KR101292003B1 - Plate Type Nano tube with Multi Channel - Google Patents

Abstract

The present invention relates to a multi-channel flat nanotube manufacturing system using nanoparticles.
According to the present invention, the foreign substances inside and outside the nanotubes manufactured by extrusion molding aluminum are washed, one side of the nanotubes are compressed, and one side injects the fluid containing the nanoparticles into the compressed nanotubes, and the fluid is injected. After the nanotubes are heated to convert the fluid into a gas, the device is manufactured through a series of fully press-sealed devices in order to produce the same quality as the standardized product, and mass production is possible to improve productivity and reduce labor costs. It can bring cost savings.

Description

Plate Type Nano tube with Multi Channel

The present invention relates to a multi-channel plate-type nanotube manufacturing system using nanoparticles, in particular, after fabricating a strip-shaped nanotube having a hollow channel formed therein, and then compressing one side and injecting a fluid therein, As the fluid inside the city is heated to be converted to gas and sealed, the heat transfer efficiency is excellent and the thickness is thin so that the device to which heat transfer is applied can be miniaturized.

 In general, a heat pipe is well known as a heat transfer device using the principle of fluid flow due to capillary pressure and density difference of a fluid formed due to thermal imbalance such as evaporation and temperature difference. Heat pipes are heat-transferd by natural convection without extra power, and heat treatment performance is superior to heat sink / fan method using air cooling, so heat exchangers such as heating and cooling, heat sinks for cooling electronics, and solar heat It is widely applied to various industrial fields requiring heat exchange such as collectors and various preheaters, and its application range is continuously spreading.

The heat treatment performance of the heat pipe is an important variable such as the type and amount of the fluid, the degree of vacuum in the container, the cleanliness and capillary force of the wick structure, etc., in order to improve the heat treatment performance of the heat pipe, it is possible to increase A lot of researches on the structure of the wick, and the prior art related to the fluid of the heat pipe, for example, Korean Patent Publication No. 10-2005-0017632, a fluid containing a metal of nanoparticles selected from gold, silver or copper Also, Korean Laid-Open Patent Publication No. 10-2005-0093959 discloses a technique for containing carbon nanotubes or carbon nanofibers in a fluid enclosed in a heat pipe.

In addition, since heat pipes have almost no restrictions on their shape due to their operation principle, many studies have been conducted to improve heat treatment performance by modifying or improving the structure of heat pipes generally manufactured such as cylindrical and flat plates. In the prior art related to the structure of the heat pipe, for example, Korean Patent Laid-Open Publication No. 10-2004-0019150, a plurality of channels for guiding the vapor movement of the fluid inside the flat pipe is formed, each channel is a flat plate Disclosed is a multi-channel flat heat pipe arranged in parallel along the transverse direction of the pipe.

However, when manufacturing the nanotubes of the prior art has the following problems.

First, the nanotube is the most vulnerable part, under constant temperature heating, at a constant pressure, and the compression-producing part is manufactured by attaching the nanotube to the heating device jig by hand using hand presses. There is a problem in that the quality of the product varies depending on the worker.

Second, in the case of nanotubes, the width, length, number of channels, etc. of the nanotubes are determined according to the applied object, and it is very difficult to manufacture them to a certain length when proceeding by hand, which required a lot of human and time. .

Third, the number of channels forming the wick structure of the nanotube is composed of up to 14 channels, and each channel must be injected with a fluid containing a certain amount of nanodevices. However, it takes a lot of time to infuse it by hand and it is cumbersome to inject it.In addition, due to the volatility of the injected liquid, the amount of fluid that is injected is continuously consumed due to the volatility. Heat dissipation was degraded because heat dissipation was not easy.

Fourth, in the case of nanotubes made by hand, the product is not constant so that end molding work, which is a separate process, is performed for the leakage test. However, the epoxy work may cause harmful elements to the human body, causing dizziness, etc., and may be performed by the worker's force or by the press, not by the method of being slowly pressed by the nanotube control device during the pressing process. This requires attention between tasks.

The present invention has been made to solve such a conventional problem, the present invention is the standardization of the product through the nanotube automation is possible to produce the same quality, mass production is possible through the productivity improvement and labor cost reduction It is an object of the present invention to provide a multi-channel flat heat pipe manufacturing system using nanoparticles, which can bring cost reduction effects.

The problem solving means of the present invention is to produce a nanotube in a strip-shaped square tube with a hollow channel formed therein by extrusion molding aluminum, and then the length, width, number of channels according to the heat amount of the target to apply the nanotube After selecting and precisely cutting the nanotubes, the nanotube washing apparatus for washing the inside of the foreign matter and the outside; A first nanotube compression device for compressing one side to inject fluid into the inside of the nanotube after cleaning; A fluid injection device for injecting a fluid containing nanoparticles into the nanotubes on which one side is compressed; By heating the nanotubes into which the fluid is injected, converting the fluid into a gas, and sequentially manufacturing a second nanotube compression device for compressing the other one, the standardization of the product is possible, and the production of the same quality is possible. It is possible to produce, which has the characteristics of bringing cost reduction effect through productivity and labor cost reduction.

