mhurhangee/ep-ind-claims huggingface dataset:
A method to generate a corrected image from image information extracted from an X-ray sensitive phosphor plate, said method comprising: generating flaw map image data using the X-ray sensitive phosphor plate, the flaw map image data comprising flawed pixel locations that are due to flaws (1021, 1022, 1023) on the X-ray sensitive phosphor plate that have damaged certain regions on the X-ray sensitive phosphor plate; generating physical image data using said X-ray sensitive phosphor plate; identifying flawed pixel locations within said flaw map image data using a computer-based platform; correlating pixel locations within said physical image data with said identified flawed pixel locations within said flaw map image data using said computer-based platform; and correcting said correlated pixel locations within said physical image data using said computer-based platform to generate a corrected physical image, wherein said step of correlating pixel locations within said physical image data with said identified flawed pixel locations within said flaw map image data includes applying an image alignment algorithm to align said flaw map image data with said physical image data using said computer-based platform. generating flaw map image data using the X-ray sensitive phosphor plate, the flaw map image data comprising flawed pixel locations that are due to flaws (1021, 1022, 1023) on the X-ray sensitive phosphor plate that have damaged certain regions on the X-ray sensitive phosphor plate; generating physical image data using said X-ray sensitive phosphor plate; identifying flawed pixel locations within said flaw map image data using a computer-based platform; correlating pixel locations within said physical image data with said identified flawed pixel locations within said flaw map image data using said computer-based platform; and correcting said correlated pixel locations within said physical image data using said computer-based platform to generate a corrected physical image, wherein said step of correlating pixel locations within said physical image data with said identified flawed pixel locations within said flaw map image data includes applying an image alignment algorithm to align said flaw map image data with said physical image data using said computer-based platform.
A work vehicle comprising: a revolving frame in which an engine is disposed; an engine hood supported by a first shaft disposed in rear of the engine, the engine hood being turnable about the first shaft, the engine hood being configured to turn relative to the revolving frame to be opened or closed; a console box supported by a second shaft disposed above the engine hood, the console box being turnable about the second shaft, the console box being configured to turn relative to the engine hood to be changed between a first posture and a second posture; and a hydraulic hose connected to the console box, wherein the console box includes a work manipulation lever whose manipulation is enabled while the console box is in the first posture and whose manipulation is disabled while the console box is in the second posture, a direction in which the engine hood is caused to turn to be opened coincides with a direction in which the console box is caused to turn to be changed from the first posture to the second posture, and the hydraulic hose is arranged to extend along an inner wall of the revolving frame and an inner wall of the engine hood and to be partially close to the first shaft and the second shaft. a revolving frame in which an engine is disposed; an engine hood supported by a first shaft disposed in rear of the engine, the engine hood being turnable about the first shaft, the engine hood being configured to turn relative to the revolving frame to be opened or closed; a console box supported by a second shaft disposed above the engine hood, the console box being turnable about the second shaft, the console box being configured to turn relative to the engine hood to be changed between a first posture and a second posture; and a hydraulic hose connected to the console box, wherein the console box includes a work manipulation lever whose manipulation is enabled while the console box is in the first posture and whose manipulation is disabled while the console box is in the second posture, a direction in which the engine hood is caused to turn to be opened coincides with a direction in which the console box is caused to turn to be changed from the first posture to the second posture, and the hydraulic hose is arranged to extend along an inner wall of the revolving frame and an inner wall of the engine hood and to be partially close to the first shaft and the second shaft.
