized elevator system , wherein the elevator controller is connected to a programmable device , wherein a three-dimensional digital twin data record which can be generated by means of a computer program product is loaded on the programmable device as a simulation environment , wherein the three-dimensional digital twin data record images and simulates the existing or modernized elevator system assigned to the elevator controller , and wherein a parameter set adapted for operation in the simulation environment is determined for the elevator controller of the existing or modernized elevator system by testing the elevator controller in the simulation environment , wherein the three-dimensional digital twin data record of the existing or modernized elevator system is constructed from component model data records which can have different configurations and are defined by characterizing properties (T, B, H), characterized in that each floor of the existing elevator system or the elevator system to be modernized is approached at least once by at least one measurement run with the existing elevator system and a measuring device is used to detect at least the measurement data (G1, G2, G3, G4) which represent floor heights (h1, h2, h3), wherein, for each floor of the elevator system detected by the measurement run , component model data records configured as a floor portion component model data record and/or component model data records configured as a shaft portion component model data record are arranged in the detected sequence one above the other in the vertical direction, and in each of these a default value (z) of the characterizing property (H) which defines the height distance to the next component model data record is replaced by the corresponding floor height (h1, h2, h3) determined from the measurement data (G1, G2, G3, G4).
A method of removing casing from a well , in which an annulus between the outside of the casing and the inside of a surrounding downhole body is at least partially filled by a viscous and/or solid mass, the method comprising: (a) lowering a string into the well, a packer , a punch tool , and a cutting tool being connected to the string, and the string being arranged to carry a fluid; (b) locating an end of the string in relation to a plug in the casing, the plug providing a seal across the bore of the casing at a first depth; (c) forming one or more perforations through the casing with said punch tool at a second depth in the well, the second depth being shallower than the first depth; (d) setting the packer at a third depth, the third depth being shallower than the second depth; (e) pumping fluid through the string and through the one or more perforations; characterised in that : (f) a circulation test is performed by looking for a return at surface which determines if fluid has managed to pass through material in the annulus between the outside of the casing and the inside of the surrounding downhole body; (g) in the event that a return is detected at surface, cutting the casing using the cutting tool to separate a length of cut casing from plugged casing ; and (h) pulling the length of cut casing from the well. (a) lowering a string into the well, a packer , a punch tool , and a cutting tool being connected to the string, and the string being arranged to carry a fluid; (b) locating an end of the string in relation to a plug in the casing, the plug providing a seal across the bore of the casing at a first depth; (c) forming one or more perforations through the casing with said punch tool at a second depth in the well, the second depth being shallower than the first depth; (d) setting the packer at a third depth, the third depth being shallower than the second depth; (e) pumping fluid through the string and through the one or more perforations; (f) a circulation test is performed by looking for a return at surface which determines if fluid has managed to pass through material in the annulus between the outside of the casing and the inside of the surrounding downhole body; (g) in the event that a return is detected at surface, cutting the casing using the cutting tool to separate a length of cut casing from plugged casing ; and (h) pulling the length of cut casing from the well.