mhurhangee/ep-ind-claims huggingface dataset:
A linear actuator (100, 200) comprising: a coil that is movably provided; a magnetic body (50, 250) that is provided to move integrally with the coil; a first yoke (11, 211) that extends outside of the coil; a second yoke (12, 212) that is surrounded by the coil, extends, and is opposed to the first yoke (11, 211); and a magnet that forms a magnetic field between the first yoke (11, 211) and the second yoke (12, 212), wherein the magnetic body (50, 250) that has a first leg portion (51, 261, 271) and a second leg portion (52, 262, 272) extending along an axis of the coil, respectively, and has a bottom portion (53, 263, 273) connecting the first leg portion (51, 261, 271) and the second leg portion (52, 262, 272), and the first leg portion (51, 261, 271) extends from the bottom portion (53, 263, 273) through an inside of the coil in an axis direction of the coil and the second leg portion (52, 262, 272) extends in the axis direction of the coil passing from the bottom portion (53, 263, 273) through an outside of the coil, and the first yoke (11, 211) and the second yoke (12, 212) respectively have a first support portion (14, 214) and a second support portion (15, 215), the first support portion (14, 214) and the second support portion (15, 215) supporting each end portion of the first leg portion (51, 261, 271) and the second leg portion (52, 262, 272) of the magnetic body (50, 250) in a stop state, wherein the first support portion (14, 214) and the second support portion (15, 215) have magnetic polarities opposite to each other. a coil that is movably provided; a magnetic body (50, 250) that is provided to move integrally with the coil; a first yoke (11, 211) that extends outside of the coil; a second yoke (12, 212) that is surrounded by the coil, extends, and is opposed to the first yoke (11, 211); and a magnet that forms a magnetic field between the first yoke (11, 211) and the second yoke (12, 212), wherein the magnetic body (50, 250) that has a first leg portion (51, 261, 271) and a second leg portion (52, 262, 272) extending along an axis of the coil, respectively, and has a bottom portion (53, 263, 273) connecting the first leg portion (51, 261, 271) and the second leg portion (52, 262, 272), and the first leg portion (51, 261, 271) extends from the bottom portion (53, 263, 273) through an inside of the coil in an axis direction of the coil and the second leg portion (52, 262, 272) extends in the axis direction of the coil passing from the bottom portion (53, 263, 273) through an outside of the coil, and the first yoke (11, 211) and the second yoke (12, 212) respectively have a first support portion (14, 214) and a second support portion (15, 215), the first support portion (14, 214) and the second support portion (15, 215) supporting each end portion of the first leg portion (51, 261, 271) and the second leg portion (52, 262, 272) of the magnetic body (50, 250) in a stop state, wherein the first support portion (14, 214) and the second support portion (15, 215) have magnetic polarities opposite to each other.
A suture securing assembly, comprising: an inserter, the inserter comprising: an outer shaft having a proximal end, a distal end, and a longitudinal cannulation extending between the proximal and distal ends; and an inner shaft disposed within the cannulation such that a portion of the inner shaft extends from the distal end of the outer shaft, the inner shaft axially moveable relative to the outer shaft; and an anchor, the anchor comprising: a cannulated proximal body disposed on the inner shaft of the inserter near the distal end of the outer shaft; a distal body disposed on the inner shaft near a distal end of the inner shaft, the distal body having a transverse through hole for passage of a suture; wherein the distal body is moveable by the inner shaft in a proximal direction relative to the proximal body; and characterized in that the proximal body is prevented by a portion of the inserter from moving in a distal direction relative to the distal body. an inserter, the inserter comprising: an outer shaft having a proximal end, a distal end, and a longitudinal cannulation extending between the proximal and distal ends; and an inner shaft disposed within the cannulation such that a portion of the inner shaft extends from the distal end of the outer shaft, the inner shaft axially moveable relative to the outer shaft; and an outer shaft having a proximal end, a distal end, and a longitudinal cannulation extending between the proximal and distal ends; and an inner shaft disposed within the cannulation such that a portion of the inner shaft extends from the distal end of the outer shaft, the inner shaft axially moveable relative to the outer shaft; and an anchor, the anchor comprising: a cannulated proximal body disposed on the inner shaft of the inserter near the distal end of the outer shaft; a distal body disposed on the inner shaft near a distal end of the inner shaft, the distal body having a transverse through hole for passage of a suture; a cannulated proximal body disposed on the inner shaft of the inserter near the distal end of the outer shaft; a distal body disposed on the inner shaft near a distal end of the inner shaft, the distal body having a transverse through hole for passage of a suture; wherein the distal body is moveable by the inner shaft in a proximal direction relative to the proximal body; and characterized in that the proximal body is prevented by a portion of the inserter from moving in a distal direction relative to the distal body.
