KR102077818B1 - Raw material mixing device with cooling function - Google Patents

Abstract

The present invention relates to a reactor apparatus, and includes a plurality of raw material chambers for receiving a plurality of raw materials introduced from the outside to mix the raw materials through stirring.

Description

Reactor device {Raw material mixing device with cooling function}

The present invention relates to a reactor apparatus, and more particularly, to uniformly stir and mix a catalyst raw material formed of at least a plurality of types at a constant temperature, and in particular, when reacting hydrochloric acid with aluminum hydroxide, The present invention relates to a reactor apparatus for reacting aluminum hydroxide formed with particles with hydrochloric acid to shorten the reaction time, minimize the residue, and to keep the raw materials mixed at a temperature set in the reactor apparatus. That is, in the process of manufacturing polyaluminum chloride (PAC), aluminum hydroxide formed into particles of small size may be reacted with hydrochloric acid to shorten the reaction time and minimize the residue.

In general, the catalyst is manufactured in a solid or liquid phase and sold in each container, and is prepared by mixing a plurality of raw materials such as a catalyst raw material and a color raw material in the manufacturing process.

In mixing and stirring two or more catalyst materials, there is a problem in that heat is generated to deteriorate the catalyst, or moisture evaporates so that the catalyst does not function properly.

In addition, there is a problem that the entire raw material inside the stirrer is not evenly mixed because it rotates only in the forward or reverse direction when stirring the raw material.

Therefore, although mixing by mixing the stirring time or the stirring speed, there is a problem that the efficiency of the work is lowered.

In addition, it is necessary to shorten the preparation time of the catalyst for increasing productivity and to minimize the residue. In particular, in the process of producing polyaluminum chloride (PAC), it is necessary to react the aluminum hydroxide formed into small particles with hydrochloric acid to shorten the reaction time and minimize the residue.

In the meantime, the above-described background art is technical information possessed by the inventor for the derivation of the present invention or acquired in the derivation process of the present invention, and is not necessarily known technology disclosed to the general public before the application of the present invention. .

Korean Patent Registration No. 10-1741575

In detail, in the process of preparing a catalyst such as polyaluminum chloride (PAC), aluminum hydroxide formed into particles of small size is reacted with hydrochloric acid to shorten the reaction time and minimize the residue.

The present invention provides a stirring and mixing configuration for uniformly stirring a catalyst raw material formed of at least a plurality of types at a constant temperature.

In addition, it provides a cooling means configuration to the stirring guide blades formed into the raw material chamber and the raw material chamber so that the temperature of the raw material stirred and mixed inside the raw material chamber maintains a constant temperature.

In addition, to feed the raw material into the raw material chamber to provide a vertical transfer configuration and a horizontal transfer configuration to provide the convenience of movement to the upper portion of the raw material chamber when the raw material moves.

The reactor apparatus according to an embodiment of the present invention includes at least one raw material chamber formed at one side of the support part to receive a plurality of raw materials introduced from the outside and mix the raw materials through stirring.

