mhurhangee/ep-ind-claims huggingface dataset:
- Computer implemented method for processing a seismic image comprising seismic values obtained from seismic measurements performed on a geological formation, said seismic image comprising at least one horizontal dimension and one vertical dimension, said method comprising: - determining a seismic dip image based on the seismic image, said seismic dip image comprising local seismic dips representative of the local gradient of the seismic values of the seismic image; - decimating the seismic dip image by a decimating factor along at least one horizontal dimension in order to obtain a decimated seismic dip image; - initializing decimated seismic horizon surfaces, said decimated seismic horizon surfaces corresponding to seismic horizon surfaces using the same horizontal dimension as the decimated seismic dip image; - iteratively modifying the decimated seismic horizon surfaces to progressively increase alignment between local orientations of each decimated seismic horizon surface and the corresponding local seismic dips of the decimated seismic dip image, said local orientations and/or local seismic dips being corrected by the decimating factor, until a predetermined stop criterion is satisfied; - determining a relative geological time, RGT, image based on the decimated seismic horizon surfaces. - determining a seismic dip image based on the seismic image, said seismic dip image comprising local seismic dips representative of the local gradient of the seismic values of the seismic image; - decimating the seismic dip image by a decimating factor along at least one horizontal dimension in order to obtain a decimated seismic dip image; - initializing decimated seismic horizon surfaces, said decimated seismic horizon surfaces corresponding to seismic horizon surfaces using the same horizontal dimension as the decimated seismic dip image; - iteratively modifying the decimated seismic horizon surfaces to progressively increase alignment between local orientations of each decimated seismic horizon surface and the corresponding local seismic dips of the decimated seismic dip image, said local orientations and/or local seismic dips being corrected by the decimating factor, until a predetermined stop criterion is satisfied; - determining a relative geological time, RGT, image based on the decimated seismic horizon surfaces.
A plasma resonant cavity, comprising: a) a cylindrical resonant cavity casing; b) cutoff waveguides; and c) a waveguide inlet circumferentially formed on the cylindrical resonant cavity casing; wherein the cutoff waveguides are arranged at two ends of the cylindrical resonant cavity casing and comprise a removable end cover structure; an intermediate through hole is formed on each cutoff waveguide with the removable end cover structure; and a raised round table is arranged on an inner end surface of the cutoff waveguide and configured with the resonant cavity. a) a cylindrical resonant cavity casing; b) cutoff waveguides; and c) a waveguide inlet circumferentially formed on the cylindrical resonant cavity casing;
A method at a multi-mode device for wireless communications, comprising: camping on a packet switched radio access technology, RAT, network; determining that the multi-mode device is capable of supporting a voice service; receiving a system information block, SIB, message; determining an attach type from a plurality of attach types based on parameters of a home network and voice service capability; selecting a first domain from a first plurality of domains for the voice service over the RAT utilizing information included in the SIB message, the attach type and one or more parameters, wherein the first plurality of domains comprise single carrier-circuit switched fall back, 1xCSFB, domain; and selecting from a second plurality of domains, if the device is capable of supporting a short message service, SMS, service, a second domain for SMS services over the RAT, utilizing information included in the SIB message, the one or more parameters and information about the first domain; characterised in that the one or more parameters comprise stored usage setting of the multi-mode device, such as voice centric or data centric. camping on a packet switched radio access technology, RAT, network; determining that the multi-mode device is capable of supporting a voice service; receiving a system information block, SIB, message; determining an attach type from a plurality of attach types based on parameters of a home network and voice service capability; selecting a first domain from a first plurality of domains for the voice service over the RAT utilizing information included in the SIB message, the attach type and one or more parameters, wherein the first plurality of domains comprise single carrier-circuit switched fall back, 1xCSFB, domain; and selecting from a second plurality of domains, if the device is capable of supporting a short message service, SMS, service, a second domain for SMS services over the RAT, utilizing information included in the SIB message, the one or more parameters and information about the first domain; characterised in that the one or more parameters comprise stored usage setting of the multi-mode device, such as voice centric or data centric.
