mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas control valve which comprises: a valve seat provided in a fluid passage; and a valve member supported to a free end of a support arm, of which valve member one end is supported to a rotary shaft so as to be rotatable about a shaft center of the rotary shaft in a direction moving away from the valve seat, wherein the valve seat includes a side surface having a predetermined depth and a bottom surface continuous to the side surface, wherein the valve member includes a bottom portion and a side end surface formed above the bottom portion, and characterized in that the valve member is configured so that until when a lower edge of the side end surface of the valve member is located above a top surface of the valve seat, a passage area of a gap formed between the side end surface of the valve member and the side surface of the valve seat is smaller than a contact passage area formed between the bottom portion of the valve member and the bottom surface of the valve seat during a time when the bottom portion of the valve member comes into contact with the bottom surface of the valve seat, and that the passage area of the valve member is arranged to gently vary with respect to the opening degree variation of the valve member. a valve seat provided in a fluid passage; and a valve member supported to a free end of a support arm, of which valve member one end is supported to a rotary shaft so as to be rotatable about a shaft center of the rotary shaft in a direction moving away from the valve seat, wherein the valve seat includes a side surface having a predetermined depth and a bottom surface continuous to the side surface, wherein the valve member includes a bottom portion and a side end surface formed above the bottom portion, and characterized in that the valve member is configured so that until when a lower edge of the side end surface of the valve member is located above a top surface of the valve seat, a passage area of a gap formed between the side end surface of the valve member and the side surface of the valve seat is smaller than a contact passage area formed between the bottom portion of the valve member and the bottom surface of the valve seat during a time when the bottom portion of the valve member comes into contact with the bottom surface of the valve seat, and that the passage area of the valve member is arranged to gently vary with respect to the opening degree variation of the valve member.
A tissue treatment system, comprising: a thermal probe including a catheter defining an elongate lumen and having a distal tip; at least one main delivery line positioned through or along the elongate lumen; at least one delivery line (282, 284) extending along the at least one main delivery line and in fluid communication with the distal portion of the at least one main delivery line; an inflatable liner into which the probe is positionable; an insulating sheath translatable over the catheter, wherein distal or proximal translation of the sheath selectively adjusts an expanded length of the inflatable liner; and a reservoir having an ablative agent in fluid communication with the at least one main delivery line; characterized in that: the at least one delivery line defines one or more openings therealong; introduction of the ablative fluid within the at least one delivery line passes the ablative agent through the unobstructed one or more openings and into contact against an interior surface of the inflatable liner; and the tissue treatment system further comprises a mandrel slidingly fitted within the at least one delivery line or a second sheath placed over the at least one delivery line, wherein the mandrel or second sheath is actuated to follow along with the translation of the sheath to control a number of the one or more openings which remain unobstructed. a thermal probe including a catheter defining an elongate lumen and having a distal tip; at least one main delivery line positioned through or along the elongate lumen; at least one delivery line (282, 284) extending along the at least one main delivery line and in fluid communication with the distal portion of the at least one main delivery line; an inflatable liner into which the probe is positionable; an insulating sheath translatable over the catheter, wherein distal or proximal translation of the sheath selectively adjusts an expanded length of the inflatable liner; and a reservoir having an ablative agent in fluid communication with the at least one main delivery line; characterized in that: the at least one delivery line defines one or more openings therealong; introduction of the ablative fluid within the at least one delivery line passes the ablative agent through the unobstructed one or more openings and into contact against an interior surface of the inflatable liner; and the tissue treatment system further comprises a mandrel slidingly fitted within the at least one delivery line or a second sheath placed over the at least one delivery line, wherein the mandrel or second sheath is actuated to follow along with the translation of the sheath to control a number of the one or more openings which remain unobstructed.
Arrangement for hinging on an axle in a turnable manner the blade of a fire damper to the fire damper, wherein the fire damper has a casing inside which the blade is hinged on an axle in a manner allowing it to be turned, characterized in that two holes are made opposite each other in the casing, and in that recesses are made in the corresponding points in the edges of the blade, and in that two rivet nuts functioning as axles are installed each from their own side through the hole of the casing into the recess of the blade and riveted onto the casing.
