mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a wheel loader, comprising: receiving signals representing a state of work currently performed by the wheel loader, from sensors installed in the wheel loader; selecting one or more signals of the received signals, the one or more signals able to be used to determine whether or not to be within a respective one of a plurality of individual load areas, wherein the individual load areas are divided into a light load area, a medium load area, a heavy load area and an acceleration/inclined-ground load area according to work load which consumes a power output of an engine during a series of work states performed by the wheel loader; calculating output values representing as to whether or not to be within the respective one of the plurality of individual load areas, by using the selected signal; and analyzing the output values to determine a current load state of the work currently performed by the wheel loader as one of a light load state, a medium load state, a heavy loda state and an acceleration/inclined-ground load state, wherein controlling the engine power output comprises calculating the output values comprises calculating a first output value representing as to whether or not to be within the light load area, calculating a second output value representing as to whether or not to be within the medium load area, calculating a third output value representing as to whether or not to be within the heavy load area and calculating a fourth output value representing as to whether or not to be within the acceleration/inclined-ground load area. receiving signals representing a state of work currently performed by the wheel loader, from sensors installed in the wheel loader; selecting one or more signals of the received signals, the one or more signals able to be used to determine whether or not to be within a respective one of a plurality of individual load areas, wherein the individual load areas are divided into a light load area, a medium load area, a heavy load area and an acceleration/inclined-ground load area according to work load which consumes a power output of an engine during a series of work states performed by the wheel loader; calculating output values representing as to whether or not to be within the respective one of the plurality of individual load areas, by using the selected signal; and analyzing the output values to determine a current load state of the work currently performed by the wheel loader as one of a light load state, a medium load state, a heavy loda state and an acceleration/inclined-ground load state, wherein controlling the engine power output comprises calculating the output values comprises calculating a first output value representing as to whether or not to be within the light load area, calculating a second output value representing as to whether or not to be within the medium load area, calculating a third output value representing as to whether or not to be within the heavy load area and calculating a fourth output value representing as to whether or not to be within the acceleration/inclined-ground load area.
An electric motor, comprising: a stator; a rotor (12, 36) axially supported to a rotational shaft in such a configuration as to rotate relative to the stator, the rotor (12, 36) made of a base face portion as a rotational portion of the rotor fixed to the rotational shaft is adapted to be cooled by a cooling medium arranged to be discharged at the base face portion of said rotor (12,36); a cooling medium storing portion stored in a closed space base portion disposed at the bottom part of the stator side, and a cooling medium channel for leading the cooling medium from the cooling medium storing portion to the base face portion of the rotor, wherein a discharge port for discharging the cooling medium of the cooling medium channel is disposed close to and perpendicular to the base face portion of the rotational portion of the rotor and said discharge port formed into a protrusion fitted with a tip end portion is arranged for discharging the cooling medium.
Dye of the general formula where D represents a group of the formula (IIa) where T 1 and T 2 independently are hydrogen, (C 1 -C 6)-alkyl, (C 1 -C 4) -alkoxy, -SO 2 (C 1 -C 6) -alkyl, -SO 2 aryl, cyano, halogen or nitro; and T 4 and T 3 independently are hydrogen, halogen, trifluoromethyl, cyano, -SCN, -SO 2 CH 3 or nitro; although at least one of T 1, T 2, T 3 and T 4 is not hydrogen; or represents a group of the formula (IIb) where T 5 and T 5' independently are hydrogen or halogen; and T 6 is hydrogen, -SO 2 CH 3, -SCN, (C 1 -C 4) -alkoxy, halogen or nitro; although at least one of T 5, T 5' and T 6 is not hydrogen; or represents a group of the formula (IIc) where T 12 is hydrogen or halogen; or represents a group of the formula (IId) where T 7 is nitro, -CHO, cyano, -COCH 3 or a group of the formula where T 10 is hydrogen, halogen, nitro or cyano; T 8 is hydrogen, (C 1 -C 6)-alkyl