In one embodiment, the support for supporting the raw material chamber and forming a workspace of the worker; A vertical moving part formed on both sides of the raw material chamber and vertically moving upward or downward; A control part formed in at least one region of the support part to control the raw material chamber and the vertical moving part; And a lifting unit for moving the input raw material or the worker to the upper part of the support part, wherein the raw material chamber comprises: a chamber case formed under the raw material chamber; A chamber cover formed on the chamber case; A chamber fixing stand fixed to an inner surface of the cylinder case at both sides of the chamber case to fix the raw material chamber from the ground; A liquid injection hole formed at one side of the lower side of the chamber case to inject a liquid raw material into the raw material chamber; A raw material outlet formed at one side of the lower side of the chamber case in order to discharge the mixed raw materials through stirring; A raw material temperature sensor penetrating through one side of the chamber cover to measure a temperature of the raw material stirred in the raw material chamber; A chamber manometer formed on one side of the first pressure pipe to measure the pressure in the raw material chamber; A raw material confirmation window formed on one side of an upper portion of a chamber cover to identify a raw material stirred in the raw material chamber; A first pressure pipe formed to be detachable from an external second pressure pipe at one side of the upper chamber cover to pressurize the inside of the raw material chamber; A second pressure pipe connected to one side of the frame plate such that the first pressure pipe is detachably attached to press the inside of the raw material chamber, and is connected to an external pressure tank; A pressure discharge member formed on one side of the first pressure pipe to discharge pressure inside the raw material chamber; A pressure sensor formed at one side of the first pressure pipe; A gas discharge pipe formed on one side of the chamber cover to discharge the gas generated in the raw material chamber; A stirring motor formed inside a lifting case provided above the chamber cover to generate rotational power for stirring a plurality of raw materials provided in the raw material chamber; A stirring blade which is connected to a shaft of the stirring motor passing through the chamber cover to mix a plurality of raw materials in rotation and is formed toward an inner side of the chamber case; Stirring guide blade formed to one side of the lower chamber cover to maximize the mixing ratio of the raw material by cross-mixing the raw material; A raw material mixing motor in which a motor shaft penetrates under the motor connecting housing to rotate the plurality of raw materials; A motor connection housing connecting the raw material mixing motor to the chamber case; Wing cooling tube connected to the wing cooling water circulation means formed to one side through the chamber cover in the stirring guide wing to cool the heat generated when mixing the raw materials; Wing cooling water circulation means formed on one side of the chamber cover to circulate the cooling water through the wing cooling tube; A chamber cooling tube formed between an inner wall and an outer wall of the chamber case to cool heat generated in the raw material chamber when the raw materials are mixed; Chamber cooling water circulation means for circulating cooling water through the chamber cooling tube; And a chamber heat supply unit formed on an outer circumferential surface of the chamber case and supplying heat to the chamber case when the external temperature falls below a predetermined temperature, wherein the vertical moving part is formed on the ground on both sides of the raw material chamber. Cylinder case; A lifting cylinder formed on both sides of the raw material chamber; An elevating case formed on an upper elevating cylinder and being elevated by the elevating cylinder; A cylinder connecting plate formed to connect the lifting cylinder and the lifting case; An elevating guide bar which is formed on the elevating case and is connected to the elevating case to prevent shaking during the elevating by the elevating cylinder; And an elevating sensor formed on one side of the elevating guide bar in order to sense height during operation of the elevating cylinder, wherein the chamber heat supply means comprises: a plurality of pipes formed on an outer circumferential surface of the chamber case; A plurality of heating lines installed in the plurality of pipes and generating heat when power is supplied through a power line; A plurality of pipe temperature sensor units installed in the plurality of pipes and measuring pipe temperature of the pipe to output pipe temperature measurement values; The pipe temperature sensor unit receives the pipe temperature measurement value from the corresponding pipe temperature sensor unit among the pipe temperature sensor units and outputs the pipe temperature measured value to a corresponding heating line among the plurality of heating wires according to a power transmission control signal transmitted through the communication line. A plurality of individual controllers for determining whether to supply power; And receiving the pipe temperature measurement values from the power supply unit controlling the power supply to the power line and the amount of power supplied to the power line through the communication line, and supplying power to the plurality of heating lines according to the pipe temperature measurement value. And an integrated control device including a heating wire control unit configured to generate the power transmission control signal for determining whether to supply the power, and to transmit the power transmission control signal to the plurality of individual controllers, wherein the heating wire control unit comprises the plurality of heating wires according to the pipe temperature measurement values. Determine a power supply priority of the power supply, generate a power transmission control signal for sequentially supplying power to the plurality of heating wires according to the power supply priority, and output the power transmission control signal to the plurality of individual controllers; Piping with pipe temperature measured value higher than 2nd reference temperature When the power supply is cut off from the corresponding heating line, and the number of pipes having the pipe temperature measured value equal to or less than the first reference temperature is less than or equal to the maximum number of simultaneous heat generation, the heating line corresponding to the pipe whose pipe temperature measured value is equal to or less than the first reference temperature. When the power is supplied and the number of pipes whose pipe temperature measurement value is equal to or less than the first reference temperature is larger than the maximum number of simultaneous heat generation, the pipe temperature measurement values are assigned to the pipes selected according to the order of low heat generation and maximum number of simultaneous heat generation. Supply power to the corresponding heating wire.