An organic light-emitting display device comprising: a substrate comprising a plurality of sub-pixels, each of the sub-pixels having an emission area and a non-emission area provided to surround the emission area; an auxiliary line (130, 230, 330) in the non-emission area, a first insulating film (140, 240, 340) having a first hole (140e, 240e, 340e, 440e, 540e) configured to expose a portion of the auxiliary line (130, 230, 330); an auxiliary line connection pattern (160, 260, 360, 460, 560) on the first insulating film (140, 240, 340) having a protruding portion protruding towards a center of the first hole (140e, 240e, 340e, 440e, 540e) and overlapping the auxiliary line (130, 230, 330); a bank (170, 270, 370) having a second hole (170e, 270e, 370e, 470e, 570e) larger than the first hole (140e, 240e, 340e, 440e, 540e) to expose the protruding portion of the auxiliary line connection pattern (160, 260, 360, 460, 560); at least one bump (140a, 240a, 340a, 440a, 450a, 550a, 550b) on the auxiliary line (130, 230, 330) within the first hole (140e, 240e, 340e, 440e, 540e) and adjacent to the protruding portion of the auxiliary line connection pattern (160, 260, 360, 460, 560), characterised by further comprising an organic film on an upper surface of the at least one bump (140a, 240a, 340a, 440a, 450a, 550a, 550b). a substrate comprising a plurality of sub-pixels, each of the sub-pixels having an emission area and a non-emission area provided to surround the emission area; an auxiliary line (130, 230, 330) in the non-emission area, a first insulating film (140, 240, 340) having a first hole (140e, 240e, 340e, 440e, 540e) configured to expose a portion of the auxiliary line (130, 230, 330); an auxiliary line connection pattern (160, 260, 360, 460, 560) on the first insulating film (140, 240, 340) having a protruding portion protruding towards a center of the first hole (140e, 240e, 340e, 440e, 540e) and overlapping the auxiliary line (130, 230, 330); a bank (170, 270, 370) having a second hole (170e, 270e, 370e, 470e, 570e) larger than the first hole (140e, 240e, 340e, 440e, 540e) to expose the protruding portion of the auxiliary line connection pattern (160, 260, 360, 460, 560); at least one bump (140a, 240a, 340a, 440a, 450a, 550a, 550b) on the auxiliary line (130, 230, 330) within the first hole (140e, 240e, 340e, 440e, 540e) and adjacent to the protruding portion of the auxiliary line connection pattern (160, 260, 360, 460, 560), characterised by further comprising an organic film on an upper surface of the at least one bump (140a, 240a, 340a, 440a, 450a, 550a, 550b).
A method for a communication network, the method comprising: comparing, by a network node, a sensing threshold to information in a communication associated with a network device of the communication network, the information regarding at least an interference measurement; determining, by the network node, based on the comparing, whether or not collisions occurred in the communication; and based on the determining, the network node either updating an outer-loop link adaptation offset of the communication or not updating the outer-loop link adaptation offset of the communication, wherein the outer loop link adaptation offset is used to shift an estimated signal to interference noise value. comparing, by a network node, a sensing threshold to information in a communication associated with a network device of the communication network, the information regarding at least an interference measurement; determining, by the network node, based on the comparing, whether or not collisions occurred in the communication; and based on the determining, the network node either updating an outer-loop link adaptation offset of the communication or not updating the outer-loop link adaptation offset of the communication, wherein the outer loop link adaptation offset is used to shift an estimated signal to interference noise value.
A system for building a three dimensional object comprising: a powder delivery station for applying a layer of powder material on a building tray, wherein the powder material is a metal and/or a ceramic; a digital printing station for printing a mask pattern on the layer, wherein the mask pattern defines a negative of a portion of the layer to be sintered; a sintering station for selectively sintering the portion of the layer that is defined by the mask to be sintered; and a stage for repeatedly advancing the building tray to each of the powder delivery station, digital printing station and sintering station to build a plurality of layers that together form the three dimensional object; CHARACTERIZED IN THAT: the sintering station includes a high thermal mass roller for sintering the layer, wherein the high thermal mass roller is heated to 0° - 80° C above the melting temperature of the powder material, and wherein the high thermal mass roller applies a pressure in the order of magnitude of 20-180 N/cm of roller length. a powder delivery station for applying a layer of powder material on a building tray, wherein the powder material is a metal and/or a ceramic; a digital printing station for printing a mask pattern on the layer, wherein the mask pattern defines a negative of a portion of the layer to be sintered; a sintering station for selectively sintering the portion of the layer that is defined by the mask to be sintered; and a stage for repeatedly advancing the building tray to each of the powder delivery station, digital printing station and sintering station to build a plurality of layers that together form the three dimensional object; CHARACTERIZED IN THAT: the sintering station includes a high thermal mass roller for sintering the layer, wherein the high thermal mass roller is heated to 0° - 80° C above the melting temperature of the powder material, and wherein the high thermal mass roller applies a pressure in the order of magnitude of 20-180 N/cm of roller length. the sintering station includes a high thermal mass roller for sintering the layer, wherein the high thermal mass roller is heated to 0° - 80° C above the melting temperature of the powder material, and wherein the high thermal mass roller applies a pressure in the order of magnitude of 20-180 N/cm of roller length.
