mhurhangee/ep-ind-claims huggingface dataset:
A method for the automated control of the size of a nozzle discharge gap of a nozzle arrangement for flat film extrusion, wherein the nozzle arrangement has a first and a second nozzle lip and a nozzle discharge gap arranged between the nozzle lips for the controlled setting of a thickness profile of a conveyable melt, wherein a plurality of adjusting elements, in particular, a plurality of adjusting bolts, is arranged on the first nozzle lip, which are each coupled with an associated thermoelement, wherein the thermoelements can be controlled by the control in such a way that due to expansion or contraction of the thermoelements the gap adjustment can be realized by means of a mechanical force acting from the respective thermoelement via an associated adjusting element on the first nozzle lip, wherein at least two adjusting elements are simultaneously adjusted, and wherein the adjusting elements are adjusted over an equal stroke, as a result of which a parallel adjustment is made possible. wherein the nozzle arrangement has a first and a second nozzle lip and a nozzle discharge gap arranged between the nozzle lips for the controlled setting of a thickness profile of a conveyable melt, wherein a plurality of adjusting elements, in particular, a plurality of adjusting bolts, is arranged on the first nozzle lip, which are each coupled with an associated thermoelement, wherein the thermoelements can be controlled by the control in such a way that due to expansion or contraction of the thermoelements the gap adjustment can be realized by means of a mechanical force acting from the respective thermoelement via an associated adjusting element on the first nozzle lip, wherein at least two adjusting elements are simultaneously adjusted, and wherein the adjusting elements are adjusted over an equal stroke, as a result of which a parallel adjustment is made possible.
Bearing for supporting a rotary conversion tool (10, 11) comprising two end rolling devices (26, 28), at least one intermediate rolling device located between the end rolling devices (26, 28), the end and intermediate rolling devices (26, 27, 28) being configured to engage with an end (10a, 10b, 11a, 11b) of the rotary tool (10, 11), and at least one mechanical actuator (32, 33), characterised in that the mechanical actuator (32, 33) is configured to exert a radial preload force (Fo, Fo'), which is linear and has a constant direction, on the intermediate rolling device.
An accompaniment data generating apparatus comprising storing means for storing: sets of phrase waveform data each related to a respective chord identified on the basis of a combination of a respective chord type and a respective chord root, and automatic accompaniment data sets each having a plurality of accompaniment parts and each being correlated with a respective plurality of said sets of phrase waveform data, said pluralities of phrase waveform data forming respective accompaniment pattern data sets correlated with one of said chord types, each set of phrase waveform data having a respective identifier comprising an ID of automatic accompaniment data, a part number, a number indicative of the respective chord root and a number indicative of the respective chord type, and wherein said accompaniment data generating apparatus further comprises chord information obtaining means for obtaining chord information which identifies chord type and chord root; and chord note phrase generating means for generating waveform data indicative of a chord note phrase corresponding to a chord identified on the basis of the obtained chord information as accompaniment data, said chord note phrase generating means comprising reading means for reading out from said storage means, for each of said accompaniment parts, correlated sets of phrase waveform data, based on the respective identifiers, matching the chord type identified by the obtained chord information. sets of phrase waveform data each related to a respective chord identified on the basis of a combination of a respective chord type and a respective chord root, and automatic accompaniment data sets each having a plurality of accompaniment parts and each being correlated with a respective plurality of said sets of phrase waveform data, said pluralities of phrase waveform data forming respective accompaniment pattern data sets correlated with one of said chord types, each set of phrase waveform data having a respective identifier comprising an ID of automatic accompaniment data, a part number, a number indicative of the respective chord root and a number indicative of the respective chord type, and wherein said accompaniment data generating apparatus further comprises chord information obtaining means for obtaining chord information which identifies chord type and chord root; and chord note phrase generating means for generating waveform data indicative of a chord note phrase corresponding to a chord identified on the basis of the obtained chord information as accompaniment data, said chord note phrase generating means comprising reading means for reading out from said storage means, for each of said accompaniment parts, correlated sets of phrase waveform data, based on the respective identifiers, matching the chord type identified by the obtained chord information.