A mobile spray dispenser comprising: a fluid circulation system with a motorized pump (14a; 14b) capable of circulating fluid from a fluid reservoir (12a; 12b) in a high-pressure spray mode and a low-pressure recirculation mode, and providing the fluid to a sprayer, wherein the motorized pump is configured to draw lower power in the low-pressure recirculation mode than in the high-pressure spray mode; a heating unit (100a; 100b) disposed within the fluid circulation system to heat the fluid to a target temperature, the heating unit comprising: a primary heater (102a; 102b) configured to be active during both the high-pressure spray mode and the low-pressure recirculation mode; and a boost heater (104a; 104b) in fluid series with the primary heater and configured to be active only during the low-pressure recirculation mode. a fluid circulation system with a motorized pump (14a; 14b) capable of circulating fluid from a fluid reservoir (12a; 12b) in a high-pressure spray mode and a low-pressure recirculation mode, and providing the fluid to a sprayer, wherein the motorized pump is configured to draw lower power in the low-pressure recirculation mode than in the high-pressure spray mode; a heating unit (100a; 100b) disposed within the fluid circulation system to heat the fluid to a target temperature, the heating unit comprising: a primary heater (102a; 102b) configured to be active during both the high-pressure spray mode and the low-pressure recirculation mode; and a boost heater (104a; 104b) in fluid series with the primary heater and configured to be active only during the low-pressure recirculation mode. a primary heater (102a; 102b) configured to be active during both the high-pressure spray mode and the low-pressure recirculation mode; and a boost heater (104a; 104b) in fluid series with the primary heater and configured to be active only during the low-pressure recirculation mode.
A combination for improving plant growth and/or yield comprising 1-(2-methoxyethyl)-3-(1,2,3-thiadiazol-5yl)urea and at least one nitrogen utilization enhancer, selected from the group consisting of pyroglutamic acid, phosphite, glutamine, glycine, 2-oxoglutarate, glutamic acid, aspartic acid, proline, γ-aminobutyric acid, poly-γ-(glutamic acid), diethyl aminoethyl hexanoate, N-acetyl thiazolidine 4-carboxylic acid, preferably the nitrogen utilization enhancer is pyroglutamic acid and/or phosphite.
A steerable stereoscopic endoscope comprising: a shaft having a distal end (20, 35), a proximal end (15, 45), and an articulating region therebetween; means for steering the distal end (20, 35) of the shaft, and a seal camera module disposed distal to the distal end (20, 35), wherein the seal camera module comprises: an outer sleeve; fiber optic illumination bundles, each bonded and polished within ferrules; a module body configured to be disposed within the outer sleeve; a pair of electronic image sensor assemblies, a pair of camera lens cells and electronic leads of the electronic image sensor assemblies; characterised in that the seal camera module further comprises an elastomer seal; the module body is a single module body configured to carefully optically align and then bond the image sensor assemblies, the camera lens cells and the ferrules supporting the optical illumination bundles wherein then the module body is adapted to be secured within the outer sleeve and sealed with the elastomer seal at its proximal side, with the electronic leads and the illumination bundles extending through the elastomer seal. a shaft having a distal end (20, 35), a proximal end (15, 45), and an articulating region therebetween; means for steering the distal end (20, 35) of the shaft, and a seal camera module disposed distal to the distal end (20, 35), wherein the seal camera module comprises: an outer sleeve; fiber optic illumination bundles, each bonded and polished within ferrules; a module body configured to be disposed within the outer sleeve; a pair of electronic image sensor assemblies, a pair of camera lens cells and electronic leads of the electronic image sensor assemblies; characterised in that the seal camera module further comprises an elastomer seal; the module body is a single module body configured to carefully optically align and then bond the image sensor assemblies, the camera lens cells and the ferrules supporting the optical illumination bundles wherein then the module body is adapted to be secured within the outer sleeve and sealed with the elastomer seal at its proximal side, with the electronic leads and the illumination bundles extending through the elastomer seal. an outer sleeve; fiber optic illumination bundles, each bonded and polished within ferrules; a module body configured to be disposed within the outer sleeve; a pair of electronic image sensor assemblies, a pair of camera lens cells and electronic leads of the electronic image sensor assemblies; characterised in that the seal camera module further comprises an elastomer seal; the module body is a single module body configured to carefully optically align and then bond the image sensor assemblies, the camera lens cells and the ferrules supporting the optical illumination bundles wherein then the module body is adapted to be secured within the outer sleeve and sealed with the elastomer seal at its proximal side, with the electronic leads and the illumination bundles extending through the elastomer seal.
