mhurhangee/ep-ind-claims huggingface dataset:
A metal hydride hydrogen storage arrangement suitable for use as a counterweight in a fuel cell utility vehicle, the storage arrangement including: a plurality of metal hydride containers filled with a metal hydride material, the containers being connectable in parallel to a gas manifold, wherein the metal hydride material has a hydrogen equilibrium pressure in excess of 100 kPa at a temperature of between 50 °C and 60 °C; heating and cooling means located between the metal hydride containers; and a filler body formed by the melting and solidification of a metal or an alloy in a space between the metal hydride containers and the heating and cooling means, wherein the filler body adjoins the surfaces of the heating and cooling means and the metal hydride containers to enable heat exchange between the metal hydride containers and the heating and cooling means. a plurality of metal hydride containers filled with a metal hydride material, the containers being connectable in parallel to a gas manifold, wherein the metal hydride material has a hydrogen equilibrium pressure in excess of 100 kPa at a temperature of between 50 °C and 60 °C; heating and cooling means located between the metal hydride containers; and a filler body formed by the melting and solidification of a metal or an alloy in a space between the metal hydride containers and the heating and cooling means, wherein the filler body adjoins the surfaces of the heating and cooling means and the metal hydride containers to enable heat exchange between the metal hydride containers and the heating and cooling means.
A bone plate system for use in stabilizing a fracture of a bone, comprising: a bone supporting metal plate having an upper surface, a bone contacting lower surface, and a plurality of a screw holes (18, 20, 22) extending between the upper and lower surfaces, the plurality of screw holes including, i) a tapered locking screw hole having threads helically arranged about its interior, the locking screw hole having an upper opening with an upper diameter (D U), and a lower opening with a lower diameter (D L), and ii) first and second compression screw holes (20, 22) having an upper opening with a first diameter (D 1), and a lower opening with a second diameter (D 2) smaller than the first diameter in one direction and a third diameter equal to the first diameter in a direction orthogonal to the second diameter, and defining a central axis through the centers of the upper and lower openings, at least one rail extending across a portion of at least one of the compression screw holes to define a screw seat with an angled upper surface, and a vertical wall with a thickness extending in the same dimension as a central axis of the compression screw hole, wherein portions of each of the upper opening of the locking screw hole and the upper openings of the first and second compression screw holes are located within a bounding area bounded by a bounding circle (BA 1, BA 2) no larger than twice the diameter of the upper opening of the locking screw hole such that the locking screw hole and the first and second compression screw holes are arranged in a cluster. i) a tapered locking screw hole having threads helically arranged about its interior, the locking screw hole having an upper opening with an upper diameter (D U), and a lower opening with a lower diameter (D L), and ii) first and second compression screw holes (20, 22) having an upper opening with a first diameter (D 1), and a lower opening with a second diameter (D 2) smaller than the first diameter in one direction and a third diameter equal to the first diameter in a direction orthogonal to the second diameter, and defining a central axis through the centers of the upper and lower openings,
A terminal, wherein the terminal comprises: a configuration information obtaining module, configured to obtain configuration information that is used to determine a transmit power used for transmitting a signal at each coverage enhancement level, wherein, the configuration information comprises a maximum quantity of signal transmitting attempts corresponding to each coverage enhancement level and a quantity of repetition times required for the signal to be transmitted at each coverage enhancement level; and a transmit power determining module, configured to determine, according to the configuration information, a transmit power used for transmitting the signal at a coverage enhancement level currently used by the terminal. a configuration information obtaining module, configured to obtain configuration information that is used to determine a transmit power used for transmitting a signal at each coverage enhancement level, wherein, the configuration information comprises a maximum quantity of signal transmitting attempts corresponding to each coverage enhancement level and a quantity of repetition times required for the signal to be transmitted at each coverage enhancement level; and a transmit power determining module, configured to determine, according to the configuration information, a transmit power used for transmitting the signal at a coverage enhancement level currently used by the terminal.