or halogen; and T 9 is nitro, cyano, -COCH 3 or -COOT 11; where T 11 is (C 1 -C 4)-alkyl; or represents a group of the formula (IIe) where T 7 and T 8 are each as defined above; or represents a group of the formula (IIf) where T 13 is phenyl or S- (C 1 -C 4) -alkyl, R 1 is hydrogen, chlorine, methyl, ethyl, methoxy, hydroxyl, ethoxy, acetylamino, propionylamino, benzoylamino, methylsulfonylamino, ethylsulfonylamino or phenylsulfonylamino; R 2 is hydrogen, chlorine, methyl, ethyl, methoxy, ethoxy or phenoxy; R 3 is hydrogen, benzyl, phenylethyl, phenoxyethyl, methoxyethyl, cyanoethyl, -C 2 H 4 OCOCH 3, -C 2 H 4 OCOC 2 H 5, -C 2 H 4 COOCH 3, -C 2 H 4 COOC 2 H 5 or allyl; R 4 and R 7 are hydrogen, methyl or phenyl; R 5 is methyl or ethyl; R 6 is hydrogen or methyl; and n is 0 or 1. T 1 and T 2 independently are hydrogen, (C 1 -C 6)-alkyl, (C 1 -C 4) -alkoxy, -SO 2 (C 1 -C 6) -alkyl, -SO 2 aryl, cyano, halogen or nitro; and T 4 and T 3 independently are hydrogen, halogen, trifluoromethyl, cyano, -SCN, -SO 2 CH 3 or nitro; although at least one of T 1, T 2, T 3 and T 4 is not hydrogen; T 5 and T 5' independently are hydrogen or halogen; and T 6 is hydrogen, -SO 2 CH 3, -SCN, (C 1 -C 4) -alkoxy, halogen or nitro; although at least one of T 5, T 5' and T 6 is not hydrogen; where T 10 is hydrogen, halogen, nitro or cyano; T 8 is hydrogen, (C 1 -C 6)-alkyl or halogen; and T 9 is nitro, cyano, -COCH 3 or -COOT 11; where T 11 is (C 1 -C 4)-alkyl; where T 13 is phenyl or S- (C 1 -C 4) -alkyl, R 1 is hydrogen, chlorine, methyl, ethyl, methoxy, hydroxyl, ethoxy, acetylamino, propionylamino, benzoylamino, methylsulfonylamino, ethylsulfonylamino or phenylsulfonylamino; R 2 is hydrogen, chlorine, methyl, ethyl, methoxy, ethoxy or phenoxy; R 3 is hydrogen, benzyl, phenylethyl, phenoxyethyl, methoxyethyl, cyanoethyl, -C 2 H 4 OCOCH 3, -C 2 H 4 OCOC 2 H 5, -C 2 H 4 COOCH 3, -C 2 H 4 COOC 2 H 5 or allyl; R 4 and R 7 are hydrogen, methyl or phenyl; R 5 is methyl or ethyl; R 6 is hydrogen or methyl; and n is 0 or 1.
An abnormality detection device comprising: an acquirer configured to acquire a plurality of detection results of a plurality of sensors configured to detect a state of a detection target at predetermined time intervals; an estimator configured to estimate a specific sensor in which an abnormality is likely to have occurred among the plurality of sensors on the basis of a plurality of mode information elements obtained by performing a plurality of mode information acquisition processes of extracting features according to properties of the abnormality with respect to each of the plurality of detection results acquired by the acquirer; and a deriver configured to derive a trajectory in which a first mode information element derived on the basis of a detection result of a first sensor to define a first axis of a two-dimensional phase plane, and a second mode information element derived on the basis of a detection result of a second sensor to define a second axis of the phase plane are combined using principal component analysis, elements whose detection timings match among elements included in the first mode information and elements included in the second mode information are plotted according to the respective first and second axes on the phase plane, wherein, when a shape of the trajectory derived by the deriver is different from a shape of a trajectory in a normal state, the estimator is configured to estimate that the sensor related to the abnormality of trajectory is the specific sensor. an acquirer configured to acquire a plurality of detection results of a plurality of sensors configured to detect a state of a detection target at predetermined time intervals; an estimator configured to estimate a specific sensor in which an abnormality is likely to have occurred among the plurality of sensors on the basis of a plurality of mode information elements obtained by performing a plurality of mode information acquisition processes of extracting features according to properties of the abnormality with respect to each of the plurality of detection results acquired by the acquirer; and a deriver configured to derive a trajectory in which a first mode information element derived on the basis of a detection result of a first sensor to define a first axis of a two-dimensional phase plane, and a second mode information element derived on the basis of a detection result of a second sensor to define a second axis of the phase plane are combined using principal component analysis, elements whose detection timings match among elements included in the first mode information and elements included in the second mode information are plotted according to the respective first and second axes on the phase plane, wherein, when a shape of the trajectory derived by the deriver is different from a shape of a trajectory in a normal state, the estimator is configured to estimate that the sensor related to the abnormality of trajectory is the specific sensor.