A screw compressor comprising: a screw compressor main body; a motor for driving the screw compressor main body; a gearbox interposed between the screw compressor main body and the motor to transmit a driving force of the motor to the screw compressor main body; and a gas cooler positioned below either the screw compressor main body or the motor, characterized in that a cooler casing of the gas cooler is detachably attached as a separate body to a side surface of the gearbox, wherein the side surface of the gearbox where the cooler casing is detachably attached, is the side surface of the gearbox where the screw compressor main body or the motor is disposed, wherein a cover is attached to the cooler casing to maintain liquid tightness, and wherein the gas cooler is a pressure vessel provided for cooling gas discharged from the screw compressor main body. a screw compressor main body; a motor for driving the screw compressor main body; a gearbox interposed between the screw compressor main body and the motor to transmit a driving force of the motor to the screw compressor main body; and a gas cooler positioned below either the screw compressor main body or the motor, a cooler casing of the gas cooler is detachably attached as a separate body to a side surface of the gearbox, wherein the side surface of the gearbox where the cooler casing is detachably attached, is the side surface of the gearbox where the screw compressor main body or the motor is disposed, wherein a cover is attached to the cooler casing to maintain liquid tightness, and wherein the gas cooler is a pressure vessel provided for cooling gas discharged from the screw compressor main body.
An aspirated smoke detector comprising: a base; an optical block housed within the base, the optical block housing an emitter and a receiver; and a chamber cover disposed over the base and the optical block to form an optical chamber therebetween, wherein the chamber cover captures light emitted by the emitter and reflects the light within the chamber cover and to the receiver, wherein the chamber cover includes a plurality of different shaped sector members disposed on an outer ring of the chamber cover and extending into the optical chamber, wherein all the plurality of different shaped sector members are grouped into a plurality of modules on the outer ring with each module having a subset of the plurality of different shaped sector members, wherein each subset of the plurality of sector members contains the same different shaped sector members as the other modules and wherein the sector members are arranged in each module to form a repeating pattern of sector members, and wherein each of the plurality of different shaped sector members is arranged relative to one another so as to form a plurality of angled corridors therebetween and capture the light while avoiding multiple back reflections. a base; an optical block housed within the base, the optical block housing an emitter and a receiver; and a chamber cover disposed over the base and the optical block to form an optical chamber therebetween, wherein the chamber cover captures light emitted by the emitter and reflects the light within the chamber cover and to the receiver, wherein the chamber cover includes a plurality of different shaped sector members disposed on an outer ring of the chamber cover and extending into the optical chamber, wherein all the plurality of different shaped sector members are grouped into a plurality of modules on the outer ring with each module having a subset of the plurality of different shaped sector members, wherein each subset of the plurality of sector members contains the same different shaped sector members as the other modules and wherein the sector members are arranged in each module to form a repeating pattern of sector members, and wherein each of the plurality of different shaped sector members is arranged relative to one another so as to form a plurality of angled corridors therebetween and capture the light while avoiding multiple back reflections.
Method of attaching a shrinkable label (l, 5) on at least one product (P 1,P 2,P 3), wherein the shrinkable label comprises a film comprising heat shrinkable material and photothermic material, the method comprising: - transporting a plurality of products on a product conveyor through an irradiation volume defined by a plurality of UV light emitters arranged sideways of the product conveyor, the UV light emitters being configured to irradiate at least one shrinkable label arranged around the at least one product; characterized by - arranging at least one reflector (35-37, 50, 53, 56) between consecutive products on the product conveyor while the at least one product is being transported, the at least one reflector being configured to reflect UV light from the UV light emitters towards the shrinkable label; - controlling the UV light emitters to emit UV-light towards the shrinkable label (1, 5) arranged around the at least one product in the irradiation volume and towards the at least one reflector (35-37, 50, 53, 56) arranged between consecutive products in order for the photothermic material of the shrinkable label to heat up causing the heat shrinkable material to shrink around the at least one product. - transporting a plurality of products on a product conveyor through an irradiation volume defined by a plurality of UV light emitters arranged sideways of the product conveyor, the UV light emitters being configured to irradiate at least one shrinkable label arranged around the at least one product; - arranging at least one reflector (35-37, 50, 53, 56) between consecutive products on the product conveyor while the at least one product is being transported, the at least one reflector being configured to reflect UV light from the UV light emitters towards the shrinkable label; - controlling the UV light emitters to emit UV-light towards the shrinkable label (1, 5) arranged around the at least one product in the irradiation volume and towards the at least one reflector (35-37, 50, 53, 56) arranged between consecutive products in order for the photothermic material of the shrinkable label to heat up causing the heat shrinkable material to shrink around the at least one product.