A system for monitoring the levelness of a multi-wing agricultural implement, the system comprising: a central frame section, and a wing section pivotably coupled to the central frame section, the system being characterized by: a field contour sensor configured to generate data indicative of a contour of an aft portion of a field located rearward of the implement relative to a direction of travel of the implement; and a controller communicatively coupled to the field contour sensor, the controller being configured to monitor the data generated by and received from the field contour sensor and assess at least one of a levelness of the wing section relative to the central frame section or a levelness of at least one of the wing section or the central frame section relative to a reference plane based at least in part on the contour of the aft portion of the field. a central frame section, and a wing section pivotably coupled to the central frame section, the system being characterized by: a field contour sensor configured to generate data indicative of a contour of an aft portion of a field located rearward of the implement relative to a direction of travel of the implement; and a controller communicatively coupled to the field contour sensor, the controller being configured to monitor the data generated by and received from the field contour sensor and assess at least one of a levelness of the wing section relative to the central frame section or a levelness of at least one of the wing section or the central frame section relative to a reference plane based at least in part on the contour of the aft portion of the field. a field contour sensor configured to generate data indicative of a contour of an aft portion of a field located rearward of the implement relative to a direction of travel of the implement; and a controller communicatively coupled to the field contour sensor, the controller being configured to monitor the data generated by and received from the field contour sensor and assess at least one of a levelness of the wing section relative to the central frame section or a levelness of at least one of the wing section or the central frame section relative to a reference plane based at least in part on the contour of the aft portion of the field.
A radar apparatus for detecting a target object around the radar apparatus by transmitting a transmission signal while changing a transmitting direction centering on a position of the radar apparatus, comprising: a determining module (22, 24b, 54, 28) configured to determine a position of a wireless equipment; an angular range setting module configured to set an angular range centering on the position of the radar apparatus to include the position of the wireless equipment determined by the determining module (22, 24b, 54, 28), wherein the angular range is a disturbance bearing range indicating the bearing at which the wireless equipment as the subject of a disturbance area is located; and a transmission signal controlling module configured to change a waveform of the transmission signal to be different between a direction within the angular range and a direction outside the angular range, wherein the transmission signal controlling module changes whether to include a modulated pulse signal in the transmission signal in the direction outside the angular range and to suspend the modulated pulse signal in the direction within the angular range, characterised in that in the direction within the disturbance bearing range, a non-modulated pulse signal having a shorter pulse width than the modulated pulse signal is transmitted as the transmission signal, and wherein in the direction outside the disturbance bearing range, the non-modulated pulse signal and the modulated pulse signal are transmitted as the transmission signal. a determining module (22, 24b, 54, 28) configured to determine a position of a wireless equipment; an angular range setting module configured to set an angular range centering on the position of the radar apparatus to include the position of the wireless equipment determined by the determining module (22, 24b, 54, 28), wherein the angular range is a disturbance bearing range indicating the bearing at which the wireless equipment as the subject of a disturbance area is located; and a transmission signal controlling module configured to change a waveform of the transmission signal to be different between a direction within the angular range and a direction outside the angular range, wherein the transmission signal controlling module changes whether to include a modulated pulse signal in the transmission signal in the direction outside the angular range and to suspend the modulated pulse signal in the direction within the angular range, characterised in that in the direction within the disturbance bearing range, a non-modulated pulse signal having a shorter pulse width than the modulated pulse signal is transmitted as the transmission signal, and wherein in the direction outside the disturbance bearing range, the non-modulated pulse signal and the modulated pulse signal are transmitted as the transmission signal.