According to the present invention, the foreign substances inside and outside the nanotubes manufactured by extrusion molding aluminum are washed, one side of the nanotubes are compressed, and one side injects the fluid containing the nanoparticles into the compressed nanotubes, and the fluid is injected. After the nanotubes are heated to convert the fluid into a gas, and then through a complete press-sealing device, the products are standardized to produce the same quality and to be mass-produced to improve productivity and reduce labor costs. It can bring cost savings.

1 is a perspective view of the nanotubes produced by the extrusion molding according to the present invention cut.
2 to 5 is a block diagram showing a multi-channel flat nanotube manufacturing system using nanoparticles according to the present invention.
Figure 6 is a perspective view showing a first nanotube compaction apparatus of a multi-channel flat nanotube manufacturing system using nanoparticles according to the present invention.
Figure 7 is a perspective view showing the main portion of the nanotube fixing jig member for the first nanotube pressing device of the multi-channel flat nanotube manufacturing system using nanoparticles according to the present invention.
Figure 8 is an exploded perspective view of the nanotube compression means for the first nanotube compression device of the multi-channel flat nanotube manufacturing system using nanoparticles in the present invention.
9 and 10 is a configuration diagram of the operating state of the first nanotube compaction apparatus of the multi-channel flat-type nanotube manufacturing system using nanoparticles in the present invention.
Figure 11 is a configuration diagram of the operating state of the nanotube compression means for the first nanotube compression apparatus of the multi-channel flat nanotube manufacturing system using nanoparticles in the present invention.
12 is a perspective view showing a fluid injection device of a multi-channel flat nanotube manufacturing system using nanoparticles in the present invention.
Figure 13 is an exploded perspective view of the fluid injection means of the multi-channel flat nanotube manufacturing system using nanoparticles in the present invention.
14 is a block diagram of the fluid injection means of the multi-channel flat nanotube manufacturing system using nanoparticles in the present invention.
15 is an operation state of the fluid injection device of the multi-channel flat-type nanotube manufacturing system using nanoparticles in the present invention.
16 is a perspective view showing a second nanotube compaction apparatus of a multi-channel flat nanotube manufacturing system using nanoparticles according to the present invention.
Figure 17 is an exploded perspective view of the nanotube compaction means for the second nanotube compaction apparatus of the multi-channel flat nanotube manufacturing system using nanoparticles according to the present invention.
18 is an operating state of the nanotube pressing means for the second nanotube pressing device of the multi-channel flat-type nanotube manufacturing system using nanoparticles according to the present invention.
19 and 20 is an operating state diagram for the second nanotube compaction apparatus of the multi-channel flat nanotube manufacturing system using nanoparticles according to the present invention.

Hereinafter, with reference to the accompanying drawings will be described specific details for carrying out the invention.

1 is a perspective view of a state in which the nanotubes are manufactured by extrusion molding according to the present invention, and FIG. 2 to FIG. 5 illustrate a multi-channel flat nanotube manufacturing system using nanoparticles according to the present invention. It is a schematic diagram.

As shown in Figure 1, the multi-channel flat nanotubes (1) using the nanoparticles according to the present invention is produced by extrusion molding into a strip-shaped square tube by selecting a thin aluminum plate having a wide cross-sectional area A plurality of hollow channels 2 are integrally formed therein, and a plurality of grooves 2a are formed in the longitudinal direction symmetrically up and down on the inner wall of the hollow channel 2, and the size and number of the grooves 2a are Is determined by the heat transfer design, but, for example, grooves having a size of 0.3 to 0.4 mm and a width (width) of 0.2 to 0.3 mm are symmetrically formed up and down.

The nanotube (1) manufactured as described above is precisely cut by selecting length, width, and number of channels according to the amount of heat to be applied. Since the material is aluminum, the wick structure of each channel inside the end is due to ductility. Should be cut by precision machining.

The nanotubes 1 cut in this manner include a nanotube washing apparatus 10 for removing foreign substances inside and outside, as shown in FIGS. 2 to 5; A first nanotube crimping device 20 for crimping one side to inject fluid into the interior of the cut and cleaned nanotube 1; A fluid injection device 90 for injecting a fluid containing nanoparticles into one of the compressed nanotubes 1; The nanotube 1 into which the fluid is injected is heated to convert the fluid into a gas, and the manufacturing is completed by sequentially passing the second nanotube compression device 300 for compressing the other one.

At this time, the respective devices are configured to control the overall operation by the set program of the nanotube control device 700.

The nanotube washing apparatus 10 includes a pedestal 12 having a moving wheel 11 at a lower portion thereof; A water tank 14 in which a detergent is contained in the pedestal 12; An ultrasonic vibration generator (16) mounted inside the water tank (14) for generating ultrasonic vibrations; In order to supply power to the ultrasonic vibration generator 16 is composed of an oscillation portion 18 provided at the bottom of the pedestal 12.

At this time, inside the tank 14 is provided with a shelf 13 for seating the nanotubes 1 so as to be immersed in the cleaning agent. That is, the vibration generated in the ultrasonic vibration generator 16 generates vibration in the cleaning agent inside the water tank 14, thereby cleaning foreign substances inside and outside the nanotubes 1.

The nanotube washing apparatus 10 should be washed to prevent the grooves 2a formed in the hollow channel 2 of the nanotubes 1 produced by extrusion molding from interfering with fluid movement due to foreign substances. In addition, since the contact between the nanotube (1) and the object to be radiated must be closely maintained, the outside should be cleaned to prevent foreign matter from being caught in the contact area.