A method of modulating a signal, the method comprising the steps of: determining a predefined time period during which a portion of the signal is able to be encoded, the time period having a plurality of time intervals; and encoding the signal, the encoding providing at least one modulation symbol associated with the time period, wherein each modulation symbol comprises an amplitude and/or phase change in a particular time interval and each modulation symbol represents a particular sequence of bits of data, wherein all amplitude and/or phase changes corresponding to modulation symbols in a data sequence of the encoded signal that comprise an amplitude change or a phase change in a first time interval of the time period are suppressed except when there are two or more sequential modulation symbols in the data sequence of the encoded signal that comprise an amplitude and/or phase change in the first time interval, in which case only an amplitude and/or phase change corresponding to a first modulation symbol of the two or more sequential modulation symbols is suppressed. determining a predefined time period during which a portion of the signal is able to be encoded, the time period having a plurality of time intervals; and encoding the signal, the encoding providing at least one modulation symbol associated with the time period, wherein each modulation symbol comprises an amplitude and/or phase change in a particular time interval and each modulation symbol represents a particular sequence of bits of data, wherein all amplitude and/or phase changes corresponding to modulation symbols in a data sequence of the encoded signal that comprise an amplitude change or a phase change in a first time interval of the time period are suppressed except when there are two or more sequential modulation symbols in the data sequence of the encoded signal that comprise an amplitude and/or phase change in the first time interval, in which case only an amplitude and/or phase change corresponding to a first modulation symbol of the two or more sequential modulation symbols is suppressed.
A method of pre-rendering a page, comprising: acquiring a static resource of a page to be processed; acquiring a hypertext markup language structure information compiled of the page; and generating a static hypertext markup language file of the page by using a native server-side rendering function of a web frame according to the static resource and the hypertext markup language structure information, wherein the static resource contains Cascading Style Sheets and JavaScript scripts, and wherein the generating a static hypertext markup language file of the page by using a native server-side rendering function of a web frame comprises: executing the JavaScript scripts in an eval environment, simulating a required browser host environment by a JavaScript Document Object Model JSDOM, and generating the static hypertext markup language file of the page by using the native server-side rendering function of the web frame. acquiring a static resource of a page to be processed; acquiring a hypertext markup language structure information compiled of the page; and generating a static hypertext markup language file of the page by using a native server-side rendering function of a web frame according to the static resource and the hypertext markup language structure information, wherein the static resource contains Cascading Style Sheets and JavaScript scripts, and wherein the generating a static hypertext markup language file of the page by using a native server-side rendering function of a web frame comprises: executing the JavaScript scripts in an eval environment, simulating a required browser host environment by a JavaScript Document Object Model JSDOM, and generating the static hypertext markup language file of the page by using the native server-side rendering function of the web frame.
An NMR measurement system comprising; a bearing mechanism (56, 110) configured to spray gas toward a passage in which a sample unit (22, 100) including a sample tube (52, 102) is disposed, from around the passage; and a controller configured to operate the bearing mechanism (56, 110) in a loading process of inserting the sample unit (22, 100) into the passage, wherein the bearing mechanism (56, 110) is configured to spray gas from a plurality of openings annularly arranged around the passage toward the passage from a direction orthogonal to a center axis of the passage to align a center axis of the sample tube (52, 102) with the center axis of the passage. a bearing mechanism (56, 110) configured to spray gas toward a passage in which a sample unit (22, 100) including a sample tube (52, 102) is disposed, from around the passage; and a controller configured to operate the bearing mechanism (56, 110) in a loading process of inserting the sample unit (22, 100) into the passage, wherein the bearing mechanism (56, 110) is configured to spray gas from a plurality of openings annularly arranged around the passage toward the passage from a direction orthogonal to a center axis of the passage to align a center axis of the sample tube (52, 102) with the center axis of the passage.