A method for preparing a terminal-modified conjugated diene polymer, the method comprising: polymerizing a conjugated diene compound by using a polymerization catalyst composition and modifying a polymer obtained via the polymerization by using a modifier, wherein the polymerization catalyst composition contains a rare earth element compound, and a coordination compound having a cyclopentadiene skeleton selected from substituted or unsubstituted cyclopentadienes, substituted or unsubstituted indenes, and substituted or unsubstituted fluorenes, and wherein the polymerization and modification is performed in a one-pot way, and wherein the rare-earth element compound is represented by general formula (a-1): M-(NQ 1)(NQ 2)(NQ 3)... (a-1) in the formula, M is scandium, yttrium or lanthanides; 1, 2 and 3 are the same or different functional groups having at least one M-N bonds, where N is nitrogen; and wherein the modifier is at least one selected from the following compounds (i) and (j): (i) a compound having a N=C- bond; (j) a compound having a phosphate residue represented by general formula: in general formula, R 1 and R 2 independently represent a monovalent hydrocarbon group selected from straight or branched chain C1 to C20 alkyl groups, monovalent C3 to C20 alicyclic hydrocarbon groups and monovalent C6 to C20 aromatic hydrocarbon groups, or a hydrogen atom, wherein the polymerization catalyst composition further contains a compound represented by general formula: YR 31 a R 32 b R 33 c... in the formula, Y is a metallic element selected from Group 1, Group 2, Group 12 and Group 13 of the Periodic Table, R 31 and R 32 are C1 to C10 hydrocarbon groups or hydrogen atom, R 33 is a C1 to C10 hydrocarbon group, where R 31, R 32 and R 33 may be the same or different from each other; in addition, in the case that Y is a metallic element selected from Group 1 of the Periodic Table, a = 1 and b, c = 0; in the case that Y is a metallic element selected from Group 2 and Group 12 of the Periodic Table, a, b = 1 and c = 0; and in the case that Y is a metallic element selected from Group 13 of the Periodic Table, a, b, c = 1, and wherein the polymerization catalyst composition further contains an aluminoxane composition and a halogen compound. (i) a compound having a N=C- bond; (j) a compound having a phosphate residue represented by general formula: in general formula, R 1 and R 2 independently represent a monovalent hydrocarbon group selected from straight or branched chain C1 to C20 alkyl groups, monovalent C3 to C20 alicyclic hydrocarbon groups and monovalent C6 to C20 aromatic hydrocarbon groups, or a hydrogen atom,
A shaft sealing arrangement, in particular for vacuum dissolvers, comprising: - a low-pressure container, - a shaft which comprises an end section extending into the low-pressure container and a drive section located outside the low-pressure container, which drive section is provided for connection to a rotary drive, characterised in that the shaft sealing arrangement comprises: - a first shaft seal on the drive-section side and a second shaft seal on the low-pressure container side, which bound between them a sealing chamber, - an air supply line with an internal diameter (d 1) and a length (l 1), which is provided for connection to a compressed air source with an essentially constant excess pressure and which ends in the sealing chamber, - an air discharge line with an internal diameter (d 2) and a length (l 2), which connects the sealing chamber to the low-pressure container, wherein the internal diameter (d 1) and the length (l 1) of the air supply line are dimensioned such that, in the presence of atmospheric pressure in the low-pressure container, the essentially constant excess pressure of the compressed air source is reduced to a slight excess pressure at the end of the air supply line on the sealing-chamber side, and wherein the internal diameter (d 2) and the length (l 2) of the air discharge line are dimensioned such that, in the presence of a low pressure in the low-pressure container, the pressure in the sealing chamber always lies between the low pressure and atmospheric pressure. - a low-pressure container, - a shaft which comprises an end section extending into the low-pressure container and a drive section located outside the low-pressure container, which drive section is provided for connection to a rotary drive, - a first shaft seal on the drive-section side and a second shaft seal on the low-pressure container side, which bound between them a sealing chamber, - an air supply line with an internal diameter (d 1) and a length (l 1), which is provided for connection to a compressed air source with an essentially constant excess pressure and which ends in the sealing chamber, - an air discharge line with an internal diameter (d 2) and a length (l 2), which connects the sealing chamber to the low-pressure container, wherein the internal diameter (d 1) and the length (l 1) of the air supply line are dimensioned such that, in the presence of atmospheric pressure in the low-pressure container, the essentially constant excess pressure of the compressed air source is reduced to a slight excess pressure at the end of the air supply line on the sealing-chamber side, and wherein the internal diameter (d 2) and the length (l 2) of the air discharge line are dimensioned such that, in the presence of a low pressure in the low-pressure container, the pressure in the sealing chamber always lies between the low pressure and atmospheric pressure.