In one embodiment, the elevating unit, the elevating means for elevating the scaffold vertically; And a conveying means for conveying the loaded object or the worker in one direction from the inside of the scaffold, wherein the elevating means comprises: a scaffold formed above the scaffolding cylinder to vertically raise and lower the loaded object or the worker; And a scaffolding cylinder formed on one side of the frame plate to move the scaffold up and down.

In one embodiment, the chamber cooling cylinder is a vortex generating pipe is formed in at least one region of the inside, the vortex pipe is formed in at least one region inside the chamber cooling cylinder vortex pipe flows through; And a vortex generating unit disposed in one region inside the vortex piping to generate a vortex of the fluid, wherein the vortex generating unit comprises: at least one spiral blade coupled to a rotation axis; And a circumference portion in contact with an inner surface of the vortex pipe and to which the spiral blade is fixedly coupled.

In one embodiment, the chamber cooling tube further comprises a foreign material removing device in at least one region, the foreign material removing device, the outlet portion is formed at one end, the inlet is formed at the other end; A moving part disposed inside the main body part and reciprocating along a width direction of the main body part; And an elastic part coupled to the moving part and elastically moving in conjunction with the reciprocating motion of the moving part.

According to the present invention described above, at least a plurality of types of catalyst raw material is stirred in the raw material chamber inside the raw material chamber, so that the temperature of the raw material is maintained in the raw material chamber and the inside of the raw material chamber to the stirring guide wings formed in the raw material chamber as cooling means It does not harden or deteriorate by heat.

In addition, as a conventional 50 ~ 60um particle size of the aluminum hydroxide is pulverized into particles of 10um size, and added to the hydrochloric acid and the reactor to the reaction, in the process of producing poly aluminum chloride (PAC), small particles The aluminum hydroxide formed by reacting with hydrochloric acid can shorten the reaction time and minimize the residue.

In addition, in order to inject the raw material into the raw material chamber to move the raw material chamber when moving to the upper portion of the vertical transfer configuration and horizontal transfer configuration to provide the convenience of the operation.

The effects of the present invention are not limited to the above-mentioned effects, and various effects may be included within the scope apparent to those skilled in the art from the following description.

1 is a view showing a raw material chamber according to an embodiment of the present invention.
2 is a view showing a reactor apparatus according to an embodiment of the present invention.
3 and 4 are views showing the raw material chamber of the present invention.
5 is a view showing a chamber heat supply means according to an embodiment of the present invention.
6 is a flowchart illustrating a heating line control method according to an embodiment of the present invention.
7 is a flowchart illustrating a heating line control method according to another exemplary embodiment of the present invention.
8 illustrates a vertical moving unit according to an embodiment of the present invention.
9 is a view showing a lifting unit another embodiment of the present invention.
Figure 10 shows the vortex generating piping of the chamber cooling tube according to an embodiment of the present invention.
Figure 11 shows a part of the configuration of the chamber cooling tube according to another embodiment of the present invention.

DETAILED DESCRIPTION OF THE INVENTION The following detailed description of the invention refers to the accompanying drawings that show, by way of illustration, specific embodiments in which the invention may be practiced. These embodiments are described in sufficient detail to enable those skilled in the art to practice the invention. It is to be understood that the various embodiments of the invention are different but need not be mutually exclusive. For example, certain shapes, structures, and characteristics described herein may be embodied in other embodiments without departing from the spirit and scope of the invention in connection with one embodiment. In addition, it is to be understood that the location or arrangement of individual components within each disclosed embodiment may be changed without departing from the spirit and scope of the invention. The following detailed description, therefore, is not to be taken in a limiting sense, and the scope of the present invention is defined only by the appended claims, along with the full scope of equivalents to which such claims are entitled. Like reference numerals in the drawings refer to the same or similar functions throughout the several aspects.

Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the drawings.

1 is a view showing a raw material chamber according to an embodiment of the present invention, Figure 2 is a view showing a reactor device according to an embodiment of the present invention.

1 and 2, the reactor apparatus 10 includes a raw material chamber 100, a support part 200, a raw material chamber 200, a vertical moving part 300, and a controller 400.

The raw material chamber 100 is formed to stir and mix raw materials when a plurality of raw materials are added, and at least one of the raw material chambers 100 is formed on one side of the support part 200. The raw material chamber 100 is a chamber in which raw materials introduced and input from the outside, more specifically, at least two or more raw materials are received and mixed with the raw materials by stirring, and are formed to be mixed in a vacuum state by applying pressure therein. do.

The support unit 200 forms a space in which the worker moves to input the raw material into the raw material chamber 100, confirm the raw material mixing state, or control the raw material chamber 100. The support part 200 includes a frame plate 210 and a staircase 220. Frame plate 210 has a space is formed so that the worker can move smoothly when the worker goes up through the stairs (220).

The vertical moving part 300 is formed at both sides of the raw material chamber 100, and more specifically, the lifting cylinder 330 is formed inside the cylinder case 310, and the lifting case 330 is located above the lifting cylinder 330. 320 is connected to the lifting case 320 when the operation of the lifting cylinder 330 is characterized in that the lifting or lowering. At this time, the chamber cover 211b is connected to the elevating case 320 so that the chamber cover 211b is raised and lowered when the elevating cylinder 330 is lifted to open the chamber cover 211b in the chamber case 211a. Or is in close contact with each other.

The control unit 400 is for controlling the elevating cylinder 330 and the raw material chamber 100, and is formed on one side of the frame plate 210 and one side of the elevating case 320. The controller 400 is characterized in that the operator controls the operation in accordance with the set value by setting the mixing time, mixing temperature, mixing pressure of the raw material in advance. The control unit 400 includes a chamber operation panel 410, a mixing control panel 420, a display panel 421, and a mixing operation panel 422. The chamber movable panel 410 is for operating the lifting cylinder 330, and is formed at one side of the lifting case 320. The chamber movable panel 410 is characterized in that for controlling the on / off of the lifting cylinder 330. The mixing control panel 420 is for controlling the configuration associated with the raw material chamber 200 and is formed on the control unit 400 formed on the frame plate 110. The mixing control panel 420 is characterized in that for controlling the configuration of the raw material mixing, such as the stirring motor 222, the raw material mixing motor 230, the pressurized tank (not shown). The display panel 421 is for informing a worker of an operating state and is formed to display data such as temperature, pressure, motor speed, and the like. The display panel 421 is formed on the controller 400 formed in the frame plate 110. The mixing operation panel 422 is for resetting the stirring time, the stirring rotation speed, the raw material reference temperature, the raw material reference pressure, and the like, and is formed on the controller 400 formed on the frame plate 210.

3 and 4 are views showing the raw material chamber of the present invention.

3 and 4, the raw material chamber 100 includes a chamber case 111 a, a chamber cover 111 b, a chamber fixing stand 112, a liquid inlet 113, a raw material outlet 1214, and a raw material temperature sensor 1215. ), Chamber pressure gauge 116, raw material confirmation window 117, the first pressure pipe 118a, the second pressure pipe 118b, the pressure discharge member 119, the pressure sensor 120, the gas discharge pipe 121, Stirring motor 122, stirring blade 123, stirring guide blade 124, raw material mixing motor 130, motor connection housing 131, wing cooling tube 125, wing cooling water circulation means 126, chamber cooling The tube 127, the chamber cooling water circulating means 128, and the chamber heat supply means 600 are included.

