mhurhangee/ep-ind-claims huggingface dataset:
A method for image recognition, comprising: obtaining one or more training images related to one or more subjects; training of a generic dictionary using the training images, wherein the trained dictionary comprises a set of generic features related to the subjects; obtaining reconstructed images using the set of generic features; subtracting the reconstructed images from the training images to obtain updated training patterns; obtaining a set of discriminative features for each subject based on the updated patterns; and training, based on the sets of discriminative features, a discriminative dictionary comprising a plurality of sub-dictionaries, each sub-dictionary comprising one of the sets of discriminative features. obtaining one or more training images related to one or more subjects; training of a generic dictionary using the training images, wherein the trained dictionary comprises a set of generic features related to the subjects; obtaining reconstructed images using the set of generic features; subtracting the reconstructed images from the training images to obtain updated training patterns; obtaining a set of discriminative features for each subject based on the updated patterns; and training, based on the sets of discriminative features, a discriminative dictionary comprising a plurality of sub-dictionaries, each sub-dictionary comprising one of the sets of discriminative features.
An image capturing method with light assistance, adapted for an image capturing device comprising a multi-directional lighting unit therein, the capturing method comprising: continuously defining at least two areas (510, 520, 610, 620, 710, 720, 810, 820, 830, 910, 920, 1110, 1120) according to information provided by the image capturing device after the image capturing device enters a capture mode; and dynamically controlling the multi-directional lighting unit to simultaneously project different light beams to at least two latest-defined areas (510, 520, 610, 620, 710, 720, 810, 820, 910, 920, 1110, 1120) before a capture result is obtained; determining whether the different light beams that are respectively projected to the at least two latest-defined areas (510, 520, 610, 620, 710, 720, 810, 820, 910, 920, 1110, 1120) are not projected to a specific target according to the capture result after obtaining the capture result; and dynamically controlling the multi-directional lighting unit to simultaneously project the different light beams to the at least two latest-defined areas at projection angles which are rectified (510, 520, 610, 620, 710, 720, 810, 820, 910, 920, 1110, 1120) according to a spatial difference between projection positions of the different light beams projected to the at least two latest-defined areas (510, 520, 610, 620, 710, 720, 810, 820, 910, 920, 1110, 1120) and the specific target before obtaining a next capture result if the different light beams are not projected to the specific target. continuously defining at least two areas (510, 520, 610, 620, 710, 720, 810, 820, 830, 910, 920, 1110, 1120) according to information provided by the image capturing device after the image capturing device enters a capture mode; and dynamically controlling the multi-directional lighting unit to simultaneously project different light beams to at least two latest-defined areas (510, 520, 610, 620, 710, 720, 810, 820, 910, 920, 1110, 1120) before a capture result is obtained; determining whether the different light beams that are respectively projected to the at least two latest-defined areas (510, 520, 610, 620, 710, 720, 810, 820, 910, 920, 1110, 1120) are not projected to a specific target according to the capture result after obtaining the capture result; and dynamically controlling the multi-directional lighting unit to simultaneously project the different light beams to the at least two latest-defined areas at projection angles which are rectified (510, 520, 610, 620, 710, 720, 810, 820, 910, 920, 1110, 1120) according to a spatial difference between projection positions of the different light beams projected to the at least two latest-defined areas (510, 520, 610, 620, 710, 720, 810, 820, 910, 920, 1110, 1120) and the specific target before obtaining a next capture result if the different light beams are not projected to the specific target.
A laser processing method comprising: a first step of irradiating a wafer-like object (1,11) to be processed with pulsed laser light from a laser light source while locating a light-converging point within the object (1,11) under a condition with a peak power density of at least 1 x 10 8 (W/cm2) at the light-converging point and a pulse width of 1 μs or less, so as to form a modified region including any one of a crack region and a molten processed region within the object (1,11), and causing the modified region to form a cutting start region inside of a laser light entrance surface of the object (1,11) by a predetermined distance along a line to cut in the object (1,11); characterized by, after the modified region is formed, a second step of irradiating the modified region with laser light transmittable through an unmodified region of the object (1,11) and more absorbable by the modified region than by the unmodified region after the first step, so as to generate a stress at a portion where the object is cut along the line to cut. a first step of irradiating a wafer-like object (1,11) to be processed with pulsed laser light from a laser light source while locating a light-converging point within the object (1,11) under a condition with a peak power density of at least 1 x 10 8 (W/cm2) at the light-converging point and a pulse width of 1 μs or less, so as to form a modified region including any one of a crack region and a molten processed region within the object (1,11), and causing the modified region to form a cutting start region inside of a laser light entrance surface of the object (1,11) by a predetermined distance along a line to cut in the object (1,11); characterized by, after the modified region is formed, a second step of irradiating the modified region with laser light transmittable through an unmodified region of the object (1,11) and more absorbable by the modified region than by the unmodified region after the first step, so as to generate a stress at a portion where the object is cut along the line to cut.
