mhurhangee/ep-ind-claims huggingface dataset:
A component of a system adapted to detect in advance a bearing failure of a bearing rotating between approximately 0.1 RPM and approximately 10.0 RPM, wherein the bearing is incorporated in a conveyor mechanism, and the bearing has an outer portion, an inner portion, and an intermediate portion separating the outer portion from the inner portion, the component comprising: an accelerometer portion configured to detect a vibration of the bearing, wherein the accelerometer portion is configured to detect frequencies between approximately 0.5 Hz and approximately 15,000 Hz and wherein the accelerometer portion outputs an alternating-current electrical signal; a frequency filtering portion configured to pass frequency components of the electrical signal less than approximately 500 Hz and configured to reject frequency components of the electrical signal greater than approximately 500 Hz; and an AC-to-DC conversion portion configured to rectify the alternating-current electrical signal to a direct-current electrical signal, wherein the component further comprises an averaging filter portion which is configured to smooth the electrical signal obtained from the AC-to-DC portion by averaging the electrical signal over a predetermined period of time; wherein the component is configured to process the output signal of the accelerometer portion through the frequency filtering portion,the AC-to-DC conversion portion and the averaging filter portion and to transmit the electrical signal derived from the averaging filter Portion. an accelerometer portion configured to detect a vibration of the bearing, wherein the accelerometer portion is configured to detect frequencies between approximately 0.5 Hz and approximately 15,000 Hz and wherein the accelerometer portion outputs an alternating-current electrical signal; a frequency filtering portion configured to pass frequency components of the electrical signal less than approximately 500 Hz and configured to reject frequency components of the electrical signal greater than approximately 500 Hz; and an AC-to-DC conversion portion configured to rectify the alternating-current electrical signal to a direct-current electrical signal, wherein the component further comprises an averaging filter portion which is configured to smooth the electrical signal obtained from the AC-to-DC portion by averaging the electrical signal over a predetermined period of time; wherein the component is configured to process the output signal of the accelerometer portion through the frequency filtering portion,the AC-to-DC conversion portion and the averaging filter portion and to transmit the electrical signal derived from the averaging filter Portion.
A structure for a vehicle, the structure comprising: a transverse rail; an inner side rail and an outer side rail both extending at an angle (α) from an end of the transverse rail; and a connecting part having a first leg and a second leg; wherein the transverse rail and the inner side rail are joined together via the connecting part such that the first leg is connected to the transverse rail and the second leg is located between the inner side rail and the outer side rail. a transverse rail; an inner side rail and an outer side rail both extending at an angle (α) from an end of the transverse rail; and a connecting part having a first leg and a second leg;
An apparatus comprising: a pressurized water reactor, PWR, including: a cylindrical pressure vessel defining a sealed volume, a nuclear reactor core disposed in a lower portion of the cylindrical pressure vessel, a control rod drive mechanism, CRDM, disposed in the cylindrical pressure vessel above the nuclear reactor core, and an annular steam generator surrounding the nuclear reactor core and the CRDM. a pressurized water reactor, PWR, including: a cylindrical pressure vessel defining a sealed volume, a nuclear reactor core disposed in a lower portion of the cylindrical pressure vessel, a control rod drive mechanism, CRDM, disposed in the cylindrical pressure vessel above the nuclear reactor core, and an annular steam generator surrounding the nuclear reactor core and the CRDM. a cylindrical pressure vessel defining a sealed volume, a nuclear reactor core disposed in a lower portion of the cylindrical pressure vessel, a control rod drive mechanism, CRDM, disposed in the cylindrical pressure vessel above the nuclear reactor core, and an annular steam generator surrounding the nuclear reactor core and the CRDM.
A management server comprising: a transmitter configured to transmit a reverse power flow suppression message requesting a suppression of a reverse power flow amount from a facility to a power grid; a receiver configured to receive, from the facility, reverse power source information about a reverse power source, wherein the reverse power source generates power to perform a reverse power flow from the facility to the power grid; and a controller configured to determine, based on the reverse power source information, at least one of a transmission target and contents of the reverse power flow suppression message, wherein the reverse power source information comprises failure information indicating whether the reverse power source has failed, the reverse power source is controlled by the reverse power flow suppression message, and when the failure information indicates that the reverse power source has failed, the controller is configured to preferentially select, as the transmission target, the facility having the failed reverse power source. a transmitter configured to transmit a reverse power flow suppression message requesting a suppression of a reverse power flow amount from a facility to a power grid; a receiver configured to receive, from the facility, reverse power source information about a reverse power source, wherein the reverse power source generates power to perform a reverse power flow from the facility to the power grid; and a controller configured to determine, based on the reverse power source information, at least one of a transmission target and contents of the reverse power flow suppression message, wherein the reverse power source information comprises failure information indicating whether the reverse power source has failed, the reverse power source is controlled by the reverse power flow suppression message, and when the failure information indicates that the reverse power source has failed, the controller is configured to preferentially select, as the transmission target, the facility having the failed reverse power source.