A brake apparatus, comprising: - a hydraulic unit; - a control unit; and - a wheel cylinder portion, wherein the hydraulic unit includes: - at least one connection fluid passage connected to the wheel cylinder portion, - a pump configured to be driven by a motor to discharge brake fluid to the connection fluid passage, - a rotation number detection portion configured to detect a number of rotations of the motor, and - at least one hydraulic sensor configured to detect a hydraulic pressure in the connection fluid passage, and wherein the control unit is configured to detect a possibility of a failure based on a first hydraulic pressure in the connection fluid passage that is determined based on a number of rotations of the motor and a second hydraulic pressure detected by the hydraulic sensor. - a hydraulic unit; - a control unit; and - a wheel cylinder portion, wherein the hydraulic unit includes: - at least one connection fluid passage connected to the wheel cylinder portion, - a pump configured to be driven by a motor to discharge brake fluid to the connection fluid passage, - a rotation number detection portion configured to detect a number of rotations of the motor, and - at least one hydraulic sensor configured to detect a hydraulic pressure in the connection fluid passage, and wherein the control unit is configured to detect a possibility of a failure based on a first hydraulic pressure in the connection fluid passage that is determined based on a number of rotations of the motor and a second hydraulic pressure detected by the hydraulic sensor. wherein the hydraulic unit includes: - at least one connection fluid passage connected to the wheel cylinder portion, - a pump configured to be driven by a motor to discharge brake fluid to the connection fluid passage, - a rotation number detection portion configured to detect a number of rotations of the motor, and - at least one hydraulic sensor configured to detect a hydraulic pressure in the connection fluid passage, and - at least one connection fluid passage connected to the wheel cylinder portion, - a pump configured to be driven by a motor to discharge brake fluid to the connection fluid passage, - a rotation number detection portion configured to detect a number of rotations of the motor, and - at least one hydraulic sensor configured to detect a hydraulic pressure in the connection fluid passage, and wherein the control unit is configured to detect a possibility of a failure based on a first hydraulic pressure in the connection fluid passage that is determined based on a number of rotations of the motor and a second hydraulic pressure detected by the hydraulic sensor.
Apparatus for the removal of a demixed organic phase, which extends from a lower interface surface with a heavier phase to an upper interface surface with a lighter phase in a contaminated body of water, comprising a mobile device immersible in the contaminated body of water, comprising a selectively permeable filter element constituting a separation cavity, a collection tank in a lower position with respect to the separation cavity constituted by the selectively permeable filter element and constituting a collecting cavity suitable for containing hydrocarbons filtered by the filter element, said separation cavity and collecting cavity being fluidically connected to each other in a way to allow emptying of the separation cavity and filling of the collection cavity by gravity, suspension and handling means of the mobile device for the automatic control of its positioning with respect to the demixed organic phase to be removed, at least one means of determination of the relative position of the mobile device with respect to the upper interphase surface of the demixed organic phase to be removed, a surface device comprising a remote central control and handling of the mobile device, a motor controlled by the unit and connected to the means of suspension and handling, the means of determination of the relative position being connected to the unit and exchanging the detected information with it; the apparatus being characterized by comprising, as a means of determination of the relative position of the mobile device with respect to the demixed organic phase to be removed, at least one level sensor, installed in a predetermined position from the mobile device, configured to measure its distance from the upper interface surface of at least one demixed organic phase to be removed, at least one first phase sensor and at least one second phase sensor, the first phase sensor being installed at the same height of the selectively permeable filter element in an upper position with respect to the collection tank and configured to detect the presence of at least one demixed organic phase to remove, and the second phase sensor being installed in a lower position with respect to the first phase sensor in a predetermined position relative to the mobile device and configured to detect the presence of the demixed organic phase.
A tire pressure sensor device setting method for setting a tire pressure sensor, said tire pressure sensor device comprises a pressure sensor, a main control processor, and a receiver, the tire pressure sensor device setting method comprising the step of installing said tire pressure sensor device in a tire of a vehicle and starting up said tire pressure sensor device, characterized by the steps of: enabling said main control processor to monitor a parameter value and matches the monitored parameter value with a predetermined tire pressure reference value, and then proceeding to step if the value of the tire pressure detected by said pressure sensor is smaller than said predetermined tire pressure reference value, or step if the value of the tire pressure detected by said pressure sensor is greater than said predetermined tire pressure reference value; enabling said main control processor to receive a wireless signal from said receiver for altering the communication protocol of said tire pressure sensor device; and enabling said main control processor to stop receiving a wireless signal from said receiver and to prohibit alteration of the communication protocol of said tire pressure sensor device, thereby finishing the installation of said tire pressure sensor device. enabling said main control processor to monitor a parameter value and matches the monitored parameter value with a predetermined tire pressure reference value, and then proceeding to step if the value of the tire pressure detected by said pressure sensor is smaller than said predetermined tire pressure reference value, or step if the value of the tire pressure detected by said pressure sensor is greater than said predetermined tire pressure reference value; enabling said main control processor to receive a wireless signal from said receiver for altering the communication protocol of said tire pressure sensor device; and enabling said main control processor to stop receiving a wireless signal from said receiver and to prohibit alteration of the communication protocol of said tire pressure sensor device, thereby finishing the installation of said tire pressure sensor device.