Training device for medicine injection devices, the training device comprising: - a body having a proximal end and a distal end and a cavity formed in the body; - a shield having a proximal end and a distal end, the shield being slidably attached to the body, slidable between a retracted position exposing a pin arranged at the distal end of the body and directing therefrom, and an extended position covering the pin; - a spring coupled to body and shield, the spring biasing the shield such as to enable the shield to advance toward the extended position; - releasable cooperating first locking members (27,13,14) on the body and the shield for engaging each another to hold the shield in the retracted position and - releasable cooperating second locking members (241,12) on the body and the shield for engaging each another to hold the shield in the extended position; the training device further comprising - a plunger slidably arranged in the cavity of the body, the plunger comprises a compressible element adapted to exert a force onto the plunger when the plunger is moved in the cavity towards the distal end of the body, the force corresponding to an injection resistance of a medicine injected into a patient, wherein the pin is slidably arranged in a pin mounting element, and wherein the pin mounting element comprises a pin biasing member adapted to be tensioned when the pin is moved in a proximal direction. - a body having a proximal end and a distal end and a cavity formed in the body; - a shield having a proximal end and a distal end, the shield being slidably attached to the body, slidable between a retracted position exposing a pin arranged at the distal end of the body and directing therefrom, and an extended position covering the pin; - a spring coupled to body and shield, the spring biasing the shield such as to enable the shield to advance toward the extended position; - releasable cooperating first locking members (27,13,14) on the body and the shield for engaging each another to hold the shield in the retracted position and - releasable cooperating second locking members (241,12) on the body and the shield for engaging each another to hold the shield in the extended position; - a plunger slidably arranged in the cavity of the body, the plunger comprises a compressible element adapted to exert a force onto the plunger when the plunger is moved in the cavity towards the distal end of the body, the force corresponding to an injection resistance of a medicine injected into a patient,
A metal oxide film for use as a coating film for protecting a structural member of a semiconductor or flat panel display manufacturing apparatus, said metal oxide film characterized in that the metal oxide film comprises an anodized nonporous amorphous aluminum oxide film made of an oxide of a high-purity aluminum which contains 1 mass% or less in the total content of iron, copper, manganese, zinc, and chromium and which contains 0.5 mass % or more and 6.5 mass % or less magnesium, said anodized nonporous amorphous aluminum oxide film is obtained by anodizing the high-purity aluminum in an anodization solution of pH 4 to 10 containing organic carboxylic acid or salts thereof, and a nonaqueous solvent of 50 mass % or more and 85 mass % or less with respect to the whole anodization solution, which contains at least one of ethylene glycol, diethylene glycol, triethylene glycol, and tetraethylene glycol, wherein said anodizing comprises a first step of placing said metal and an opposed electrode in said anodization solution, a second step of applying an applied voltage to cause a constant current in a range of 0.01 to 100 mA per square centimetre to flow between said metal and said opposed electrode until the applied voltage reaches to an anodizing voltage, and a third step of maintaining the applied voltage at the anodizing voltage between said metal and said electrode for a predetermined period of time, and a fourth step of heat-treating said metal member at a predetermined temperature of 150 °C or more and 600 °C or less, wherein said anodized nonporous amorphous aluminum oxide film has a thickness of 10 nm or more and 1 μm or less, and a water release amount from said anodized nonporous amorphous aluminum oxide film is 1E18 molecules/cm 2 or less.
A base station (101, 102, 103) configured to transmit data in a wireless network, comprising: a processor configured to mask a cyclic redundancy check, CRC, corresponding to a transport block to be transmitted on a physical broadcast channel (PBCH), with a sequence from a plurality of sequences corresponding to configurations of one or more transmit antennas of the base station, wherein each of the plurality of sequences is associated with a number of transmit antennas; and a transmitter configured to transmit the transport block and the masked CRC on the PBCH. a processor configured to mask a cyclic redundancy check, CRC, corresponding to a transport block to be transmitted on a physical broadcast channel (PBCH), with a sequence from a plurality of sequences corresponding to configurations of one or more transmit antennas of the base station, wherein each of the plurality of sequences is associated with a number of transmit antennas; and a transmitter configured to transmit the transport block and the masked CRC on the PBCH.