A multi-layered film for the application to a metal or plastic surface, comprising a protective layer as a first layer, which is a poly(alkyl methacrylate) film comprising at least one hindered amine light stabilizer and at least two different ortho-hydroxy tris-aryl triazine UV absorbers selected from the compounds of formulae and wherein G 1 is hydrogen, C 1 -C 18 alkyl, C 1 -C 18 alkyl substituted by 1, 2 or 3 radicals selected from the group consisting of -OH, C 2 -C 18 alkenyloxy, -C OL 1 and -OC L 2 with L 1 and L 2 being independently C 1 -C 18 alkyl; C 3 -C 50 alkyl interrupted by oxygen or C 3 -C 50 hydroxyalkyl interrupted by oxygen; G 2, G 3, G 4 and G 5 are independently hydrogen, C 1 -C 18 alkyl, phenyl or phenyl substituted by 1, 2 or 3 C 1 -C 4 alkyl; wherein Q 1, Q 2, Q 3 and Q 4 are independently hydrogen, C 1 -C 18 alkyl, C 1 -C 18 alkyl substituted by 1, 2 or 3 radicals selected from the group consisting of -OH, C 2 -C 18 alkenyloxy, -C OY 1 and -OC Y 2 with Y 1 and Y 2 being independently C 1 -C 18 alkyl; C 3 -C 50 alkyl interrupted by oxygen or C 3 -C 50 hydroxyalkyl interrupted by oxygen, and R 14, R 15 and R 16 are independently from each other hydrogen or C 1 -C 18 alkyl; a barrier layer, a base layer, an adhesive layer as last layer, and wherein barrier layer and/or base layer comprise at least one pigment. wherein Q 1, Q 2, Q 3 and Q 4 are independently hydrogen, C 1 -C 18 alkyl, C 1 -C 18 alkyl substituted by 1, 2 or 3 radicals selected from the group consisting of -OH, C 2 -C 18 alkenyloxy, -C OY 1 and -OC Y 2 with Y 1 and Y 2 being independently C 1 -C 18 alkyl; C 3 -C 50 alkyl interrupted by oxygen or C 3 -C 50 hydroxyalkyl interrupted by oxygen, and R 14, R 15 and R 16 are independently from each other hydrogen or C 1 -C 18 alkyl; a barrier layer, a base layer, an adhesive layer as last layer, and wherein barrier layer and/or base layer comprise at least one pigment.
Inhaler, preferably for insertion into a nostril, in particular a nostril of a horse, with a pressure generator, which has a tensioning device for driving the pressure generator, and with a tensioning mechanism for tensioning the tensioning device, characterized in that the tensioning mechanism has a lever gear for tensioning the tensioning device, wherein the lever gear comprises an actuating lever comprising an actuation section and a pivot point, and wherein the lever gear comprises an arm, wherein the actuating lever realizes a one-sided lever, wherein the actuating lever together with the arm forms an elbow lever, and wherein the arm is hinged to the actuating lever between the pivot point and the actuation section.
A composition of matter for use in treating colorectal cancer in a patient having decreased hMSH2 (mismatch repair recognition protein complex) protein expression and being more responsive to 5-fluorouracil treatment, the composition comprising: an effective amount of antisense miR-21 and a pharmaceutically acceptable formulation thereof, wherein miR-21 has SEQ ID. No.12.
A microstructured substrate including a plurality of at least one elementary microstructure, said at least one elementary microstructure having a tubular shape with lower and upper opposite longitudinal ends, the lower end being connected to the substrate, said at least one elementary microstructure defining an inner cavity open at its upper end, said microstructured substrate being characterized in that it includes a conformal layer of alumina deposited on its surface, inside and outside the elementary microstructures.