A glass comprising in mole percent on an oxide basis: SiO 2 69.86-72.13, Al 2 O 3 11.58-13.01, B 2 O 3 0-1, MgO 4.44-6.45, CaO 5.53-7.23, SrO 0.09-1.67, BaO 2.92-4.57, and SnO 2 0.09-0.1%; wherein a (MgO+CaO+SrO+BaO)/Al 2 O 3 ratio is in the range of 1 to 1.2. SiO 2 69.86-72.13, Al 2 O 3 11.58-13.01, B 2 O 3 0-1, MgO 4.44-6.45, CaO 5.53-7.23, SrO 0.09-1.67, BaO 2.92-4.57, and SnO 2 0.09-0.1%;
A cutting tool, comprising: a base material and a multi-layer coating formed on a surface of said base material, said multi-layer coating comprising an A-layer, a C-layer and a B-layer which are repeatedly deposited in an order of A-layer, C-layer and B-layer from the base material toward an outer surface of the multi-layer coating; the A-layer having a thickness of 0.5∼2.0 μ m and comprising a 1 layers having thicknesses of 4nm∼30nm and comprising Ti 46∼49 Al 51∼54 N, and a 2 layers having thicknesses of 2nm∼25nm and comprising Ti 34∼38 Al 62∼66 N, wherein 8∼20 layers of said a 1 layers and a 2 layers are non-periodically deposited per 100nm; the B-layer having a thickness of 0.1 μ m∼0.5 μ m and comprising Ti 34∼38 Al 62∼66 N; the C-layer having a thickness of 55∼95nm and comprising Ti 46~49 Al 51~54 N; wherein a total thickness ratio of the B-layer to the A-layer in the multi-layer coating (total B-layer thickness/total A-layer thickness) is less than 0.3. a base material and a multi-layer coating formed on a surface of said base material, said multi-layer coating comprising an A-layer, a C-layer and a B-layer which are repeatedly deposited in an order of A-layer, C-layer and B-layer from the base material toward an outer surface of the multi-layer coating; the A-layer having a thickness of 0.5∼2.0 μ m and comprising a 1 layers having thicknesses of 4nm∼30nm and comprising Ti 46∼49 Al 51∼54 N, and a 2 layers having thicknesses of 2nm∼25nm and comprising Ti 34∼38 Al 62∼66 N, wherein 8∼20 layers of said a 1 layers and a 2 layers are non-periodically deposited per 100nm; the B-layer having a thickness of 0.1 μ m∼0.5 μ m and comprising Ti 34∼38 Al 62∼66 N; the C-layer having a thickness of 55∼95nm and comprising Ti 46~49 Al 51~54 N; wherein a total thickness ratio of the B-layer to the A-layer in the multi-layer coating (total B-layer thickness/total A-layer thickness) is less than 0.3.
An exoskeleton for humans comprising: a) a joint element, that interacts directly or indirectly with a human's joint via an end-effector mount, wherein b) the joint element comprises a parallel mechanism enabling the end-effector mount to perform an arbitrary planar parallel movement in a plane, allowing superimposed arbitrary translational and arbitrary rotational movements of the end-effector mount relative to a body of the joint element; c) wherein the joint element is self-aligning with respect to the human's joint that it interacts with. a) a joint element, that interacts directly or indirectly with a human's joint via an end-effector mount, wherein b) the joint element comprises a parallel mechanism enabling the end-effector mount to perform an arbitrary planar parallel movement in a plane, allowing superimposed arbitrary translational and arbitrary rotational movements of the end-effector mount relative to a body of the joint element; c) wherein the joint element is self-aligning with respect to the human's joint that it interacts with.