A soldering apparatus, comprising: a thermal radiation heater configured to heat a workpiece to be soldered by thermal radiation; said apparatus being characterised by further comprising two coolers configured to cool the workpiece soldered, the coolers being arranged to sandwich the thermal radiation heater therebetween, movable between a standby position and a cooling position, and formed with a recessed portion, the recessed portion configured to dispose therein the thermal radiation heater sandwiched between the two coolers; wherein the coolers are configured to be moved to the standby position where the coolers are separated from the workpiece and stand by such that the thermal radiation heater is in a state of protruding from the recessed portion while the thermal radiation heater heats the workpiece, and the coolers are configured to be moved from the standby position to the cooling position to cool the workpiece. a thermal radiation heater configured to heat a workpiece to be soldered by thermal radiation; said apparatus being characterised by further comprising two coolers configured to cool the workpiece soldered, the coolers being arranged to sandwich the thermal radiation heater therebetween, movable between a standby position and a cooling position, and formed with a recessed portion, the recessed portion configured to dispose therein the thermal radiation heater sandwiched between the two coolers; wherein the coolers are configured to be moved to the standby position where the coolers are separated from the workpiece and stand by such that the thermal radiation heater is in a state of protruding from the recessed portion while the thermal radiation heater heats the workpiece, and the coolers are configured to be moved from the standby position to the cooling position to cool the workpiece.
A security apparatus for data exchange of a component of a wind turbine or a wind farm, in particular a wind farm controller with a remote computer, wherein the security apparatus includes: - a first data interface for connecting the component by way of a first data connection, - a second data interface for connecting the remote computer by way of a second data connection, - a third data interface for receiving a switching signal by way of a third data connection, - a separable internal data connection between the first data interface and the second data interface, and - a switching unit which is adapted in dependence on the switching signal to separate and/or make a physical connection of the internal data connection. - a first data interface for connecting the component by way of a first data connection, - a second data interface for connecting the remote computer by way of a second data connection, - a third data interface for receiving a switching signal by way of a third data connection, - a separable internal data connection between the first data interface and the second data interface, and - a switching unit which is adapted in dependence on the switching signal to separate and/or make a physical connection of the internal data connection.
A burner for use in an exhaust purifying device that in use purifies exhaust in an exhaust pipe of an engine, the burner comprising: a tubular flame stabilizer including an ejection port in a distal end to eject fluid generated through combustion; a connecting passage that connects an interior of the flame stabilizer and an exterior of the flame stabilizer; and characterised by a recirculation unit arranged at an outer side of the flame stabilizer, wherein the recirculation unit includes, a flow receiving portion that receives the fluid ejected from the ejection port, and a guiding portion that guides the fluid received by the flow receiving portion from the flow receiving portion to the connecting passage. a tubular flame stabilizer including an ejection port in a distal end to eject fluid generated through combustion; a connecting passage that connects an interior of the flame stabilizer and an exterior of the flame stabilizer; and characterised by a recirculation unit arranged at an outer side of the flame stabilizer, wherein the recirculation unit includes, a flow receiving portion that receives the fluid ejected from the ejection port, and a guiding portion that guides the fluid received by the flow receiving portion from the flow receiving portion to the connecting passage.
A method for the blow moulding of containers wherein a preform made of thermoplastic material are - inside the blow mould - stretched by a stretch forming bar and moulded by the action of blowing pressure to form the container, wherein the positioning of the stretch forming bar is specified by using an electro-mechanical stretch forming bar drive in which a rotary movement of a motor shaft of a servo motor is transformed into a lifting movement of the stretch forming bar by means of a mechanical coupling device, wherein the servo motor is transported by a blow moulding wheel in a circumferential manner, characterised in that - the servo motor is being connected to a voltage supply unit arranged on the blow moulding wheel, wherein the servo motor is charged by a control that is arranged in its immediate vicinity, in particular a control unit which is arranged on the blow moulding wheel and to which the servo motor is connected, and wherein the control of the servo motor is connected to an external control by means of a bus system. - the servo motor is being connected to a voltage supply unit arranged on the blow moulding wheel, wherein the servo motor is charged by a control that is arranged in its immediate vicinity, in particular a control unit which is arranged on the blow moulding wheel and to which the servo motor is connected, and wherein the control of the servo motor is connected to an external control by means of a bus system.
