mhurhangee/ep-ind-claims huggingface dataset:
A quickshifter-equipped vehicle control unit (12, 112) for use in a quickshifter-equipped vehicle, the vehicle including an engine configured as an internal combustion engine serving as a power source for travel of the vehicle, a shift operation member configured to receive a shift operation performed by a rider, a gear transmission connected to the engine and configured to select one speed change gear pair from a plurality of speed change gear pairs in response to the shift operation and shift from one gear position to another gear position, a shift operation sensor configured to detect the shift operation, a main clutch disposed between the engine and the gear transmission, and a clutch actuator configured to actuate the main clutch, the quickshifter-equipped vehicle control unit (12, 112) comprising: an engine speed calculator configured to calculate an engine speed; and a shift controller (56, 156) configured to operate in a quick shift mode and in a normal shift mode, the quick shift mode being a mode in which upon detection of the shift operation, wherein the shift controller (56, 156) is configured to adjust an output of the engine while keeping the main clutch in an engaged state, the normal shift mode being a mode in which upon detection of the shift operation, wherein the shift controller is configured to control the clutch actuator to bring the main clutch into a disengaged state, characterized in that: the shift controller (56, 156) is configured to select the quick shift mode when the engine speed is higher than a predetermined rotational speed threshold, and the shift controller (56, 156) is configured to select the normal shift mode when the engine speed is lower than the rotational speed threshold. an engine speed calculator configured to calculate an engine speed; and a shift controller (56, 156) configured to operate in a quick shift mode and in a normal shift mode, the quick shift mode being a mode in which upon detection of the shift operation, wherein the shift controller (56, 156) is configured to adjust an output of the engine while keeping the main clutch in an engaged state, the normal shift mode being a mode in which upon detection of the shift operation, wherein the shift controller is configured to control the clutch actuator to bring the main clutch into a disengaged state, characterized in that: the shift controller (56, 156) is configured to select the quick shift mode when the engine speed is higher than a predetermined rotational speed threshold, and the shift controller (56, 156) is configured to select the normal shift mode when the engine speed is lower than the rotational speed threshold. the shift controller (56, 156) is configured to select the quick shift mode when the engine speed is higher than a predetermined rotational speed threshold, and the shift controller (56, 156) is configured to select the normal shift mode when the engine speed is lower than the rotational speed threshold.
An extendable pole mechanism for use with a first associated pole that is longitudinally movable with respect to a second associated pole to adjust the overall length of both poles, the extendable pole mechanism comprising: a collar that: 1) receives the first and second associated poles (10,12); and, 2) contacts the second associated pole to prevent substantial relative longitudinal motion of the second pole with respect to the collar; a roller cage that: 1) has at least one roller; 2) receives the first associated pole; and, 3) is rotatable with respect to the first associated pole; a roller sleeve (56,58) that: 1) receives the roller cage; 2) is rotatable with respect to the roller cage; 3) is attached to the collar; and, 4) is rotatable with respect to the collar; and, wherein the extendable pole mechanism is adjustable by rotating the roller sleeve (56,58) with respect to the collar and with respect to the roller cage between: 1) a use condition where the first associated pole is held by contact with the at least one roller in a longitudinally substantially fixed position with respect to the second associated pole; and, 2) an adjustment condition where: a) the first associated pole is not held by contact with the at least one roller in a longitudinally substantially fixed position with respect to the second associated pole; and, b) the first associated pole is longitudinally moveable with respect to the second associated pole. a collar that: 1) receives the first and second associated poles (10,12); and, 2) contacts the second associated pole to prevent substantial relative longitudinal motion of the second pole with respect to the collar; a roller cage that: 1) has at least one roller; 2) receives the first associated pole; and, 3) is rotatable with respect to the first associated pole; a roller sleeve (56,58) that: 1) receives the roller cage; 2) is rotatable with respect to the roller cage; 3) is attached to the collar; and, 4) is rotatable with respect to the collar; and, wherein the extendable pole mechanism is adjustable by rotating the roller sleeve (56,58) with respect to the collar and with respect to the roller cage between: 1) a use condition where the first associated pole is held by contact with the at least one roller in a longitudinally substantially fixed position with respect to the second associated pole; and, 2) an adjustment condition where: a) the first associated pole is not held by contact with the at least one roller in a longitudinally substantially fixed position with respect to the second associated pole; and, b) the first associated pole is longitudinally moveable with respect to the second associated pole.