A pane module adapted to be installed in a window frame (65, 651, 75, 85, 97, 107) and comprising a pane element (1, 111) and a border element (2, 32, 54, 66, 661, 71, 81, 91, 101), wherein the pane element includes at least two sheet elements (31, 35, 51, 53, 61, 63, 72, 74, 82, 84, 92, 94, 102, 104), such as sheets of glass, separated by one or more spacer members (34, 52, 62, 73, 83, 93, 103, 112), wherein the border element is made by moulding, wherein the border element surrounds the pane element, at least partially encasing the edge of at least one sheet element, and where the pane module further comprises a pre-stressed member (33, 55, 64, 641, 76, 86, 96, 99, 106, 108), characterized in that the pre-stressed element is adapted for counteracting compressive stresses on the pane element (1, 111), that the pre-stressed member is embedded in the border element (2, 32, 54, 66, 661, 71, 81, 91, 101), and that the pre-stressed member is a tensioned cable (99, 108) and/or a fitting (33, 55, 64, 641, 76, 86, 96, 106).
A data compression device comprising: a receiving unit configured to receive pieces of time series data each containing a data value and a time, at which the data value is obtained; a generating unit configured to generate a plurality of starting point candidates each having an error within a predetermined threshold value with respect to starting point data, the starting point data being the time series data at a first time; a selecting unit configured to refer to the starting point candidates, end point data which is the time series data at a second time, and intermediate data which is the time series data following the starting point data between the first time and the second time, to select, from among the starting point candidates, a starting point candidate for which, as compared to remaining starting point candidates, a greater number of pieces of the intermediate data lays between a first segment and a second segment, the first segment connecting the starting point candidate and an upper limit point of the error with respect to the end point data, the second segment connecting the starting point candidate and a lower limit point of the error with respect to the end point data, and to determine that the greater number of pieces of the intermediate data are to be thinned, and a compressing unit configured to output the selected starting point candidate and the end point data as output data. a receiving unit configured to receive pieces of time series data each containing a data value and a time, at which the data value is obtained; a generating unit configured to generate a plurality of starting point candidates each having an error within a predetermined threshold value with respect to starting point data, the starting point data being the time series data at a first time; a selecting unit configured to refer to the starting point candidates, end point data which is the time series data at a second time, and intermediate data which is the time series data following the starting point data between the first time and the second time, to select, from among the starting point candidates, a starting point candidate for which, as compared to remaining starting point candidates, a greater number of pieces of the intermediate data lays between a first segment and a second segment, the first segment connecting the starting point candidate and an upper limit point of the error with respect to the end point data, the second segment connecting the starting point candidate and a lower limit point of the error with respect to the end point data, and to determine that the greater number of pieces of the intermediate data are to be thinned, and a compressing unit configured to output the selected starting point candidate and the end point data as output data.
A manifold for a filling unit for filling a plurality of articles with a pourable product, comprising: - a first flange, which can be fixed to a tube for filling a tank with a pourable product; - a second flange, which can rotate about an axis with respect to said first flange, can be fixed to said tank, and defines a passage (23; 24) for a first fluid other than said pourable product and adapted to be conveyed, in use, inside said tank; - a fluidic line, which is bounded between said first flange and said second flange and is adapted to be filled with a barrier second fluid in order to prevent contaminant agents from reaching said passage (23; 24); and - a sealing element, which is interposed between said first flange and second flange; characterized in that said manifold further comprises: - at least one piston which is movable parallel to said axis and is operatively connected to said sealing element; and - a pneumatic circuit, which is operable to exert a pressure on a third fluid acting, in use, on said piston, so as to press said piston against said sealing element along said axis. - a first flange, which can be fixed to a tube for filling a tank with a pourable product; - a second flange, which can rotate about an axis with respect to said first flange, can be fixed to said tank, and defines a passage (23; 24) for a first fluid other than said pourable product and adapted to be conveyed, in use, inside said tank; - a fluidic line, which is bounded between said first flange and said second flange and is adapted to be filled with a barrier second fluid in order to prevent contaminant agents from reaching said passage (23; 24); and - a sealing element, which is interposed between said first flange and second flange; - at least one piston which is movable parallel to said axis and is operatively connected to said sealing element; and - a pneumatic circuit, which is operable to exert a pressure on a third fluid acting, in use, on said piston, so as to press said piston against said sealing element along said axis.