A pressure regulation device for a water reservoir, comprising an expansion chamber that is provided with an inlet orifice and an outlet orifice, an overpressure safety valve that closes off the outlet orifice of said chamber and is able to open said outlet orifice in the event of overpressure detected, and a discharge pipe associated with the overpressure valve that communicates with the chamber when the outlet orifice of the latter is open, and further comprising an anti-vacuum valve associated with the expansion chamber and able to allow the introduction of air into said chamber in the event of detection of negative pressure, and in that the device has a body in which there are arranged the chamber, the discharge pipe, the overpressure valve and the anti-vacuum valve, the body forming a unitary assembly so as to provide a device ready for installation, characterised in that the overpressure valve is arranged in the body in an alignment with the expansion chamber, while the discharge pipe is disposed angularly with respect to the axis on which the overpressure valve and the chamber are arranged.
A microfluidic chip controller (10a, 10b, 10c, 10d) comprising a body having a coupling for mounting to a centrifuge while permitting concurrent mounting of a microfluidic chip to the centrifuge, so that the body and chip are rotatable by the centrifuge, the body having: - a first opening to a first pressurized fluid supply; - a first pressurized fluid supply line having first and second ends, the first end for fluid communication with the first opening, and the second end adapted for fluid communication with a first port (16a, 16b, 16c) of the chip; and - a flow control device for selectively controlling a supplied pressure to the first port (16a, 16b, 16c) whereby the microfluidic chip controller (10a, 10b, 10c, 10d) mounted with the chip to the centrifuge, with the first supply line connected to the first port (16a, 16b, 16c) of the chip, allows for controlled delivery of pressurized fluid into the chip during centrifugation, characterized in that the flow control device is in the supply line, the supply line and flow control device being mounted to the body; and an electrical circuit is provided for controlling the flow control device, the electrical circuit being mounted to the body or comrpising an electrical slip ring. - a first opening to a first pressurized fluid supply; - a first pressurized fluid supply line having first and second ends, the first end for fluid communication with the first opening, and the second end adapted for fluid communication with a first port (16a, 16b, 16c) of the chip; and - a flow control device for selectively controlling a supplied pressure to the first port (16a, 16b, 16c)
A method of allocating radio resources for one or more radio devices (A, B, C, D, DX) in an industrial application, the method comprising: allocating radio resources to at least one non-stationary radio device (A, B, C, D, DX) in a first cell, such that the radio resources allocated to the at least one non-stationary radio device (A, B, C, D, DX) in the first cell are exclusively available for the at least one non-stationary radio device (A, B, C, D, DX) in at least one second cell next to, preferably adjacent to, the first cell, in case of the at least one non-stationary radio device (A, B, C, D, DX) moving from the first cell to an adjacent cell to the first cell in which the radio resources allocated to the at least one non-stationary radio device (A, B, C, D, DX) in the first cell are not exclusively available to the at least one non-stationary radio device (A, B, C, D, DX) in the adjacent cell, dividing the radio resources in time slots in the time domain in a disjunctive manner into a first portion for a first non-stationary radio device and at least a second portion for a second non-stationary radio device. allocating radio resources to at least one non-stationary radio device (A, B, C, D, DX) in a first cell, such that the radio resources allocated to the at least one non-stationary radio device (A, B, C, D, DX) in the first cell are exclusively available for the at least one non-stationary radio device (A, B, C, D, DX) in at least one second cell next to, preferably adjacent to, the first cell, in case of the at least one non-stationary radio device (A, B, C, D, DX) moving from the first cell to an adjacent cell to the first cell in which the radio resources allocated to the at least one non-stationary radio device (A, B, C, D, DX) in the first cell are not exclusively available to the at least one non-stationary radio device (A, B, C, D, DX) in the adjacent cell, dividing the radio resources in time slots in the time domain in a disjunctive manner into a first portion for a first non-stationary radio device and at least a second portion for a second non-stationary radio device.
An organic transistor comprising at least one lower substrate made of plastic material, called plastic substrate, two electrodes (3, 4), respectively a source electrode and a drain electrode, deposited above the plastic substrate, a semiconductor layer made of an organic semiconductor material and deposited on top of and in contact with the electrodes (3, 4) and above the plastic substrate, a dielectric layer made of a dielectric material and deposited on the semiconductor layer, and a gate electrode formed on said dielectric layer, wherein it further comprises a porous layer made of a dielectric material, and extending between the plastic substrate and the semiconductor layer, said porous layer extending at least under the area between the source and drain electrodes, to decrease the dielectric constant of the surface of said plastic substrate.