As shown in FIGS. 6 to 11, the first nanotube crimping device 20 is vertically moved as a vertical movement means 30 in the other region of the base 22 formed of the lower plate 23 and the upper plate 24. A nanotube fixing jig member 50 which is provided to be movable to the bottom and is mounted vertically on a lower portion of the nanotube 1; It is provided on the other side of the upper plate 24 of the pedestal 22 is made of nanotube pressing means 60 for pressing the nanotube (1) upper part to seal the hollow channel (2) of the nanotube (1).

The shangdong means 30 includes a pair of guide rods 31 and 32 fixedly corresponded between the lower plate 23 and the upper plate 24; Vertical ball screws 33 and 34 arranged on the lower plate 23 and the upper plate 24 between the guide rods 31 and 32 so as to be vertically rotatable as the rotating member 40; The guide guides 35 which are movably inserted into the guide rods 31 and 32 and the rotary guides 36 which are screwably coupled to the vertical ball screws 33 and 34 are provided to correspond to each other. It consists of a moving shanghai copper plate 37.

The rotating member 40 is mounted to the lower plate 23, the lower servo motor 42 is provided with a pulley 41 at the bottom; First and second lower pulleys 43 and 44 provided on the vertical ball screws 33 and 34 so as to correspond to the pulleys 41; The first and second timing belts 45 connected between the pulleys 41 and the first lower pulley 43 and the first and second lower pulleys 43 and 44 to transmit rotational force of the lower servo motor 42. It consists of 46.

The nanotube fixing jig member 50 includes a plurality of lower cylinders 52 vertically fixed to the rear of the shanghai copper plate 37 and having a piston 51 vertically inserted therein; An upper plate 53 horizontally installed at an upper end of the piston 51 of the lower cylinder 52; A plurality of upper cylinders 55 horizontally fixed to the upper plate 53 and into which the piston 54 is inserted horizontally; It consists of a plurality of fixing jig 56 is formed in the front of the piston 54 of the upper cylinder 55 is inserted groove 56a is inserted into the lower portion of the nanotube (1).

The nanotube crimping means 60 includes a plurality of upper servo motors 61 mounted behind the upper plate 24 of the pedestal 22; The rear is rotatably coupled to the upper servomotor 61 by the coupling 62, and is rotatably screwed between the front and rear fasteners 63 and 64 fixed to the front and rear of the upper plate 24. A plurality of horizontal ball screws 65 coupled; A horizontal moving hole 66 which is screwed to the front region of the horizontal ball screw 65 to convert the rotational movement of the upper servo motor 61 into a linear movement; A link member 80 sequentially connected to the horizontal moving port 66 to be rotated by a linear motion; A guide groove 67 having an upper position hole 67a in which the front region of the link member 80 is rotatably connected, fixed to the front region of the upper plate 24, and in which an upper portion of the nanotube 1 is inserted. A fixed plate member formed of a lower plate 68 having an upper portion formed thereon, and an upper plate 69 fixed to an upper portion of the lower plate 68 and having a positioning hole 69a for viewing the nanotubes 1 in the center thereof. 70); A fixed pressing jig 71 inserted into and fixed to the front region of the guide groove 67 of the lower plate 68 and having a circular fixed pressing blade 71a formed at the rear thereof; It is movably inserted into the guide groove 67 of the lower plate 68, the rear is connected to the link member 80, and consists of a moving pressing jig 72 having a circular moving pressing blade (72a) in the front.

At this time, the lower portion of the nanotube 1 is inserted into the insertion groove (56a) of the fixing jig 56, the upper portion is located in the upper position hole (67a) of the lower plate 68, the movement of the moving pressing blade (72a) Is pressed.

The link member 80 is a pair of the first link 82, the rear of which is connected to both ends of the horizontal movable port 66 so as to be rotatable, the rear of the front of the first link 82 is rotatably connected, The second link 83 is pivotally connected to the rear edge of the lower plate 68, and the rear is pivotably connected to the inner central region of the second link 83, and the front is the movable compression jig 72. It consists of a third link (84) rotatably connected to the rear edge of the.

As shown in FIGS. 12 to 15, the fluid injection device 90 has a pair of vertical guides fixed between the lower plate 23 and the upper plate 24 of the left region of the first nanotube pressing device 20. Rod 91; A horizontal finishing plate 92 which is movably inserted into the vertical guide rod 91 and fixed to the shank east position by the fixing member 96; A nanotube lower jig 93 fixed to the horizontal finish plate 92 and formed with a plurality of lower seating grooves 93a on which lower portions of the plurality of nanotubes 2 are seated; It is mounted on the upper plate 24 is made of a fluid injection means 100 for injecting fluid into the nanotube (1).

The fixing member (95) is vertically inserted into and fixed to both sides of the horizontal finish plate 92, the vertical movement hole (96) which is inserted into the vertical guide rod (91) so as to be movable; It is fastened to the outer periphery of the vertical movement hole 96 is made of a fixing clip 98 for maintaining the movement of the horizontal finish plate (92).