Plug connector comprising a first connector and a second connector, wherein the first connector and the second connector can be connected with each other through a joining movement along a main axis of extension of the plug connector, wherein a securing element which is associated with the first connector can be displaced along the main axis of extension between a locking position and an unlocking position, wherein a fixing element of the first connector is provided in order to fix the first connector to the second connector through interaction with a counter-fixing element of the second connector in order to block a disconnecting movement of the first connector and the second connector relative to each other, wherein the fixing element is moveable in a radial direction (III, IV), wherein in the locking position the securing element is designed to permit the fixing element a movement in a radial inwards direction in order to make possible a joining movement in axial direction in order to connect the first connector with the second connector, characterised in that the securing element is, directly or indirectly, in operative connection with the fixing element, such that a displacement of the securing element from the locking position into the unlocking position causes a displacement of the fixing element in radial inwards direction, and wherein, by displacing the securing element from the locking position into the unlocking position, the fixing element can be released from the counter-fixing element through a movement in radial inwards direction in order to permit the disconnecting movement in axial direction in order to separate the first connector from the second connector.
Device for determining a spindle status of a spindle of a machine tool, having a sensing means which is used to sense sensor data of the spindle, a processing unit, which is embodied so that it analyses the sensed sensor data by means of artificial intelligence and determines a spindle status herefrom, and an output means for outputting the determined spindle status, characterised in that the sensing means is embodied so as to sense continuous sensor data and the device is embodied to subdivide this by means of a defined time frame of a determined length, the processing unit is embodied to calculate at least one defined feature of the sensor data by means of the defined time frame using artificial intelligence and to determine the determined spindle status using an ensemble of regularised decision trees stored in the processing unit on the basis of the at least one feature, the determined spindle status characterises a load of the spindle. a sensing means which is used to sense sensor data of the spindle, a processing unit, which is embodied so that it analyses the sensed sensor data by means of artificial intelligence and determines a spindle status herefrom, and an output means for outputting the determined spindle status, characterised in that the sensing means is embodied so as to sense continuous sensor data and the device is embodied to subdivide this by means of a defined time frame of a determined length, the processing unit is embodied to calculate at least one defined feature of the sensor data by means of the defined time frame using artificial intelligence and to determine the determined spindle status using an ensemble of regularised decision trees stored in the processing unit on the basis of the at least one feature, the determined spindle status characterises a load of the spindle.
A filter circuit for producing a noise reduction signal for reducing a noise signal collected by a microphone, comprising: a digital section including an analog/digital conversion section configured to convert the noise signal into a digital noise signal, a non-adaptive digital filter section configured to receive the digital noise signal from the analog/digital conversion section, to filter the digital noise signal and to produce a digital noise reduction signal, and a digital/analog conversion section configured to convert the digital noise reduction signal into an analog noise reduction signal; an analog path connected in parallel to said digital section and configured to output the noise signal as it is or after being processed by an analog filter; and a synthesis section configured to add the analog noise reduction signal outputted from said digital/analog conversion section of said digital section with the analog signal outputted from said analog path to produce a noise reduction signal to be used for noise reduction. a digital section including an analog/digital conversion section configured to convert the noise signal into a digital noise signal, a non-adaptive digital filter section configured to receive the digital noise signal from the analog/digital conversion section, to filter the digital noise signal and to produce a digital noise reduction signal, and a digital/analog conversion section configured to convert the digital noise reduction signal into an analog noise reduction signal; an analog/digital conversion section configured to convert the noise signal into a digital noise signal, a non-adaptive digital filter section configured to receive the digital noise signal from the analog/digital conversion section, to filter the digital noise signal and to produce a digital noise reduction signal, and a digital/analog conversion section configured to convert the digital noise reduction signal into an analog noise reduction signal; an analog path connected in parallel to said digital section and configured to output the noise signal as it is or after being processed by an analog filter; and a synthesis section configured to add the analog noise reduction signal outputted from said digital/analog conversion section of said digital section with the analog signal outputted from said analog path to produce a noise reduction signal to be used for noise reduction.