A burnishing device comprising: a burnishing tool having a pressing unit configured to rotationally press a surface of an object to be processed, the surface having a change in height and inclination angle; a tool driving device configured to move the burnishing tool; and a strain sensor (14a, 14b) configured to detect a strain amount of the burnishing tool; characterized in that the burnishing device further comprises a com puter configured to calculate pressing force to be applied by the pressing unit in a normal direction of the surface of the object to be processed, the pressing force being correlated with the magnitude of compressive residual stress formed by burnishing, the calculation being on the basis of the strain amount detected by the strain sensor (14a, 14b), calculate a correction amount of displacement of the tool driving device in a pressing direction, the calculation being on the basis of the calculated pressing force and stored pressing force in advance, and output the correction amount to the tool driving device. a burnishing tool having a pressing unit configured to rotationally press a surface of an object to be processed, the surface having a change in height and inclination angle; a tool driving device configured to move the burnishing tool; and a strain sensor (14a, 14b) configured to detect a strain amount of the burnishing tool; characterized in that the burnishing device further comprises a com puter configured to calculate pressing force to be applied by the pressing unit in a normal direction of the surface of the object to be processed, the pressing force being correlated with the magnitude of compressive residual stress formed by burnishing, the calculation being on the basis of the strain amount detected by the strain sensor (14a, 14b), calculate a correction amount of displacement of the tool driving device in a pressing direction, the calculation being on the basis of the calculated pressing force and stored pressing force in advance, and output the correction amount to the tool driving device. calculate pressing force to be applied by the pressing unit in a normal direction of the surface of the object to be processed, the pressing force being correlated with the magnitude of compressive residual stress formed by burnishing, the calculation being on the basis of the strain amount detected by the strain sensor (14a, 14b), calculate a correction amount of displacement of the tool driving device in a pressing direction, the calculation being on the basis of the calculated pressing force and stored pressing force in advance, and output the correction amount to the tool driving device.
Method for testing the traction lock of a rail vehicle, wherein the traction lock has a first signal path in order to transmit a traction lock request signal to a control unit of the rail vehicle, and a second signal path, wherein a diagnostic device (6, 14, 15, 17, 23, 24) is provided, such that the second signal path can be checked for proper functioning by means of a test request signal generated by the control unit, in that the test request signal is fed via the second signal path on the one hand to a freely programmable circuit and on the other hand by means of a delay element to a drive signal blocking circuit with a time delay, wherein the programmable circuit and the drive signal blocking circuit are arranged in a drive signal path connecting the control unit to a drive unit, and wherein the test is triggered by a signal (4, 4') from the rail vehicle, the signal state of which changes just before the movement release.
A wire electric discharge machining method, a unit machining distance and a desired amount of tilt of a wire electrode having been set in advance, the method comprising: performing machining while continuously tilting the wire electrode alternately right and left within a plane perpendicular to a machining direction, whereby the direction of tilt is changed for each said unit machining distance and the amount of tilt at each said unit machining distance corresponds to said desired amount of tilt; and preventing said tilting in a region ranging from a position which is at a predetermined distance short of a corner of the machining path up to a position which is at the predetermined distance past said corner. performing machining while continuously tilting the wire electrode alternately right and left within a plane perpendicular to a machining direction, whereby the direction of tilt is changed for each said unit machining distance and the amount of tilt at each said unit machining distance corresponds to said desired amount of tilt; and preventing said tilting in a region ranging from a position which is at a predetermined distance short of a corner of the machining path up to a position which is at the predetermined distance past said corner.
A portal trailer for a tugger train consisting of a front, rear and middle trailer section between which there is a receiving area for a dolly to be entrained, wherein the front trailer section is connected to the middle trailer section, and the middle trailer section to the rear trailer section, by a portal-like arch, and wherein the front and/or rear trailer section has additional rollers, characterized in that the middle trailer section has a pair of rollers or wheels and a lifting apparatus by means of which the middle trailer section and, via the arches, the front and rear trailer section can be lifted, wherein the additional rollers lose contact with the ground when the middle trailer section is lifted.
Semiconductor switching arrangement, having - at least two half-bridge modules that each have an AC voltage connection, a negative DC voltage connection and a positive DC voltage connection, wherein each half-bridge module has two opposing longitudinal surfaces which extend substantially parallel to a connection from one of the DC voltage connections (21, 22) to the alternating voltage connection, and two opposing lateral surfaces, of which one is closer to the AC voltage connection and forms an AC voltage surface; - a positive DC voltage busbar, a negative DC voltage busbar and at least one AC voltage busbar, wherein the AC voltage connections are electrically interconnected by means of the AC voltage busbar, wherein at least in the region of the AC voltage connections, the positive DC voltage busbar and the negative DC voltage busbar extend over an area containing the AC voltage busbar, wherein two of the at least two half-bridge modules are arranged adjacently such that the AC voltage surfaces are arranged spatially adjacently in relation to one other, oppose their respective AC voltage surface and the AC voltage connections form the innermost connections, wherein the AC voltage busbar forms a busbar arranged closest to the half-bridge