The fluid injection means 100 includes a servotor 110 mounted to the right side of the upper plate 24; The right side is rotatably coupled to the servomotor 110 as a coupling 120, and is rotatably coupled between the left fixture 130 and the right fixture 131 fixed to the left and right sides of the upper plate 24. Moving ball screw 140; A horizontal moving hole 150 which is screwed to the moving ball screw 140 in a position close to the left fixture 130 to convert the rotational motion of the servo motor 110 into a linear motion; An injection gun mounting member 180 provided at the front side of the horizontal moving hole 150 and movable left and right as a left and right moving member 160 and provided to be movable up and down and mounted with an injection gun 170; A plurality of upper insertion grooves which are fixed to the upper plate 24 of the outer periphery of the horizontal long hole 190 formed in the longitudinal direction on the upper plate 24 in front of the injection gun member 180, into which the upper portion of the nanotube 1 is inserted. A nanotube upper jig 200 in which the 201 is formed; It is composed of a fluid injection member 210 for supplying a uniform fluid to the injection gun 170 to inject into the nanotube (1).

The left and right moving member 160 includes a horizontal extension piece 162 integrally extending toward the front side of the horizontal moving hole 150; A movement guide 164 fixed to the lower horizontal extension piece 162; The movement guide 164 includes a fixed guide 166 which is inserted to be movable left and right.

The injection gun member member 180 includes a front extension piece 182 integrally extending toward the front side of the horizontal extension piece 162; A cylinder 184 mounted on the front extension piece 182 and inserted with a plurality of pistons 183 vertically; A horizontal mounting plate 186 horizontally installed at an upper end of the piston 183 of the cylinder 184; It is mounted to the top of the horizontal mounting plate 186, and consists of an injection key holder 188 formed with a mounting hole 187 into which the injection gun 170 is inserted.

The fluid injection member 210 is mounted to the upper plate 24 and the fluid storage tank 212 stored therein fluid; An air compressor 214 for supplying a fluid in the fluid storage tank 212 to the injection gun 170; The dispenser 216 is connected to the fluid storage tank 212 and the injection gun 170 to adjust the amount of fluid injected into the injection gun 170.

As shown in FIGS. 16 to 20, the second nanotube crimping apparatus 300 is provided to be movable up and down by the shank moving means 30 inside the other region of the pedestal 22, and the lower portion is compressed, and A nanotube fixing jig member 50 in which a lower portion of the nanotube 1 into which fluid is injected is vertically seated; It is mounted on the shanghai copper plate 37 of the nanotube fixing jig member 50, harmless to the human body with water or non-volatile materials and the like inside the nanotube by storing and heating a fluid that can preserve heat for a long time A constant temperature control unit 400 for heating (1); It is provided on the other side of the upper plate 24 of the pedestal 22 is made of nanotube pressing means 500 for sealing the fluid injected into the nanotube (1) by pressing the upper portion of the nanotube (1).

In this case, the same reference numerals are used for the same components of the first nanotube compression device 20 and the second nanotube compression device 300.

The shangdong means 30 includes a pair of guide rods 31 and 32 fixedly corresponded between the lower plate 23 and the upper plate 24; Vertical ball screws 33 and 34 arranged on the lower plate 23 and the upper plate 24 between the guide rods 31 and 32 so as to be vertically rotatable as the rotating member 40; The guide guides 35 which are movably inserted into the guide rods 31 and 32 and the rotary guides 36 which are screwably coupled to the vertical ball screws 33 and 34 are provided to correspond to each other. It consists of a moving shanghai copper plate 37.

The rotating member 40 is mounted to the lower plate 23, the lower servo motor 42 is provided with a pulley 41 at the bottom; First and second lower pulleys 43 and 44 provided on the vertical ball screws 33 and 34 so as to correspond to the pulleys 41; The first and second timing belts 45 connected between the pulleys 41 and the first lower pulley 43 and the first and second lower pulleys 43 and 44 to transmit rotational force of the lower servo motor 42. It consists of 46.

The nanotube fixing jig member 50 includes a plurality of lower cylinders 52 vertically fixed to the rear of the shanghai copper plate 37 and having a piston 51 vertically inserted therein; An upper plate 53 horizontally installed at an upper end of the piston 51 of the lower cylinder 52; A plurality of upper cylinders 55 horizontally fixed to the upper plate 53 and into which the piston 54 is inserted horizontally; It consists of a plurality of fixing jig 56 is formed in the front of the piston 54 of the upper cylinder 55 is inserted groove 56a is inserted into the lower portion of the nanotube (1).

The constant temperature control unit 400 is mounted on the Shanghai copper plate 37, the heating tank 410 is installed therein the heating line 411 for storing and heating the fluid; Installed inside the heating bath 410 is made of a detection sensor 420 for detecting the temperature by detecting the internal fluid temperature. At this time, the signal sensed by the sensor 420 is transmitted to the nanotube control device 700 to allow the operator to set and manipulate the temperature, the set temperature and the shangdong of the heating bath 410 is It is made as a means 30, the moving distance is determined by the length of the produced nanotube (1), the longer the set temperature and the degree of vertical adjustment of the heating bath 410 should be set higher.