A suspension device comprising: a drive wheel; a first driven wheel that is disposed on one side in a front-rear direction with respect to the drive wheel; a second driven wheel that is disposed on the other side in the front-rear direction with respect to the drive wheel; a bogie link member that supports the drive wheel and the first driven wheel and is oscillatable around a first oscillation axis; and a rocker link member that supports the second driven wheel and the bogie link member and is oscillatable around a second oscillation axis, wherein when viewed from a left-right direction, the first oscillation axis is not on the same vertical line as a rotation axis of the drive wheel and is located above the rotation axis in a vertical direction and located inside a contour of the drive wheel, characterized in that the bogie link member is oscillatably connected to the rocker link member via a support bearing with relative rotation around the first oscillation axis, and the first oscillation axis is located closer to the first driven wheel side than the rotation axis. a drive wheel; a first driven wheel that is disposed on one side in a front-rear direction with respect to the drive wheel; a second driven wheel that is disposed on the other side in the front-rear direction with respect to the drive wheel; a bogie link member that supports the drive wheel and the first driven wheel and is oscillatable around a first oscillation axis; and a rocker link member that supports the second driven wheel and the bogie link member and is oscillatable around a second oscillation axis, wherein when viewed from a left-right direction, the first oscillation axis is not on the same vertical line as a rotation axis of the drive wheel and is located above the rotation axis in a vertical direction and located inside a contour of the drive wheel, characterized in that the bogie link member is oscillatably connected to the rocker link member via a support bearing with relative rotation around the first oscillation axis, and the first oscillation axis is located closer to the first driven wheel side than the rotation axis.
A method of preparing a compound of Formula V, wherein each of R 7 - R 10 is independently selected from hydrogen, halogen, halogenated C 1 -C 5 alkyl, and C 1 -C 5 alkyl; and wherein at least one of R 7 -R 10 is a halogen, the method comprising I) forming a first mixture comprising A) a compound of Formula III, wherein each of R 1 - R 4 is independently selected from hydrogen, halogen, and C 1 -C 5 alkyl; B) a solvent; and C) a halogenation reagent; II) reacting the first mixture; III) adding an oxidation agent to the reacted first mixture in the presence of a catalyst to form a further mixture; and IV) reacting the further mixture. each of R 7 - R 10 is independently selected from hydrogen, halogen, halogenated C 1 -C 5 alkyl, and C 1 -C 5 alkyl; and wherein at least one of R 7 -R 10 is a halogen, the method comprising I) forming a first mixture comprising A) a compound of Formula III, wherein each of R 1 - R 4 is independently selected from hydrogen, halogen, and C 1 -C 5 alkyl; B) a solvent; and C) a halogenation reagent; II) reacting the first mixture; III) adding an oxidation agent to the reacted first mixture in the presence of a catalyst to form a further mixture; and IV) reacting the further mixture. I) forming a first mixture comprising A) a compound of Formula III, wherein each of R 1 - R 4 is independently selected from hydrogen, halogen, and C 1 -C 5 alkyl; B) a solvent; and C) a halogenation reagent; A) a compound of Formula III, wherein each of R 1 - R 4 is independently selected from hydrogen, halogen, and C 1 -C 5 alkyl; B) a solvent; and C) a halogenation reagent; II) reacting the first mixture; III) adding an oxidation agent to the reacted first mixture in the presence of a catalyst to form a further mixture; and IV) reacting the further mixture.