An electric discharge machining die sinking device comprising: a tank for holding a fluid; a first electrode in the tank, the first electrode having a shape for imparting to a first portion of a workpiece; a second electrode in the tank, the second electrode having a second shape for imparting to a second portion of the workpiece; a workpiece holder arranged to support the workpiece at least partially immersed in the fluid in the tank, the workpiece holder being configured to be moved under control of a workpiece holder controller, a workpiece holder controller configured to alternately move the workpiece holder between a first operable position at which the first portion of the workpiece is positioned for application to the first electrode, an inoperable position and a second operable position at which the second portion of the workpiece is positioned for application to the second electrode and continue this alternating movement until both portions (122,162) reach the dimensional destination mandated by the shapes (120,160) and stopping the movement at this point, and a pulse generator configured to create an electric discharge between the first portion of the workpiece and the first electrode to cause electric discharge machining of the first portion, in response to the workpiece being in the first operable position, and between the second portion of the workpiece and the second electrode to cause electric discharge machining of the second portion, in response to the workpiece being in the second operable position. a tank for holding a fluid; a first electrode in the tank, the first electrode having a shape for imparting to a first portion of a workpiece; a second electrode in the tank, the second electrode having a second shape for imparting to a second portion of the workpiece; a workpiece holder arranged to support the workpiece at least partially immersed in the fluid in the tank, the workpiece holder being configured to be moved under control of a workpiece holder controller, a workpiece holder controller configured to alternately move the workpiece holder between a first operable position at which the first portion of the workpiece is positioned for application to the first electrode, an inoperable position and a second operable position at which the second portion of the workpiece is positioned for application to the second electrode and continue this alternating movement until both portions (122,162) reach the dimensional destination mandated by the shapes (120,160) and stopping the movement at this point, and a pulse generator configured to create an electric discharge between the first portion of the workpiece and the first electrode to cause electric discharge machining of the first portion, in response to the workpiece being in the first operable position, and between the second portion of the workpiece and the second electrode to cause electric discharge machining of the second portion, in response to the workpiece being in the second operable position.
A cartridge system, comprising: a case having a forward end and a base end; a projectile attached to the forward end of the case; and a data link attached to a surface of the case and electrically connected to the projectile, comprising: a first connection point disposed on the surface of the case proximate the base end of the case; a second connection point disposed on the surface of the case proximate the forward end of the case and electrically coupled to the projectile; and an electrical connector disposed on the inner surface of the case and connected to the first connection point and the second connection point, characterized in that at least the second connection point comprises an at least partially annular electrical conductor disposed on the inner surface of the case. a case having a forward end and a base end; a projectile attached to the forward end of the case; and a data link attached to a surface of the case and electrically connected to the projectile, comprising: a first connection point disposed on the surface of the case proximate the base end of the case; a second connection point disposed on the surface of the case proximate the forward end of the case and electrically coupled to the projectile; and an electrical connector disposed on the inner surface of the case and connected to the first connection point and the second connection point, characterized in that at least the second connection point comprises an at least partially annular electrical conductor disposed on the inner surface of the case. a first connection point disposed on the surface of the case proximate the base end of the case; a second connection point disposed on the surface of the case proximate the forward end of the case and electrically coupled to the projectile; and an electrical connector disposed on the inner surface of the case and connected to the first connection point and the second connection point, characterized in that at least the second connection point comprises an at least partially annular electrical conductor disposed on the inner surface of the case.
Welding device with a chassis, which bears running rollers, on which the welding device can be moved along, wherein the welding device is made up of a number of components (34, 52, 56, 78), which in an operating configuration of the welding device define and delimit at least in certain regions a working area and are movably mounted in such a way that the components (34, 52, 56, 78) are in each case adjustable between a transporting position and an operating position, characterized in that the movable components (34, 52, 56, 78) comprise a protective plate, which can be lowered into a transporting position and can be raised into an operating position, in which it partially surrounds a welding area.