The nanotube crimping means 500 includes a plurality of upper servo motors 510 mounted to the rear of the upper plate 24; The rear is rotatably coupled to the upper servo motor 510 by a coupling 511, and is rotatably coupled between the front fixture 520 and the rear fixture 530 fixed to the front and rear of the upper plate 24. A plurality of horizontal ball screws 540; A horizontal moving hole 550 screwed to the front region of the horizontal ball screw 540 to convert the rotational movement of the upper servo motor 510 into a linear movement; A link member 560 which is sequentially connected to the horizontal moving hole 550 to be rotated by a linear movement; A guide groove 571 having an upper position hole 571a in which a front portion of the link member 560 is rotatably connected, fixed to a front region of the upper plate 24, and an upper portion of the nanotube 1 is inserted in the center thereof. Fixed plate member (580) formed of a lower plate (570), and an upper plate (580) fixed to an upper portion of the lower plate (570), and having a positioning hole (581) for viewing the nanotubes (1) at the center thereof. 590); A fixed pressing jig 600 inserted into and fixed to a front region of the guide groove 571 of the lower plate 570 and having a circular fixed pressing blade 601 formed at a rear side thereof; It is movably inserted into the guide groove 571 of the lower plate 570, the rear is connected to the link member 560, and consists of a moving pressing jig 610 formed with a circular moving pressing blade 611 in the front.

The link member 560 is a pair of the first link 562, the rear of which is connected to both ends of the horizontal movement port 550 so as to be rotatable, the rear of the front of the first link 562 is rotatably connected, The second link 564 is pivotally connected to the rear edge of the lower plate 570, the rear is rotatably connected to the inner central region of the second link 564, the front is a moving compression jig 610 It consists of a third link 566 rotatably connected to the rear edge of the.

The operating state of the manufacturing process of the nanotube according to the present invention configured as described above will be described schematically.

Looking at the manufacturing process for the multi-channel plate-type nanotubes using nanoparticles according to the present invention with reference to Figures 1 to 5, the hollow channel (2) having a groove (2a) inside the extrusion by selecting aluminum The formed strip-shaped square tube is produced (see FIG. 1).

The nanotubes (1) fabricated as described above are precisely cut according to the length by selecting the length, width, and number of channels according to the amount of heat to be applied, and because the material is aluminum, Since the wick structure of each channel may be damaged, proceed with cutting through precise machining.

As such, the nanotube 1 cut to an appropriate length is inserted into the nanotube washing apparatus 10 to remove foreign substances inside and outside as shown in FIG. 2. That is, the nanotube 1 is placed on the shelf 13 inside the water tank 14 in which the cleaning agent is contained, and then the ultrasonic vibration generator 16 connected to the oscillation unit 18 is operated. Then, the vibration generated in the ultrasonic vibration generator 16 to generate a vibration in the cleaning agent to clean the foreign matter inside and outside the nanotube (1).

In this state, the nanotube 1 is withdrawn from the water tank 14, and then the lower portion of the nanotube 1 is inserted into the plurality of insertion grooves 56a formed in the fixing jig 56 of the nanotube fixing jig member 50. After sequentially inserting, the upper portion is vertically aligned between the upper positioning hole 67a of the lower plate 68 constituting the nanotube pressing means 60 and the positioning hole 69a of the upper plate 69. (See FIGS. 9 and 10).

Next, as shown in FIG. 11, the nanotube pressing means 60 is operated to seal the inside by compressing the upper portion of the nanotube 1. Schematically, when the upper servo motor 61 is rotated in reverse, the rotational force is transmitted to the coupling 62, and is coupled between the front fixture 63 and the rear fixture 64 at the front and rear of the upper plate 24. The horizontal ball screw 65 is reversed.

Accordingly, the horizontal movement hole 66 screwed to the horizontal ball screw 65 is moved rearward along the horizontal ball screw 65 so that the rear side is rotatably connected to both ends of the horizontal movement hole 66. The pair of first links 82 are reversed as shown by the arrow, and the second link 83 is pivotally connected between the front of the first link 82 and the rear edge of the lower plate 68. The rotary compression jig 72 is rotated in the direction of the arrow and the third link 84 connected to the inside of the second link 83 and the movable compression jig 72 rotates in the direction of the arrow. As the moving pressing blade 72a horizontally presses the upper portion of the nanotubes 1 along the guide groove 67 of the 68, the fixed pressing blade 71a of the fixed pressing jig 71 is moved. The upper part of the nanotubes 1 is compressed by the characteristics of the material, so that the internal sealing is Eojinda.

Subsequently, when the upper portion of the nanotubes 1 is compressed, the upper servo motor 61 is rotated forward by the sensing control of the sensor and the set control program of the nanotube control apparatus 700, and the horizontal port 66 moves forward. The link member 80 moves in reverse as described above to wait for the next operation.

On the other hand, according to the length of the nanotube (1) it is to selectively operate the shank movement means 30, the rotating member 40 constituting the first nanotube compression device (20). This will be described schematically.

As shown in FIGS. 8 and 9, when the lower servo motor 42 constituting the rotating member 40 is rotated forward and backward, the rotational force of the lower servo motor 42 is the first and second timing belts 45 and 46. It is delivered to the vertical ball screw 33, 34 constituting the Shanghai East means 30 by which they are rotated forward and backward at the same time.