A modular system, comprising a) at least two electrical modules (1, 2) mutually connectable in series; b) at least one internal bus conductor which extends within the modules (1, 2) and which comprises several electrical conductors per module (1, 2), at the ends of which connection apparatuses are arranged, and c) a pluggable connecting bridge with several individual conductive bridge elements for connecting the connection apparatuses of the internal bus conductor of adjacent modules (1, 2); characterized in that d) the connection apparatuses are respectively formed as direct terminals with clamping springs for the tool-free wiring with the conductive bridge elements, and e) at least one release apparatus for releasing several of the conductive bridge elements from the clamping springs of the connection apparatuses are arranged on the connecting bridge. a) at least two electrical modules (1, 2) mutually connectable in series; b) at least one internal bus conductor which extends within the modules (1, 2) and which comprises several electrical conductors per module (1, 2), at the ends of which connection apparatuses are arranged, and c) a pluggable connecting bridge with several individual conductive bridge elements for connecting the connection apparatuses of the internal bus conductor of adjacent modules (1, 2); characterized in that d) the connection apparatuses are respectively formed as direct terminals with clamping springs for the tool-free wiring with the conductive bridge elements, and e) at least one release apparatus for releasing several of the conductive bridge elements from the clamping springs of the connection apparatuses are arranged on the connecting bridge.
A scroll-type expander (10, 410), comprising: a sealed housing having a heating surface to an outside area, and including at least one of each of an inflow opening and an exhaust opening at both a center area and a circumferential area; at least a stationary scroll member fixed within the housing and extending from the center area of the housing outwardly in a spiral shape; at least a orbiting scroll member meshed with the stationary scroll member within the housing and extending from the center area of the housing outwardly in a spiral shape, the orbiting scroll member being orbiting along a predetermined orbiting radius to continuously expand working fluid entering the housing; a heating chamber provided to an outer circumference of the housing and which supplies heat when working fluid is expanded by the motion of the orbiting scroll member; the scroll-type expander is characterized in that comprises a pre-heating pipe connected to a working fluid inflow opening of the center area of the housing and extending into the heating chamber to pass through the heating chamber so that the working fluid entering the heating chamber may absorb heat, and drive shafts connected to the orbiting scroll member to drive the orbiting scroll member. a sealed housing having a heating surface to an outside area, and including at least one of each of an inflow opening and an exhaust opening at both a center area and a circumferential area; at least a stationary scroll member fixed within the housing and extending from the center area of the housing outwardly in a spiral shape; at least a orbiting scroll member meshed with the stationary scroll member within the housing and extending from the center area of the housing outwardly in a spiral shape, the orbiting scroll member being orbiting along a predetermined orbiting radius to continuously expand working fluid entering the housing; a heating chamber provided to an outer circumference of the housing and which supplies heat when working fluid is expanded by the motion of the orbiting scroll member; the scroll-type expander is characterized in that comprises a pre-heating pipe connected to a working fluid inflow opening of the center area of the housing and extending into the heating chamber to pass through the heating chamber so that the working fluid entering the heating chamber may absorb heat, and drive shafts connected to the orbiting scroll member to drive the orbiting scroll member.
A method of automatically setting a welding parameter for MIG/MAG welding including the following steps: - initiating a parameter setting welding operation; characterised by: - measuring a welding voltage and retrieving a parameter representing a wire feed speed during said parameter setting welding operation; and - identifying a second function mapping said parameter representing a wire feed speed to said welding voltage from said measured welding voltage and said retrieved parameter. - initiating a parameter setting welding operation; - measuring a welding voltage and retrieving a parameter representing a wire feed speed during said parameter setting welding operation; and - identifying a second function mapping said parameter representing a wire feed speed to said welding voltage from said measured welding voltage and said retrieved parameter.
A method for monitoring a thread over-tension in a weaving machine, having mechanical weft insertion elements, wherein threads extending in a warp direction are fed to elements of a shed formation from a thread supply via a thread monitor, wherein upon falling below a certain tension in one of the threads a signal is generated on the weaving machine by the thread monitor, characterized in that at least one group of threads (2.1, 2.2) extending in warp direction is guided between the thread supply and the elements of shed formation via an elastically deflectable thread deflection element such that with exceeding a certain tension in one of the threads (2.1) of this group (2.1, 2.2) the thread deflection element is deflected such that the tension in at least one other thread (2.2) of this group (2.1, 2.2) is reduced by said deflection so far that the thread monitor generates a signal.