A selective ionization method for palladium isotopes, the method including: irradiating a palladium-containing substance including a plurality of types of palladium isotopes, with laser beams having a plurality of wavelengths, to selectively ionize the palladium isotope having an odd mass number from the palladium-containing substance, the method comprising: a first excitation step of exciting, with a first laser beam having a first wavelength, the palladium isotope at a ground level to a first excited level; and a second excitation step of exciting, with a second laser beam having a second wavelength, the palladium isotope at the first excited level to a second excited level, characterised in that the first and second wavelengths are selected such that the first excitation step and the second excitation step selectively excite the palladium isotope having an odd mass number to the second excited level, the palladium isotope excited to the second excited level and having the odd mass number keep having a same ion core state between the first excited level and the second excited level, and the second excited level is an autoionization level. a first excitation step of exciting, with a first laser beam having a first wavelength, the palladium isotope at a ground level to a first excited level; and a second excitation step of exciting, with a second laser beam having a second wavelength, the palladium isotope at the first excited level to a second excited level, characterised in that the first and second wavelengths are selected such that the first excitation step and the second excitation step selectively excite the palladium isotope having an odd mass number to the second excited level, the palladium isotope excited to the second excited level and having the odd mass number keep having a same ion core state between the first excited level and the second excited level, and the second excited level is an autoionization level.
A method for producing an optical fiber, said method comprising: drawing a bare optical fiber from a preform along a first pathway; contacting said bare optical fiber with a region of fluid cushion in a fluid bearing, said fluid bearing comprising a channel, said channel defined by at least two sidewalls (242, 244), the fiber being retained within a region of said channel which is sufficient to cause said fiber to be levitated within the channel substantially as a result of a pressure differential which is present below the fiber within the channel, said pressure differential caused by a higher pressure caused by said fluid being supplied below the fiber within the channel compared to the pressure which is present above the fiber, and redirecting said bare optical fiber along a second pathway as said bare optical fiber is drawn across said region of fluid cushion; coating the bare optical fiber; and irradiating said coated fiber in at least one irradiation zone to at least partially cure said coating, while subjecting the optical fiber to UV light, wherein the bare optical fiber is drawn from the preform along the first pathway at a rate of at least 20 m/sec; and wherein said irradiation zone has a total length L, wherein L is at least 1.5 meters. drawing a bare optical fiber from a preform along a first pathway; contacting said bare optical fiber with a region of fluid cushion in a fluid bearing, said fluid bearing comprising a channel, said channel defined by at least two sidewalls (242, 244), the fiber being retained within a region of said channel which is sufficient to cause said fiber to be levitated within the channel substantially as a result of a pressure differential which is present below the fiber within the channel, said pressure differential caused by a higher pressure caused by said fluid being supplied below the fiber within the channel compared to the pressure which is present above the fiber, and redirecting said bare optical fiber along a second pathway as said bare optical fiber is drawn across said region of fluid cushion; coating the bare optical fiber; and irradiating said coated fiber in at least one irradiation zone to at least partially cure said coating, while subjecting the optical fiber to UV light, wherein the bare optical fiber is drawn from the preform along the first pathway at a rate of at least 20 m/sec; and wherein said irradiation zone has a total length L, wherein L is at least 1.5 meters.
A magazine assembly for a fastener driving tool having a nosepiece defining a fastener passageway, comprising: an inner mobile member at least partially defining at least first and second chambers (40, 42) for receiving fasteners; an outer stationary member at least partially surrounding said inner mobile member and engageable relative to the nosepiece; and said inner mobile member being movable relative to said outer member in a direction transverse to fastener travel in said magazine assembly, characterised by a translational lever assembly having a translational lever attached to an actuator (54, 56); wherein movement of said translational lever causes said actuator (54, 56) to urge said inner mobile member to move between a first position and a second position, and an endcap attached to said outer stationary member, wherein a rear end of the magazine assembly is covered by the endcap. an inner mobile member at least partially defining at least first and second chambers (40, 42) for receiving fasteners; an outer stationary member at least partially surrounding said inner mobile member and engageable relative to the nosepiece; and said inner mobile member being movable relative to said outer member in a direction transverse to fastener travel in said magazine assembly, characterised by a translational lever assembly having a translational lever attached to an actuator (54, 56); wherein movement of said translational lever causes said actuator (54, 56) to urge said inner mobile member to move between a first position and a second position, and an endcap attached to said outer stationary member, wherein a rear end of the magazine assembly is covered by the endcap.