A programmable motion robotic system comprising: a plurality of arm sections (50, 52, 54) that are joined one to another at a plurality of joints to form an articulated arm; a vacuum source; an end effector; a hose coupling said end effector to said vacuum source, and a pass-through coupling (60, 60', 62, 64), said hose being attached to at least one arm section (50, 52, 54) of the articulated arm by the pass-through coupling that permits the hose to pass freely through the coupling as the plurality of arm sections are moved about the plurality of joints; and a control system processor that identifies one or more restricted areas (160, 170) of movement of the articulated arm determined to potentially cause unwanted forces on the hose. a plurality of arm sections (50, 52, 54) that are joined one to another at a plurality of joints to form an articulated arm; a vacuum source; an end effector; a hose coupling said end effector to said vacuum source, and a pass-through coupling (60, 60', 62, 64), said hose being attached to at least one arm section (50, 52, 54) of the articulated arm by the pass-through coupling that permits the hose to pass freely through the coupling as the plurality of arm sections are moved about the plurality of joints; and a control system processor that identifies one or more restricted areas (160, 170) of movement of the articulated arm determined to potentially cause unwanted forces on the hose.
A glazing and in particular automotive glazing, comprising a laminated glazed element comprising an exterior glass sheet, an interior glass sheet and a plastic interlayer sheet that is located between said two glass sheets, said exterior glass sheet having an exterior face, an edge face and an interlayer face that is oriented toward said plastic interlayer sheet, said interior glass sheet having an interlayer face that is oriented toward said plastic interlayer sheet, an edge face and an interior face, said glazing including at least one light-emitting diode located under a peripheral edge of said interlayer face of said exterior glass sheet and having an emitting face, characterized in that said emitting face is located facing at least a part of said edge face of said interior glass sheet and in that it includes a profiled bead including - an exterior lip in contact with said peripheral edge of said interlayer face of said exterior glass sheet and/or said edge face of said exterior glass sheet, - an interior lip in contact with a peripheral edge of said interior face of said interior glass sheet, and - a body located between said exterior lip and said interior lip, with said body being located a distance away from said emitting face of the light-emitting diode and not in contact with said emitting face, and preferably furthermore being located a distance away from, and not in contact with, said edge face of said interior glass sheet. - an exterior lip in contact with said peripheral edge of said interlayer face of said exterior glass sheet and/or said edge face of said exterior glass sheet, - an interior lip in contact with a peripheral edge of said interior face of said interior glass sheet, and - a body located between said exterior lip and said interior lip,
A switch cabinet having a housing and a door which is pivotably secured thereto via at least one hinge, the door having a door leaf, wherein the door leaf has an aperture and a closing element which closes the aperture and is held in a closed position, counter to its mechanical pretension in the direction of its open position, by an electrically controllable locking element, characterized in that the pretension in the direction of the open position is provided, at least in a first partial movement section of the closing element from the closed position in the direction of the open position, by a redundant pretensioning device having at least two pretensioning elements (9, 13) which are designed independently of one another, and wherein one of the two redundant pretensioning elements (9, 13) is disengaged from the closing element and the other continues to be engaged with the closing element when the closing element is disposed outside the first partial movement section in a partially open position between the open position and the closed position.
A priming mixture characterized in that it comprises aluminium silicate in a quantity not exceeding 30% and preferably in a quantity ranging from 15 to 25% by weight, titanium in a quantity ranging from 1 to 10%, preferably from 2 to 7% by weight, samarium oxide in a quantity ranging from 5 to 20%, preferably from 8 to 16% by weight, all quantities referring to the total weight of the priming mixture.
A wind turbine comprising a drive train and a lubrication system, the drive train comprising at least a first and a second component, wherein the first component of the drive train comprises a main shaft and/or a generator and wherein the second component of the drive train comprises a gearbox, the lubrication system comprising - a main oil tank containing a lubrication liquid, in particular oil, for lubricating the drive train when the wind turbine has connection to a grid, and - a main reservoir, which is separate from the main oil tank and contains lubrication liquid for lubricating the drive train when the wind turbine has no connection to the grid, wherein the lubrication system is configured to supply the lubrication liquid from the main reservoir to the drive train when the wind turbine has no grid connection for creating an oil sump in at least the second component of the drive train, wherein the main reservoir comprises: a first reservoir containing a first amount of lubrication liquid for lubricating at least the first component of the drive train via a first inlet piping (301, 303) corresponding to the first component, and a second reservoir containing a second amount of lubrication liquid for lubricating at least the second component of the drive train via a second inlet piping corresponding to the second component, the first component being different from the second component. - a main oil tank containing a lubrication liquid, in particular oil, for lubricating the drive train when the wind turbine has connection to a grid, and - a main reservoir, which is separate from the main oil tank and contains lubrication liquid for lubricating the drive train when the wind turbine has no connection to the grid, a first reservoir containing a first amount of lubrication liquid for lubricating at least the first component of the drive train via a first inlet piping (301, 303) corresponding to the first component, and a second reservoir containing a second amount of lubrication liquid for lubricating at least the second component of the drive train via a second inlet piping corresponding to the second component, the first component being different from the second component.