A load control system for controlling at least one electrical load, said load control system comprising one or more independent units (102a-d) and a broadcast controller, the broadcast controller being configured to communicate with one or more of the independent units, each of the one or more independent units including at least one commander and at least one energy controller (105, 106, 107), the at least one energy controller operable to control the at least one electrical load in response to a control signal received from the at least one commander, the broadcast controller comprising: a first antenna configured to transmit a first command signal to the at least one energy controller (105, 106, 107); and a second antenna configured to transmit a second command signal to the at least one energy controller (105, 106, 107); wherein the broadcast controller is configured to: assign the first command signal a designated transmission slot of the first antenna; and assign the second command signal a designated transmission slot of the second antenna; wherein the designated transmission slot of the first antenna corresponds to a first time slot and the designated transmission slot the second antenna corresponds to a second time slot, wherein the first and second time slots are not overlapping, and wherein the command of the first command signal and the command of the second command signal comprise the same command; the at least one energy controller being configured to receive at least one of the first command signal and the second command signal from the at least one commander, and to control the at least one electrical load in response to the command. a first antenna configured to transmit a first command signal to the at least one energy controller (105, 106, 107); and a second antenna configured to transmit a second command signal to the at least one energy controller (105, 106, 107); wherein the broadcast controller is configured to: assign the first command signal a designated transmission slot of the first antenna; and assign the second command signal a designated transmission slot of the second antenna; assign the first command signal a designated transmission slot of the first antenna; and assign the second command signal a designated transmission slot of the second antenna; wherein the designated transmission slot of the first antenna corresponds to a first time slot and the designated transmission slot the second antenna corresponds to a second time slot, wherein the first and second time slots are not overlapping, and wherein the command of the first command signal and the command of the second command signal comprise the same command; the at least one energy controller being configured to receive at least one of the first command signal and the second command signal from the at least one commander, and to control the at least one electrical load in response to the command.
Antenna arrangement comprising: - a first transparent dielectric panel; - a second transparent dielectric panel in front of the first transparent dielectric panel and separated by at least one panel interlayer from the first transparent dielectric panel; - a patch network attached and separated by at least one patch interlayer (Ip) from the first transparent dielectric panel; - a feeding network attached and separated by at least one feed interlayer (If) from the second transparent dielectric panel defining a distance Dpf between the patch network and the feeding network; - a ground plane; wherein the at least one patch interlayer is a transparent polymer interlayer; characterised in that the ground plane is located between the feeding network and the second transparent dielectric panel - a first transparent dielectric panel; - a second transparent dielectric panel in front of the first transparent dielectric panel and separated by at least one panel interlayer from the first transparent dielectric panel; - a patch network attached and separated by at least one patch interlayer (Ip) from the first transparent dielectric panel; - a feeding network attached and separated by at least one feed interlayer (If) from the second transparent dielectric panel defining a distance Dpf between the patch network and the feeding network; - a ground plane;
A special hot-dip plating alloy for a coating on the surface of a titanium alloy part, wherein the hot-dip plating alloy consists of the following components by mass percentage: 8-24 % of Si, 1.2-3.1 % of Zn, 0.02-0.5 % of RE, 0.5-3.2 % of Mg, 0.05-1 % of Fe, 0.05-0.5 % of Cu, 1.0-2.0 % of Mn, 0.5-2.0 % of Cr, 0.02-0.5 % of Zr, 1-2 % of a nano-oxide particle reinforcing agent and the balance of A1 and inevitable impurities, and the nano-oxide particle reinforcing agent is selected from one or two of TiO 2 and CeO 2.