A battery module (28, 30), comprising: - a housing having a wall with an aperture; - an electrochemical cell having a terminal end and a base end opposite the terminal end, wherein the electrochemical cell is disposed within the housing such that the base end is positioned proximate to the aperture of the wall; - a heat sink engaged with the aperture and having cooling fins extending outwardly from the heat sink in a first direction; and - feet of the housing extending outwardly from an external surface of the wall in the first direction, wherein each pair of adjacent feet defines a channel between the adjacent feet of the pair, and wherein the feet and the cooling fins are staggered with respect to each other such that each cooling fin is aligned with a corresponding one of the channels defined by one of the pair of adjacent feet. - a housing having a wall with an aperture; - an electrochemical cell having a terminal end and a base end opposite the terminal end, wherein the electrochemical cell is disposed within the housing such that the base end is positioned proximate to the aperture of the wall; - a heat sink engaged with the aperture and having cooling fins extending outwardly from the heat sink in a first direction; and - feet of the housing extending outwardly from an external surface of the wall in the first direction, wherein each pair of adjacent feet defines a channel between the adjacent feet of the pair, and wherein the feet and the cooling fins are staggered with respect to each other such that each cooling fin is aligned with a corresponding one of the channels defined by one of the pair of adjacent feet.
A pressure relief valve to balance the pressure between a cargo tank and the ambient atmosphere, said valve being arranged so that the velocity of the out flowing gas jet at no time is under a preset value when said valve is in an open position, said valve comprising a valve body, a valve seat provided in a seat ring structure, a frame structure and a rod, said valve body is designed to seal against the valve seat, located in use in a structural outlet from said cargo tank, said valve body is connected to the rod extending in use into an opening of the structural outlet, said rod being supported and guided by the frame structure extending in use into said opening, said frame structure being fixed in use to said structural outlet, wherein said rod extends into a cavity of said valve body, said valve body being moveable in respect of said rod, characterised in that the valve body is retained in a first position by a spring and a stop plate secured to the rod, said valve body further includes a central hub structure where an internal surface of the hub structure slidably receives the upper part of the rod, said spring is received in the cavity and surrounding the hub structure, said spring counteracting motion of said valve body from said valve seat until a predetermined first pressure level within said cargo tank is reached, said first pressure level is a threshold value initiating a second valve opening step, the elements providing said second valve opening step includes first and second magnetic structures (10, 9) connected to said valve body and said frame structure respectively, said magnetic structures (10, 9) being configured to attract each other by a preset magnetic force acting in the closing direction said preset magnetic force is suspended when said magnetic structures (10, 9) are brought apart by said over pressure within said cargo tank, said central rod comprising a third magnetic structure configured to act against a fourth magnetic structure fixedly attached to said frame structure, so that when the first magnetic structure is released, the central hub structure, spring and stop plate providing a lifting of the rod and the second magnetic structure resulting in a delay of motion and pressure increase over the valve body.
A cheek plate device for a stuffer box crimper, comprising brackets, adjusting mechanisms, cheek plates, a base frame and a pair of nip rollers, wherein the adjusting mechanisms are mounted on the brackets, which can slide relative to the bracket, the cheek plates are mounted on the inside of the adjusting mechanisms, and two identical brackets, adjusting mechanisms and cheek plates are mounted symmetrically at two sides of the pair of nip rollers and affixed on the base frame, and being characterized by further comprising fluid thrust devices that include cylinders and fluid inlets located on the brackets, wherein one end of the adjusting mechanism is inserted into and coupled with the cylinder and the fluid thrust devices are connected to the fluid inlets, through which a fluid flows into the cylinders and pushes the adjusting mechanisms to move and press against the cheek plates; the fluid thrust device includes a tubing system which is connected to the cylinder through the inlet in the bracket, a pressure gauge and a pressure reducing valve, which are installed in the tubing system; the adjusting mechanism comprises an adjusting block with a step portion, of which, one end is a piston that is smaller in diameter than the other end of the step portion and is inserted into the cylinder and can slide back and forth along the axis of the cylinder, and the other end is a wedge, of which, one side being in contact with the cheek plate and the other side being in contact with the bracket, and a stop device which is located in the bracket corresponding to the position of the step portion of the adjusting block, wherein fluid of the thrust device flows into the cylinder through the inlet to drive the piston, the piston pushes the wedge, and the wedge pushes the cheek plate to move towards the sides of the nip rollers.
Reflector for an antenna, in particular a dipole antenna, comprising a plurality of rods, which are arranged linearly adjacent to one another and spaced apart from one another, forming two reflector legs at an angle (α) to one another, wherein both the angle (α) of the reflector legs and the spacing (b) of the rods relative to one another within the respective reflector leg can be changed, wherein, when there is a change in the angle (α) between the reflector legs, the rod spacing (b) can also be changed automatically.
A fuel valve comprising a valve housing accommodating a roll-over valve, an over-pressure relief valve and a pressure retention valve, wherein a pressure retention disc is substantially axially displaceable within a top chamber of the valve housing, between a normally closed position in which it sealingly bears over an outlet port of a flow path and an open position; said pressure retention disc is configured with a cutout portion at least partially enveloping a wall portion of a pressure relief port of the valve.