A method for manufacturing a stator for a rotating electrical machine by placing coils in a stator core, wherein each of a plurality of teeth formed in a radial pattern in an inner periphery of an annular yoke portion in the stator core has tip-end parallel side surfaces formed in its tip end portion having a constant width in a circumferential direction, has intermediate tilted side surface continuous with the tip-end parallel side surfaces and formed in its portion whose width in the circumferential direction increases as closer to an outer periphery, and has base-end parallel side surface continuous with the intermediate tilted side surfaces and formed in its base end portion having a constant width in the circumferential direction, and the last coil is placed on the tooth of the stator core by performing first insertion step of deforming the last coil so that each of an outer peripheral end of a one-side conductor portion located on one side in the circumferential direction of the last coil and an inner peripheral end of the other-side conductor portion located on the other side in the circumferential direction of the last coil has an acute-angled corner, and inserting the outer peripheral end of the one-side conductor portion into an opening of a one-side slot located on the one side in the circumferential direction of the tooth, a second insertion step of inserting the outer peripheral end of the one-side conductor portion to a boundary position between the intermediate tilted side surface and the base-end parallel side surface in the one-side slot, and inserting an outer peripheral end of the other-side conductor portion into an opening of the other-side slot located on the other side in the circumferential direction of the tooth, while maintaining the deformed state of the last coil, a third insertion step of, with the outer peripheral end of the one-side conductor portion being held stationary, inserting the outer peripheral end of the other-side conductor portion to a boundary position between the intermediate tilted side surface and the base-end parallel side surface in the other-side slot to return the deformed last coil to its original shape, and a fourth insertion step of causing the last coil to face the tooth and simultaneously inserting the one-side conductor portion and the other-side conductor portion into the one-side slot and the other-side slot.
A method of producing organic acids, comprising biochemical synthesis of organic acid-CoA using acetyl-CoA as a substrate and conducting CoA elimination reaction of the organic acid-CoA using CoA transferase in the presence of acetic acid, wherein the CoA transferase is propionic acid-CoA transferase (EC 2.8.3.1); and the organic acid is obtained by culturing transformed microorganisms which have an enzyme gene cluster for the synthesis of organic acid-CoA using acetyl-CoA as a substrate and a CoA transferase gene in the presence of artificially added acetic acid.
A composition [composition] comprising: - an aqueous medium comprising at least one pre-gel metal compound [compound] obtainable by at least partial hydrolysis and/or polycondensation of at least one metal compound [compound] of formula: X 4-m M m wherein M is a metal selected from the group consisting of Si, Ti and Zr, X and Y, equal to or different from each other and at each occurrence, are hydrocarbon groups, optionally comprising one or more functional groups, and m is an integer comprised between 1 and 4, - at least one functional fluoropolymer comprising at least one hydroxyl group [polymer], and - at least one poly(alkylene oxide) of formula: HO-(CH 2 CHR A O) n -R B wherein R A is a hydrogen atom or a C 1 -C 5 alkyl group, R B is a hydrogen atom or a -CH 3 alkyl group and n is an integer comprised between 2000 and 40000, preferably between 4000 and 35000, more preferably between 11500 and 30000. - an aqueous medium comprising at least one pre-gel metal compound [compound] obtainable by at least partial hydrolysis and/or polycondensation of at least one metal compound [compound] of formula: X 4-m M m wherein M is a metal selected from the group consisting of Si, Ti and Zr, X and Y, equal to or different from each other and at each occurrence, are hydrocarbon groups, optionally comprising one or more functional groups, and m is an integer comprised between 1 and 4, wherein M is a metal selected from the group consisting of Si, Ti and Zr, X and Y, equal to or different from each other and at each occurrence, are hydrocarbon groups, optionally comprising one or more functional groups, and m is an integer comprised between 1 and 4, - at least one functional fluoropolymer comprising at least one hydroxyl group [polymer], and - at least one poly(alkylene oxide) of formula: HO-(CH 2 CHR A O) n -R B wherein R A is a hydrogen atom or a C 1 -C 5 alkyl group, R B is a hydrogen atom or a -CH 3 alkyl group and n is an integer comprised between 2000 and 40000, preferably between 4000 and 35000, more preferably between 11500 and 30000.