Accordingly, the rotary guide 36 screwed to the vertical ball screws 33 and 34 is raised or lowered along the vertical ball screws 33 and 34, and the guide guide 35 is a guide rod 31. Ascending or descending along the 32, the height of the Shanghai copper plate 37 is adjusted.

At the same time, the nanotube fixing jig member 50 fixed to the rear of the shanghai copper plate 37 is raised or lowered, and the piston 51 is raised and lowered by the operation of the lower cylinder 52 so that the fixing jig 56 The height is adjusted, the piston 54 is moved horizontally by the operation of the upper cylinder 55, the front and rear movement of the fixing jig 56 is adjusted (see Fig. 7).

After the upper portion of the compressed nanotube (1) is separated, as shown in Figure 12, the nanotube (1) in the lower seating groove (93a) of the nanotube lower jig 93 constituting the fluid injection device 90 Of the plurality of nanotubes by sequentially inserting the compressed sides of the other side, that is, the other side that is not compressed, that is, the upper part into the upper insertion groove 201 of the upper nanotube upper jig 200 constituting the injection key member 180. (1) is inserted stably.

At this time, the nanotube lower jig 93 of the upper portion of the horizontal finish plate 92 is fixed to the moving position by the fixing member 96 on the vertical guide rod 91 between the lower plate 23 and the upper plate 24. That is, the height is set according to the length of the nanotube (1) to be fixed on the vertical guide rod (91).

In this state, when the servomotor 110 constituting the fluid injection means 100 is rotated forward, the rotational force is transmitted to the coupling 120, and the right fixture 130 and the left fixture of the right and left sides of the upper plate 24 are provided. The moving ball screw 140 coupled between the 131 is to be rotated forward.

Accordingly, the horizontal movement hole 150 screwed to the movement ball screw 140 is moved to the left along the movement ball screw 140, so that the horizontal movement hole 150 is injected by the left and right movement members 160 on the front side of the movement hole 150. The injection gun mounting member 180 on which the gun 170 is mounted is moved to the left side (see FIGS. 13 and 15).

That is, the front extension piece 182 constituting the injection gun member 180, the cylinder 184 into which the piston 183 is inserted, the horizontal holder 186 of the upper end of the piston 183 of the cylinder 184, the horizontal holder (186) The injection cradle 188 of the upper portion is moved to the left in the left and right moving member 160. At this time, when the injection gun 170 mounted on the injection gun holder 188 is located in the nanotube 1 on the left side, the rotation of the servomotor 110 is stopped.

In this state, the fluid in the fluid storage tank 212 is supplied to the dispenser 216 by the operation of the air compressor 214 constituting the fluid injection member 210 to adjust the amount of fluid, and then to the injection gun 170. When supplied and injected into the hollow channel 2 of the nanotube 1, the operation of the air compressor 214 and the dispenser 216 of the fluid injection member 210 is stopped (see FIG. 14).

Subsequently, the servo motor 110 is rotated in reverse to move the injection gun member 180 mounted with the injection gun 170 by the left and right moving member 160 to the right while the hollow channel 2 of the nanotube 1 is moved. The fluid is sequentially injected into the inside, and when the injection is completed, the rotation of the servo motor 110 is stopped, and the operations of the air compressor 214 and the dispenser 216 constituting the fluid injection member 210 are stopped. Wait for the next action.

Next, as shown in FIGS. 16 to 20, the nanotube fixing jig member 50 constituting the second nanotube compaction apparatus 300 is inserted into the nanotube 1 in which fluid is injected into the hollow channel 2. After inserting the lower portion of the compressed nanotubes 1 sequentially into the plurality of insertion grooves 56a formed in the fixing jig 56, the lower plate 570 constituting the nanotube pressing means 500 is opened. And the upper position hole 571a of () is sequentially matched (see FIG. 19).

In this state, the nanotube pressing unit 500 is operated to hold the upper portion of the nanotube 1 primarily, and then heat is applied to the fluid injected therein with the lower positive temperature control unit 400 to vaporize the fluid. After the second compression, it is completely compressed to seal the inside.

When the upper servo motor 510 is reversely rotated, the rotational force is transmitted to the coupling 511 to be coupled between the front fixture 520 and the rear fixture 530 at the front and rear of the upper plate 24. The horizontal ball screw 540 is reversed.

Accordingly, the horizontal movement hole 550 screwed to the horizontal ball screw 540 is moved rearward along the horizontal ball screw 540, so that the rear of the pair is connected to both ends of the horizontal movement hole 550 so as to be rotatable. The first link 562 is reversed as shown by the arrow, and the second link 564 rotatably connected between the front of the first link 562 and the rear edge of the lower plate 570 is centered on both center points. As the third link 566 connected to the inside of the second link 564 and the moving compression jig 610 rotates in the direction of the arrow, the moving compression jig 610 is rotated in the lower plate 570. Moving forward along the guide groove 571 of the moving compression blade 611 as the primary pushes the nanotube (1) horizontally, the top of the nanotube (1) is held in an open state. At this time, the upper servo motor 510 is stopped.

In this state, the upper cylinder 55 constituting the nanotube fixing jig member 50 is operated so that the piston 54 is moved backward, and the fixing jig 56 into which the lower end of the nanotube 1 is inserted is rearward. Is moved. Therefore, the nanotube 1 is held at the top by the fixed pressing blade 601 and the moving pressing blade 611 to be suspended in the air (see FIG. 20).