modules and the positive and the negative DC voltage busbar form the busbar which is second closest to or furthest from the half-bridge module as a function of the arrangement of the DC voltage connections (21, 22) of the half-bridge module relative to the AC voltage connections, and wherein the AC voltage busbar and the positive and the negative DC voltage busbar for the connection with the respective connections (23, 22, 21) of the half-bridge module are arranged in a penetration-free manner in relation to one another. - at least two half-bridge modules that each have an AC voltage connection, a negative DC voltage connection and a positive DC voltage connection, wherein each half-bridge module has two opposing longitudinal surfaces which extend substantially parallel to a connection from one of the DC voltage connections (21, 22) to the alternating voltage connection, and two opposing lateral surfaces, of which one is closer to the AC voltage connection and forms an AC voltage surface; - a positive DC voltage busbar, a negative DC voltage busbar and at least one AC voltage busbar,
A cleanout system for removal of metal debris from a fluid flow, the system comprising: at least one magnetic unit configured for positioning in a path of the fluid, said at least one magnetic unit comprising a non-magnetic hollow sleeve and a removable magnetic core configured for positioning in said sleeve, an exterior surface of said sleeve forming a metal debris settling area; and at least one fluid deflector member positioned upstream of said at least one magnetic unit, said fluid deflector member modifying the fluid flow adjacent said at least one magnetic unit to prevent a direct impact of the fluid on said at least one magnetic unit, said at least one fluid deflector member being positioned a distance from said at least one magnetic unit, such that a trap area for metal debris is created between said least one fluid deflector member and said at least one magnetic unit. at least one magnetic unit configured for positioning in a path of the fluid, said at least one magnetic unit comprising a non-magnetic hollow sleeve and a removable magnetic core configured for positioning in said sleeve, an exterior surface of said sleeve forming a metal debris settling area; and at least one fluid deflector member positioned upstream of said at least one magnetic unit, said fluid deflector member modifying the fluid flow adjacent said at least one magnetic unit to prevent a direct impact of the fluid on said at least one magnetic unit, said at least one fluid deflector member being positioned a distance from said at least one magnetic unit, such that a trap area for metal debris is created between said least one fluid deflector member and said at least one magnetic unit.
A vacuum cleaner comprising: a cleaner body; a cover member installed at an upper portion of the cleaner body to be opened and closed and configured to form a part of a front surface and an upper surface of the cleaner body; a suction hose provided at a front surface of the cover member; a hole formed at the front surface of the cover member to be in communication with the suction hose; a base frame (33, 334) configured to divide an internal space of the cleaner body; a main motor provided at one space divided by the base frame (33, 334) and configured to suction the dust and to move air; a frame hole formed at the base frame (33, 334) and through which the air discharged from the main motor is discharged; an outlet hole formed at a rear surface of the cleaner body and being located at a position lower than the hole, wherein air introduced through the hole is discharged to the outlet hole via an inside of the cleaner body, characterised in that the vacuum cleaner further comprises: a filter unit disposed to face the frame hole and to filter the dust in the air discharged by the main motor; and a printed circuit board, PCB, provided inside the cleaner body and cooled by the air passes through the filter unit. a cleaner body; a cover member installed at an upper portion of the cleaner body to be opened and closed and configured to form a part of a front surface and an upper surface of the cleaner body; a suction hose provided at a front surface of the cover member; a hole formed at the front surface of the cover member to be in communication with the suction hose; a base frame (33, 334) configured to divide an internal space of the cleaner body; a main motor provided at one space divided by the base frame (33, 334) and configured to suction the dust and to move air; a frame hole formed at the base frame (33, 334) and through which the air discharged from the main motor is discharged; an outlet hole formed at a rear surface of the cleaner body and being located at a position lower than the hole, wherein air introduced through the hole is discharged to the outlet hole via an inside of the cleaner body, characterised in that the vacuum cleaner further comprises: a filter unit disposed to face the frame hole and to filter the dust in the air discharged by the main motor; and a printed circuit board, PCB, provided inside the cleaner body and cooled by the air passes through the filter unit. a filter unit disposed to face the frame hole and to filter the dust in the air discharged by the main motor; and a printed circuit board, PCB, provided inside the cleaner body and cooled by the air passes through the filter unit.
A system for delivering energy to tissue, comprising: a) a procedure cart comprising a cooling supply, one or more power supplies configured to deliver microwave energy, and a display; b) a procedure device hub connected to said cooling supply and said one or more power supplies; c) one or more energy delivery devices (100, 710, 800, 1400, 1600, 1700, 30000) connected to said procedure device hub; and d) a processor configured to display information on said display and configured to receive information from said one or more energy delivery devices, characterized in that: said cooling supply comprises tanks comprising a coolant selected from the group of compressed gas, compressed gas at or near its critical point, and liquid, wherein tank switching from one tank to another automatically occurs when one tank becomes empty to prevent disruption of coolant flow in a procedure. a) a procedure cart comprising a cooling supply, one or more power supplies configured to deliver microwave energy, and a display; b) a procedure device hub connected to said cooling supply and said one or more power supplies; c) one or more energy delivery devices (100, 710, 800, 1400, 1600, 1700, 30000) connected to said procedure device hub; and d) a processor configured to display information on said display and configured to receive information from said one or more energy delivery devices,