A cut-off tool comprising: a housing including a motor housing portion and a handle portion extending therefrom; an arbor rotatably supported by the housing; a cutting disk attachable to the arbor for co-rotation therewith; a motor positioned within the motor housing portion, the motor coupled to the arbor to provide torque thereto; a first lighting element positioned proximate an end of the handle portion that is opposite the motor housing portion; and a second lighting element; wherein the first lighting element is configured to illuminate a workpiece behind the cutting disk, and wherein the second lighting element is configured to illuminate the workpiece in front of the cutting disk, characterised in that: the second lighting element is positioned on the motor housing portion. a housing including a motor housing portion and a handle portion extending therefrom; an arbor rotatably supported by the housing; a cutting disk attachable to the arbor for co-rotation therewith; a motor positioned within the motor housing portion, the motor coupled to the arbor to provide torque thereto; a first lighting element positioned proximate an end of the handle portion that is opposite the motor housing portion; and a second lighting element; wherein the first lighting element is configured to illuminate a workpiece behind the cutting disk, and wherein the second lighting element is configured to illuminate the workpiece in front of the cutting disk, characterised in that: the second lighting element is positioned on the motor housing portion.
A radiopaque marker, comprising: a) a polymer matrix, b) radiopaque particles disposed within said polymer matrix having an average diameter of at least 2 microns and a maximum diameter of about 20 microns; and c) a wetting agent different from the polymer matrix for facilitating encapsulation of said particles by said polymer such that the radiopaque particles comprise 90.8 to 93.2 weight percent of the marker, wherein said polymer is polyether block amide and said radiopaque particles are tungsten powder. a) a polymer matrix, b) radiopaque particles disposed within said polymer matrix having an average diameter of at least 2 microns and a maximum diameter of about 20 microns; and c) a wetting agent different from the polymer matrix for facilitating encapsulation of said particles by said polymer such that the radiopaque particles comprise 90.8 to 93.2 weight percent of the marker, wherein said polymer is polyether block amide and said radiopaque particles are tungsten powder.
A method for conduit monitoring comprising: monitoring at least a part of a conduit using a fibre optic distributed acoustic sensor (202, 204) comprising a sensing optical fibre arranged along a path of the conduit; and characterized in that the method comprises the step of: introducing an object in the conduit; analysing the acoustic signals detected at at least one sensing location of the sensing optical fibre as the object moves along the conduit to determine whether the presence of the object attenuates an acoustic signal so as to discriminate the location along the conduit of the acoustic sources of said acoustic signals. monitoring at least a part of a conduit using a fibre optic distributed acoustic sensor (202, 204) comprising a sensing optical fibre arranged along a path of the conduit; and characterized in that the method comprises the step of: introducing an object in the conduit; analysing the acoustic signals detected at at least one sensing location of the sensing optical fibre as the object moves along the conduit to determine whether the presence of the object attenuates an acoustic signal so as to discriminate the location along the conduit of the acoustic sources of said acoustic signals.
A wind turbine blade assembly comprising: a bushing comprising a body having a proximal end and a distal end, a first cutout extending from the proximal end to the distal end on a first side of the bushing, a second cutout extending from the proximal end to the distal end on a second side of the bushing and a core cutout at the distal end, and an ear disposed at the proximal end of the bushing and within the first cutout; a core having a proximal end and a distal end, the core comprising a first wedge and a second wedge distal to the first wedge, each wedge having a thick end and a thin end, wherein the thick end of the first wedge abuts the thick end of the second wedge, the thin end of the first wedge disposed within the core cutout, the core comprising a third cutout extending from the proximal end to the distal end on a first side of the core and a fourth cutout extending from the proximal end to the distal end on a second side of the core; and a filler disposed within the first cutout and the third cutout, the filler contacting the ear. a bushing comprising a body having a proximal end and a distal end, a first cutout extending from the proximal end to the distal end on a first side of the bushing, a second cutout extending from the proximal end to the distal end on a second side of the bushing and a core cutout at the distal end, and an ear disposed at the proximal end of the bushing and within the first cutout; a core having a proximal end and a distal end, the core comprising a first wedge and a second wedge distal to the first wedge, each wedge having a thick end and a thin end, wherein the thick end of the first wedge abuts the thick end of the second wedge, the thin end of the first wedge disposed within the core cutout, the core comprising a third cutout extending from the proximal end to the distal end on a first side of the core and a fourth cutout extending from the proximal end to the distal end on a second side of the core; and a filler disposed within the first cutout and the third cutout, the filler contacting the ear.