Next, as shown in FIG. 19, the lower server motor 42 of the rotating member 40 is rotated forward to move the heating jaw 410 of the control unit 400 upward, thereby heating the inside of the heating jaw 410. 411 so as to submerge the lower portion of the nanotube (1) in the heated fluid is converted into the fluid of the injected liquid.

In this state, as the piston 54 moves forward by the operation of the upper cylinder 55 constituting the nanotube fixing jig member 50, and the fixing jig 56 moves forward, the insertion groove of the fixing jig 56 is moved. 56a stably supports the lower portion of the nanotube 1.

Next, the upper servo motor 510 is operated to move the forward pressing jig 610 in the first holding state to the front and press the nanotube 1 secondly by the moving pressing blade 611 to the nanotube ( 1) The upper part is completely sealed.

When the sealing operation of the nanotubes 1 is completed as described above, the upper servo motor 510 is reversely rotated by the detection of a sensor not shown and the set control program of the nanotube control apparatus 700. And the link member 560 moves to the original position to wait for the next operation.

Next, the nanotubes 1, which have been sealed, are placed on the shelves 13 inside the water tank 14 constituting the nanotube washing apparatus 10, and then the ultrasonic vibration generator 16 is placed. By operating the vibration generated in the ultrasonic vibration generator 16 to generate a vibration in the cleaning agent to clean the foreign matter outside the nanotube (1) is completed the process of injecting fluid into the nanotube (1).

Preferred embodiments of the present invention described above are disclosed for purposes of illustration, and those skilled in the art having various ordinary knowledge of the present invention will be able to make various modifications, changes, and additions within the spirit and scope of the present invention. Changes, changes, and additions should be considered to be within the scope of the following claims.

1: nanotube 2: hollow channel
20: first nanotube pressing device 22: pedestal
23: lower plate 24: upper plate
50: nanotube fixing jig member 51, 54: piston
52: lower cylinder 55: upper cylinder
56: fixing jig 56a: insertion groove
60,500: nanotube crimping means 61: upper servo motor
62 coupling 63 front fixture
64: rear fastener 65: horizontal ball screw
66: horizontal movement hole 80: link member
68: lower plate 69: upper plate
70: fixed plate member 71: fixed crimping jig
71a: fixed crimping edge 72: mobile crimping jig
72a: moving compression blade 90: fluid injection device
91: vertical guide rod 92: horizontal finish plate
93: Nano tube lower jig 93a: Lower seating groove
100: fluid injection means 110: servo motor
120: coupling 130: left fixture
131: right fixture 140: moving ball screw
150: horizontal moving port 160: left and right moving member
170: injection gun 180: injection gun support member
200: nanotube upper jig 201: upper insertion groove
210: fluid injection member 212: fluid storage tank
214: air compressor 216: dispenser
300: second nanotube crimping device 400: constant temperature control unit
700: nanotube controller

Claims (10)