A method of welding objects (1, 2), in particular metal plates, sheet metal parts or metal sections, in which method at least two edges (9, 10) of the objects (1, 2) are laid next to one another and the mutually contacting edges (9, 10) are welded to one another by means of a laser beam, with an edge geometry being produced in such a way that the mutually contacting edges (9, 10) form mutual undercuts (18, 19) in the direction of the laser beam and/or in the direction of movement of the laser beam during the welding process, characterized in that the edge geometry is produced by means of a shaping of the edge material, in that thickened material sections (20, 21) are produced at the edges (9, 10) by means of the shaping, with the thickened material sections (20, 21) in each case only being produced at one of two oppositely disposed surfaces (13, 14) of the objects (1, 2) to be welded to one another, and in that the edges (9, 10) of the objects (1, 2) prepared in such a way are laid next to one another such that the respective surface (13, 14) with the thickened material section (20, 21) of the one object (1, 2) adjoins that surface (13, 14) of the other object (1, 2), which is disposed opposite the surface (13, 14) with the thickened material section (20, 21) of this other object (1, 2).
An information processing device comprising: an imaging position information acquisition unit configured to acquire imaging position information at a time when a structure is imaged which is acquired by an imaging device configured to fly over a periphery of the structure to image the structure on the basis of certain flight information; and a damage data generating unit configured to use a captured image of the structure imaged by the imaging device and the imaging position information and to generate data related to damage of the structure including position information of damage of the structure included in the captured image; the information processing device characterized in that it further comprises: a flight information generating unit configured to use data generated by the damage data generating unit to generate flight information used to cause the imaging device to image a position of damage corresponding to the data using a special mode that includes capturing the same position in a plurality of imaging directions, bracket capturing and infrared capturing at a wavelength. an imaging position information acquisition unit configured to acquire imaging position information at a time when a structure is imaged which is acquired by an imaging device configured to fly over a periphery of the structure to image the structure on the basis of certain flight information; and a damage data generating unit configured to use a captured image of the structure imaged by the imaging device and the imaging position information and to generate data related to damage of the structure including position information of damage of the structure included in the captured image; the information processing device characterized in that it further comprises: a flight information generating unit configured to use data generated by the damage data generating unit to generate flight information used to cause the imaging device to image a position of damage corresponding to the data using a special mode that includes capturing the same position in a plurality of imaging directions, bracket capturing and infrared capturing at a wavelength.
Starting current limitation system with - a first electrical connection connectable to a motor vehicle battery pole, - a second electrical connection connectable to a starter, and - a parallel circuit connected between the first connection and the second connection, comprising a branch with a current control device and a branch with an electrical resistor, in such a way that, at the beginning of a warm start of the motor vehicle, a starter current is conducted via the resistor and that, after the beginning of the warm start, the starter current is conducted via the current control device and the resistor, characterised in that - the resistor is formed as a shunt und that the current control device is formed by at least one semi-conductor switch and after beginning of the warm start sets the starter current in a linear mode wherein the starter current through the semi-conductor switch is set to be linear or in a pulsed mode, wherein the current control device is closed and opened in a pulsed fashion. - a first electrical connection connectable to a motor vehicle battery pole, - a second electrical connection connectable to a starter, and - a parallel circuit connected between the first connection and the second connection, comprising a branch with a current control device and a branch with an electrical resistor, in such a way that, at the beginning of a warm start of the motor vehicle, a starter current is conducted via the resistor and that, after the beginning of the warm start, the starter current is conducted via the current control device and the resistor, characterised in that - the resistor is formed as a shunt und that the current control device is formed by at least one semi-conductor switch and after beginning of the warm start sets the starter current in a linear mode wherein the starter current through the semi-conductor switch is set to be linear or in a pulsed mode, wherein the current control device is closed and opened in a pulsed fashion.
Process for producing a pulverulent tungstic acid, in which an aqueous alkali metal tungstate solution is reacted with a mineral acid at a temperature of from 50 to 103°C, characterized in that the molar ratio of mineral acid to tungsten is from 9:1 to 4:1 and the alkali metal tungstate solution has a concentration of tungsten of from 150 g/l to 300 g/l.