An axial flow fan comprising: an impeller, a hub of which is attached to a rotation shaft of a rotation driving device; a plurality of blades integrally attached to the hub; and a venturi casing that surrounds an outer circumference in a radial direction of the impeller, and includes a suction port and a discharge port facing each other in an axial direction of the rotation shaft wherein a positive pressure surface of each of the plurality of blades includes a plurality of step portions, the step portions being extended and curved from an inner radial portion of each blade to an outer radial portion of each blade so as to comply with a curved shape of a leading edge of the respective blade; and a negative pressure surface of each of the plurality of blades is smooth. an impeller, a hub of which is attached to a rotation shaft of a rotation driving device; a plurality of blades integrally attached to the hub; and a venturi casing that surrounds an outer circumference in a radial direction of the impeller, and includes a suction port and a discharge port facing each other in an axial direction of the rotation shaft wherein a positive pressure surface of each of the plurality of blades includes a plurality of step portions, the step portions being extended and curved from an inner radial portion of each blade to an outer radial portion of each blade so as to comply with a curved shape of a leading edge of the respective blade; and a negative pressure surface of each of the plurality of blades is smooth.
Garment, in particular sports garment, comprising at least two pieces of fabric (E1-E8) attached to each other by means of a first seam which is weak and arranged to give way in the event of pulling on one of the pieces of fabric (E1-E8), in order to permit separation thereof, characterised in that said at least two pieces of fabric (E1-E8) are also attached together by means of at least one second seam, or strong seam, which is more robust than the first seam and is arranged not to give way in the event of pulling on one of the pieces of fabric (E1-E8) and to be entirely undone by pulling on one of the threads of which it is formed so as no longer to connect said at least two pieces of fabric (E1-E8).
A solar cell comprising: a substrate; a back electrode layer on the substrate; a light absorbing layer on the back electrode layer; a window layer on the light absorbing layer; a plurality of beads in the light absorbing layer; and characterized in that it further comprises a light trap layer on each surface of the outer surface of the plurality of beads in order to prevent a light incident into the plurality of beads from being reflected to an external again, the ratio of each diameter of the plurality of beads and the thickness of the light trap layer being 200:1, wherein through holes are formed in a portion of the back electrode layer, wherein the through hole is for dividing the back electrode layer into a plurality of back electrodes, wherein an insulating layer fills up the through holes, and wherein the insulating layer comprises SiO 2, wherein the light absorbing layer includes a Group I-III-VI based compound. a substrate; a back electrode layer on the substrate; a light absorbing layer on the back electrode layer; a window layer on the light absorbing layer; a plurality of beads in the light absorbing layer; and characterized in that it further comprises a light trap layer on each surface of the outer surface of the plurality of beads in order to prevent a light incident into the plurality of beads from being reflected to an external again, the ratio of each diameter of the plurality of beads and the thickness of the light trap layer being 200:1, wherein through holes are formed in a portion of the back electrode layer, wherein the through hole is for dividing the back electrode layer into a plurality of back electrodes, wherein an insulating layer fills up the through holes, and wherein the insulating layer comprises SiO 2, wherein the light absorbing layer includes a Group I-III-VI based compound.
A method of rough-machining an area of a workpiece using a numerically controlled machine tool, the area having a shape, the method comprising: selecting a boundary defining the shape of the area of the workpiece to be machined; determining a medial axis of the shape; using the medial axis to generate a first set of toolpath data for guiding movement of a cutting tool, the method characterized by: machining a pre-roughing slot in the workpiece using the first set of toolpath data to cut a first circular recess into the workpiece centred at a first end of the medial axis, cut a full length of the pre-roughing slot, and cut a second circular recess into the workpiece centred at a second end of the medial axis, such that the pre-roughing slot has a geometry; generating a second set of toolpath data based on the geometry of the pre-roughing slot, such that the toolpath of the second set of toolpath data comprises a starting position inside the pre-roughing slot; and rough machining the workpiece using the second set of toolpath data. selecting a boundary defining the shape of the area of the workpiece to be machined; determining a medial axis of the shape; using the medial axis to generate a first set of toolpath data for guiding movement of a cutting tool, the method characterized by: machining a pre-roughing slot in the workpiece using the first set of toolpath data to cut a first circular recess into the workpiece centred at a first end of the medial axis, cut a full length of the pre-roughing slot, and cut a second circular recess into the workpiece centred at a second end of the medial axis, such that the pre-roughing slot has a geometry; generating a second set of toolpath data based on the geometry of the pre-roughing slot, such that the toolpath of the second set of toolpath data comprises a starting position inside the pre-roughing slot; and rough machining the workpiece using the second set of toolpath data. machining a pre-roughing slot in the workpiece using the first set of toolpath data to cut a first circular recess into the workpiece centred at a first end of the medial axis, cut a full length of the pre-roughing slot, and cut a second circular recess into the workpiece centred at a second end of the medial axis, such that the pre-roughing slot has a geometry; generating a second set of toolpath data based on the geometry of the pre-roughing slot, such that the toolpath of the second set of toolpath data comprises a starting position inside the pre-roughing slot; and rough machining the workpiece using the second set of toolpath data.