A lockable, extendable spinal implant for placement between first and second vertebral bodies, comprising: first and second bone engaging members (13, 14) each having a surface configured to respectively engage opposed first and second vertebral bodies; extension means (16, 22) acting between the first and second bone engaging members to control extension of said bone engaging members between contracted and extended configurations; first and second fixed lock members (17A, 17B) fixed to one of said first and second bone engaging members and extending towards the opposite bone engaging member, the fixed lock members being spaced apart and each having a fixed locking surface; first and second moveable lock members (20A, 20B) captured between the first and second bone engaging members for cooperation with the fixed lock members, each moveable lock member having a moveable locking surface configured to engage an opposed fixed locking surface on one said fixed lock member to prevent contraction of said extension means; and a locking actuator configured to engage the moveable locking surfaces with the fixed locking surfaces; characterised by a link member operatively connected between the first and second moveable lock members to coordinate rotation of one of the first and second moveable lock members in response to rotation of the other of the first and second moveable lock members, wherein the link member can rotate the first and second movable lock members in the same or opposite direction when a tensile force is applied to the link member. first and second bone engaging members (13, 14) each having a surface configured to respectively engage opposed first and second vertebral bodies; extension means (16, 22) acting between the first and second bone engaging members to control extension of said bone engaging members between contracted and extended configurations; first and second fixed lock members (17A, 17B) fixed to one of said first and second bone engaging members and extending towards the opposite bone engaging member, the fixed lock members being spaced apart and each having a fixed locking surface; first and second moveable lock members (20A, 20B) captured between the first and second bone engaging members for cooperation with the fixed lock members, each moveable lock member having a moveable locking surface configured to engage an opposed fixed locking surface on one said fixed lock member to prevent contraction of said extension means; and a locking actuator configured to engage the moveable locking surfaces with the fixed locking surfaces; characterised by a link member operatively connected between the first and second moveable lock members to coordinate rotation of one of the first and second moveable lock members in response to rotation of the other of the first and second moveable lock members, wherein the link member can rotate the first and second movable lock members in the same or opposite direction when a tensile force is applied to the link member.
A method comprising: Receiving, by a data processor of a measurement device (220, 300), an input to the measurement device identifying a test to be performed on a target device by the measurement device, characterized by the measurement device including a display (280, 315) including a graphical user interface providing an emulated view of a plurality of connection terminals (230, 305) of the measurement device (220, 300) configured to connect the measurement device (220, 300) to the target device to perform the test; providing based on the received input, the emulated view of the plurality of connection terminals via the graphical user interface; determining, by the data processor and based on the received input, an indication identifying at least one connection terminal of the plurality of connection terminals to connect to the target device to perform the test; and providing, by the data processor, the indication of the at least one connection terminal by means of the graphical user interface via an indication mechanism associated with the at least one connection terminal. Receiving, by a data processor of a measurement device (220, 300), an input to the measurement device identifying a test to be performed on a target device by the measurement device, characterized by the measurement device including a display (280, 315) including a graphical user interface providing an emulated view of a plurality of connection terminals (230, 305) of the measurement device (220, 300) configured to connect the measurement device (220, 300) to the target device to perform the test; providing based on the received input, the emulated view of the plurality of connection terminals via the graphical user interface; determining, by the data processor and based on the received input, an indication identifying at least one connection terminal of the plurality of connection terminals to connect to the target device to perform the test; and providing, by the data processor, the indication of the at least one connection terminal by means of the graphical user interface via an indication mechanism associated with the at least one connection terminal.