A method of operating a multi-engine aircraft having two or more gas turbine engines, the method comprising: in flight, operating a first engine of the gas turbine engines in a powered mode to provide motive power to the aircraft; in flight, operating a second engine of the gas turbine engines in either a powered mode to provide motive power to the aircraft or in a standby mode to provide substantially no motive power to the aircraft; when operating the second engine in the powered mode, bleeding pressurized air from a first bleed location of a compressor section of the second engine; when operating the second engine in the standby mode, bleeding pressurized air from a second bleed location of the compressor section of the second engine and supplying the pressurized air to a bleed air system of the second engine, the second bleed location of the compressor section being downstream of the first bleed location relative to main gas flow through the compressor section of the second engine; characterised by further comprising: operating a switching valve of an air switching system of the second engine, the switching valve operable to fluidly interconnect an inlet of the bleed air system with the first bleed location or the second bleed location; and maintaining the pressurized air from the bleed air system within the second engine during the standby mode and the powered mode and J Z using the pressurized air from the bleed air system of the second engine to pressurize seals and/or cool one or more components of the second engine. in flight, operating a first engine of the gas turbine engines in a powered mode to provide motive power to the aircraft; in flight, operating a second engine of the gas turbine engines in either a powered mode to provide motive power to the aircraft or in a standby mode to provide substantially no motive power to the aircraft; when operating the second engine in the powered mode, bleeding pressurized air from a first bleed location of a compressor section of the second engine; when operating the second engine in the standby mode, bleeding pressurized air from a second bleed location of the compressor section of the second engine and supplying the pressurized air to a bleed air system of the second engine, the second bleed location of the compressor section being downstream of the first bleed location relative to main gas flow through the compressor section of the second engine; operating a switching valve of an air switching system of the second engine, the switching valve operable to fluidly interconnect an inlet of the bleed air system with the first bleed location or the second bleed location; and maintaining the pressurized air from the bleed air system within the second engine during the standby mode and the powered mode and J Z using the pressurized air from the bleed air system of the second engine to pressurize seals and/or cool one or more components of the second engine.
A method of controlling use of a media file in a file sharing system, the method comprising: in a client (104,106) of the file sharing system, computing a content fingerprint of media data, wherein the content fingerprint is derived from the media data; using sending the content fingerprint to look up a related metadata information in a database; receiving the related information from the database; and performing an action associated with the related information managing use of the media data in the file sharing system based on the related information, wherein managing use comprises determining from the related information whether the media data is allowed to be shared through the file sharing system. in a client (104,106) of the file sharing system, computing a content fingerprint of media data, wherein the content fingerprint is derived from the media data; using sending the content fingerprint to look up a related metadata information in a database; receiving the related information from the database; and performing an action associated with the related information managing use of the media data in the file sharing system based on the related information, wherein managing use comprises determining from the related information whether the media data is allowed to be shared through the file sharing system.
Roofing system, - having a roofing and a roof unit, - wherein the roof unit comprises a roof element and a sealing device, - wherein the roof element has a housing and a cover arranged laterally on the housing, - wherein the sealing device is arranged in a manner adjoining the roof element, - wherein the sealing device is arranged at least in part beneath the cover, - wherein the sealing device has a flexible tube and a filling device, - wherein the filling device is configured to fill a medium into the tube for changing a cross section of the tube, - wherein the tube is configured to reduce a gap between the roof element and the roofing, - wherein the sealing device is arranged so as to overlap the roofing at least in certain portions, characterized in that - the sealing device comprises a sealing layer, - wherein the sealing layer can be arranged on the roofing, - wherein the tube is arranged between the sealing layer and a cover of the roof element, - wherein the medium is configured to press the tube at least in certain portions into the sealing layer, - wherein the tube has an integral connection with the sealing layer. - having a roofing and a roof unit, - wherein the roof unit comprises a roof element and a sealing device, - wherein the roof element has a housing and a cover arranged laterally on the housing, - wherein the sealing device is arranged in a manner adjoining the roof element, - wherein the sealing device is arranged at least in part beneath the cover, - wherein the sealing device has a flexible tube and a filling device, - wherein the filling device is configured to fill a medium into the tube for changing a cross section of the tube, - wherein the tube is configured to reduce a gap between the roof element and the roofing, - wherein the sealing device is arranged so as to overlap the roofing at least in certain portions, - the sealing device comprises a sealing layer, - wherein the sealing layer can be arranged on the roofing, - wherein the tube is arranged between the sealing layer and a cover of the roof element, - wherein the medium is configured to press the tube at least in certain portions into the sealing layer, - wherein the tube has an integral connection with the sealing layer.