Aluminum tube extruded and made of a rectangular tube having a hollow channel (2) formed therein, and the nanotube (1) precisely cut by selecting a length, width, and number of channels according to the amount of heat; A nanotube washing device (10) for cleaning foreign substances inside and outside the hollow channel (2) of the nanotube (1); A first nanotube compression device (20) for compressing one side to inject fluid into the inside of the nanotube (1) after cleaning; A fluid injection device (90) for injecting a fluid containing nanoparticles into the nanotube (1) on which one side is compressed; A second nanotube compression device (300) for heating the fluid-injected nanotube (1) to convert the fluid into a gas and compressing the other one; In the multi-channel plate-type nanotube manufacturing system using nanoparticles consisting of a nanotube control device 700 for controlling the overall operation of the devices,
The first nanotube crimping device 20 is
A pedestal (22) having a nanotube fixing jig member (50) which is provided to be movable up and down as the movable means (30) inside the other region, and the lower portion of the nanotube (1) is vertically seated;
It is provided in the other region of the upper plate 24 of the pedestal 22 is composed of nanotube pressing means 60 for pressing the nanotube (1) to seal the hollow channel (2) of the nanotube (1) Multi-channel flat type nanotube manufacturing system using nanoparticles characterized in that. delete According to claim 1, wherein the nanotube fixing jig member 50
A plurality of lower cylinders 52 vertically fixed to the rear side of the shanghai copper plate 37 of the shanghai copper means 30 and into which a piston 51 is inserted;
An upper plate 53 horizontally installed at an upper end of the piston 51 of the lower cylinder 52;
A plurality of upper cylinders 55 horizontally fixed to the upper plate 53 and into which a piston 54 is inserted horizontally;
Multi-channel using nanoparticles, characterized in that consisting of a plurality of fixing jig 56 is fixed to the front of the piston (54) of the upper cylinder 55 is formed with an insertion groove (56a) is inserted into the lower portion of the nanotube (1) Flat nanotube manufacturing system. According to claim 1, wherein the nanotube pressing means 60
A plurality of upper servo motors 61 mounted behind the upper plate 24;
A rear end is rotatably coupled to the upper servo motor 61 by a coupling 62, and rotatably between the front fastener 63 and the rear fastener 64 fixed to the front and rear of the upper plate 24. A plurality of horizontal ball screws 65 coupled;
A horizontal moving hole 66 which is screwed into the front region of the horizontal ball screw 65 to convert the rotational movement of the upper servo motor 61 into a linear movement;
A link member (80) which is sequentially connected to the horizontal moving port (66) and rotates by a linear motion;
A guide groove having an upper position hole 67a in which a front region of the link member 80 is rotatably connected, fixed to a front region of the upper plate 24, and an upper portion of the nanotube 1 is inserted in the center thereof ( Fixed plate consisting of a lower plate 68 having a 67 formed thereon, and an upper plate 69 fixed to an upper portion of the lower plate 68 and having a positioning hole 69a for viewing the nanotubes 1 in the center thereof. Member 70;
A fixed pressing jig 71 inserted into and fixed to a front region of the guide groove 67 of the lower plate 68 and having a circular fixed pressing blade 71a formed at a rear side thereof;
It is movably inserted into the guide groove 67 of the lower plate 68, the rear is connected to the link member 80, consisting of a moving pressing jig 72 formed with a circular moving pressing blade (72a) in the front Multi-channel flat nanotube manufacturing system using nanoparticles, characterized in that. The method of claim 4, wherein the link member 80
A pair of first links 82 connected to both ends of the horizontal movable opening 66 in a rotatable manner;
A second link 83 connected to the front of the first link 82 in a rotatable manner, and a front link of the second link 83 to the rear edge of the lower plate 68;
The rear side is pivotally connected to the inner central region of the second link 83, and the front portion is composed of a third link (84) rotatably connected to the rear edge of the moving compression jig 72 using nanoparticles. Multi-channel flat nanotube manufacturing system. According to claim 1, wherein the fluid injection device 90
A pair of vertical guide rods 91 fixed between the lower plate 23 and the upper plate 24 in the left region of the first nanotube pressing device 20;
A horizontal finishing plate 92 which is inserted into the vertical guide rod 91 so as to be movable and whose movement position is fixed by the fixing member 96;
A nanotube lower jig 93 fixed to an upper portion of the horizontal finishing plate 92 and having a plurality of lower seating grooves 93a on which lower portions of the nanotubes 2 are seated; And
A fluid injection means (100) mounted on the upper plate (24) to inject fluid into the nanotube (1);
Multi-channel flat type nanotube manufacturing system using nanoparticles, characterized in that configured to include. The method of claim 6, wherein the fluid injection means 100
A servo motor 110 mounted at a right side of the upper plate 24;
The right side is rotatably coupled to the servo motor 110 as a coupling 120, and is rotatably coupled between the left fixture 130 and the right fixture 131 fixed to the left and right sides of the upper plate 24. Moving ball screw 140;
A horizontal moving hole 150 which is screwed to the moving ball screw 140 near the left fixture 130 to convert the rotational motion of the servo motor 110 into a linear motion;
An injection gun holding member 180 provided at the front side of the horizontal moving hole 150 to move left and right as a left and right moving member 160 and provided to be movable up and down and mounted with an injection gun 170;
A plurality of upper inserts are fixed to the upper plate 24 of the outer periphery of the horizontal long hole 190 formed in the longitudinal direction on the upper plate 24 in front of the injection gun member 180 is inserted into the upper portion of the nanotube (1) A nanotube upper jig 200 having a groove 201 formed therein;
Multi-channel flat-type nanotube manufacturing system using nanoparticles, characterized in that consisting of a fluid injection member 210 for supplying a uniform fluid to the injection gun 170 to inject into the nanotube (1). The method of claim 7, wherein the injection dry member 180 is
A front extension piece 182 formed integrally with a front side of the horizontal extension piece 162 of the left and right moving members 160;
A cylinder 184 mounted on the front extension piece 182 and having a plurality of pistons 183 vertically inserted therein;
A horizontal mounting plate 186 horizontally installed at an upper end of the piston 183 of the cylinder 184;
Fabrication of multi-channel flat plate type nanotubes using nanoparticles, characterized in that it is mounted on the horizontal mounting plate 186, the injection key holder 188 is formed with a mounting hole 187 is inserted into the injection gun 170 is inserted. system. The method of claim 7, wherein the fluid injection member 210 is
A fluid storage tank 212 mounted to the upper plate 24 to store fluid therein;
An air compressor (214) for supplying a fluid in the fluid storage tank (212) to the injection gun (170);
Multi-channel flat nano type nanoparticles using nanoparticles, characterized in that it is connected to the fluid storage tank 212 and the injection gun 170 consists of a dispenser 216 for controlling the amount of fluid injected into the injection gun 170 Tube production system. The method of claim 1, wherein the second nanotube compression device 300
It is provided in the other region inside the pedestal 22 so as to be movable up and down by the shankdong means 30, the lower portion of the nanotube fixing jig is mounted on the lower portion of the nanotube (1) in which the fluid is injected therein vertically Member 50;
A constant temperature control unit 400 mounted on the shanghai copper plate 37 of the fixing jig member 50 to heat the nanotube 1 to convert the fluid into a gas therein; And
A nanotube pressing means (500) provided on the other side of the upper plate (24) of the pedestal (22) to seal the fluid injected into the nanotube (1) by pressing the upper portion of the nanotube (1);
Multi-channel flat nanotube manufacturing system using nanoparticles, characterized in that it comprises a.

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