A method comprising: performing principal component analysis, PCA, on data corresponding to a subset of a plurality of electrocardiogram, ECG, signals measured from a surface of a patient's body to generate a virtual lead; performing the PCA on the data from a selected template region to derive an optimized template; calculating a cross correlation on the virtual lead and the optimized template to determine a strength of linear dependence between the virtual lead and the optimized template to determine regions of interest, ROIs, of the virtual lead; detecting maximum correlation coefficients in the ROIs of the virtual lead; and averaging the ROIs to generate averaged data for the plurality of signals, wherein the method is performed by at least one processing unit. performing principal component analysis, PCA, on data corresponding to a subset of a plurality of electrocardiogram, ECG, signals measured from a surface of a patient's body to generate a virtual lead; performing the PCA on the data from a selected template region to derive an optimized template; calculating a cross correlation on the virtual lead and the optimized template to determine a strength of linear dependence between the virtual lead and the optimized template to determine regions of interest, ROIs, of the virtual lead; detecting maximum correlation coefficients in the ROIs of the virtual lead; and averaging the ROIs to generate averaged data for the plurality of signals,
An intermediate connector (11,301,321,3304) for coupling to a set of illuminating modules (13,21,300,310,320,3702), the intermediate connector having a body and a set of connector arms (3308,3312), wherein each arm has a length and has: an end that projects from the body of the intermediate connector; a shape to fit into an opening of a corresponding illuminating module to provide, when the arm is seated in the illuminating module, both an electrical connection and a mechanical connection to the corresponding illuminating module; an external wall with a taper along the length, the external wall having an external surface (3312,3512) and an internal surface, wherein the external surface and the internal surface taper to provide a thickness that reduces from the body to the end, and wherein the external surface and the internal surface of the external wall are configured to engage mechanically with the corresponding illuminating module (13, 21, 300, 310, 320, 3702), wherein the end has a cross sectional area, including an areal quantity attributable to thickness of the external wall, that is smaller than a cross sectional area of the opening of the corresponding illuminating module. an end that projects from the body of the intermediate connector; a shape to fit into an opening of a corresponding illuminating module to provide, when the arm is seated in the illuminating module, both an electrical connection and a mechanical connection to the corresponding illuminating module; an external wall with a taper along the length, the external wall having an external surface (3312,3512) and an internal surface, wherein the external surface and the internal surface taper to provide a thickness that reduces from the body to the end, and wherein the external surface and the internal surface of the external wall are configured to engage mechanically with the corresponding illuminating module (13, 21, 300, 310, 320, 3702), wherein the end has a cross sectional area, including an areal quantity attributable to thickness of the external wall, that is smaller than a cross sectional area of the opening of the corresponding illuminating module.
Cold extrusion press with a tempering device, a die receptacle and a press plunger for the horizontal cup-reverse and extrusion pressing, for producing aluminium packaging and other extrusion pressed parts, wherein the die receptacle comprises a die heater and the press plunger comprises a plunger heater, characterized in that the die heater comprises a heating element (7.1) which is arranged in the region of a bearing surface of a die in the die receptacle, and in that the plunger heater comprises a further heating element which is integrated in the press plunger and is arranged in the interior of the press plunger between a press plunger anchor and a press plunger head.
An aerodynamic body for extending laminar flow over an airfoil surface of said aerodynamic body, comprising: a leading edge; a primary laminar flow surface which yields a primary laminar flow region along the airfoil surface, wherein the primary laminar flow surface is a primary laminar flow leading edge surface of the aerodynamic body which provides a laminar attachment-line boundary layer in a leading edge region of the aerodynamic body; characterized in that the aerodynamic body further comprises a secondary suction device located a distance aft of the primary laminar flow surface to extend the laminar flow along the airfoil surface beyond the primary laminar flow region, wherein the primary laminar flow surface (308, 408) is configured for hybrid laminar flow which is a combination of suction controlled and natural laminar flow, the primary laminar flow region being a primary suction region established by suction over the primary laminar flow surface which maintains laminar flow over the primary laminar flow surface and some distance beyond a point where the suction is terminated. a leading edge; a primary laminar flow surface which yields a primary laminar flow region along the airfoil surface, wherein the primary laminar flow surface is a primary laminar flow leading edge surface of the aerodynamic body which provides a laminar attachment-line boundary layer in a leading edge region of the aerodynamic body; characterized in that the aerodynamic body further comprises a secondary suction device located a distance aft of the primary laminar flow surface to extend the laminar flow along the airfoil surface beyond the primary laminar flow region, wherein the primary laminar flow surface (308, 408) is configured for hybrid laminar flow which is a combination of suction controlled and natural laminar flow, the primary laminar flow region being a primary suction region established by suction over the primary laminar flow surface which maintains laminar flow over the primary laminar flow surface and some distance beyond a point where the suction is terminated.