The chamber case 111a is formed to contain the raw materials to be introduced, and is fixedly formed on the ground by the chamber fixing stand 112. The chamber case 111a is not damaged by a strong pressure, and the wall of the chamber case 111a is formed thick so that the inside thereof does not change according to the external temperature. The chamber cover 111b is formed at an upper portion of the chamber case 111a and is tightly formed. The chamber cover 111b is lifted up and down by the elevating cylinder 330, and is fixed and opened to the chamber case 111a. The chamber fixing stand 112 is for fixing the raw material chamber 100 from the ground. More specifically, the chamber fixing stand 112 is formed at both sides of the lower side of the chamber case 111a, and is fixed to the inner surface of the cylinder case 310.

The liquid injection hole 113 is for injecting a liquid raw material into the raw material chamber 100, and the liquid injection hole 113 is formed at one side of the lower portion of the chamber case 111a. The liquid raw material injected through the liquid injection hole 113 may be injected according to the amount and time set by the controller 400.

The raw material discharge port 114 is for discharging the mixed raw material mixed through the stirring in the raw material chamber 100 to the outside, and the raw material discharge port 114 is formed at the other side under the chamber case 111a. The mixed raw material discharged through the raw material discharge port 214 is automatically discharged at the mixing time set in the control unit 400, or when the manual discharge by the operator to open the valve formed in the raw material discharge port 214 to discharge the raw material.

The raw material temperature sensor 115 is formed to measure the temperature of the raw material mixed through the stirring in the raw material chamber 100, and the raw material temperature sensor 115 is formed at one side of the chamber cover 111b and the raw material. The temperature sensor 115 is characterized in that the chamber cover 111b is formed through the inside. The measured value measured by the raw material temperature sensor 115 is characterized in that to inform the operator through the display panel 421 of the control unit 400 in real time when mixing the raw material.

The chamber pressure gauge 116 measures the pressure inside the raw material chamber 100, measures the pressure of the raw material chamber 100 to be pressurized, and subsequently measures the pressure rising by the gas generated during raw material stirring. The chamber pressure gauge 116 is formed at one side of the first pressure pipe 118a.

The raw material confirmation window 117 is for checking the state of the raw material mixed through the stirring in the raw material chamber 100, wherein the raw material is in the mixed state, the color of the raw material, and whether the stirring blade 123 is damaged or not. And the like. The raw material confirmation window 117 is formed at one side of the upper side of the chamber cover 111b, and the raw material confirmation window 217 is formed of tempered glass resistant to heat and pressure.

The first pressurizing pipe 118a is to pressurize the inside of the raw material chamber 100 and is formed to one side of the chamber cover 111b so as to be engaged with the second pressurizing pipe 118b. The second pressure pipe 118b is formed so that one side of the first pressure pipe 118a is raised and lowered, and the other side is connected to a pressure tank (not shown) formed outside. That is, when the chamber cover 111b is lowered by the elevating cylinder 330 by the elevating cylinder 330, the first pressurizing pipe 118a is simultaneously lowered and engaged with the second pressurizing pipe 118b to be coupled to each other. The operation of the tank is characterized in that for forming the inside of the raw material chamber 100 in a vacuum state.

The pressure discharge member 119 is for discharging the pressure inside the raw material chamber 100 formed in a vacuum state to the outside, and the pressure discharge member 119 is formed at one side of the first pressure pipe 118a. The pressure discharged through the pressure discharge member 119 is a pressure discharge member during the pressure discharge to increase the pressure inside the raw material chamber 100 or to make the internal pressure equal to the external pressure when the chamber cover 111b is opened. Characterized in that it is discharged through (119).

The pressure sensor 120 is for measuring the pressure inside the raw material chamber 100. The pressure sensor 120 provides the measured value to the controller 400 to inform the worker through the display panel 421 formed in the controller 400. It is formed to. When the pressure sensor 120 is measured higher or lower than the pressure set by the controller 400, the pressure tank 120 is characterized in that for transmitting the pressure tank operating signal to the control unit 400 to maintain the set pressure value.

Gas discharge pipe 121 is for discharging the gas generated according to the characteristics of the raw material when the raw material stirring, the gas discharge pipe 121 is formed to be opened or closed manually by the operator, or automatically opened and closed of the control unit 400, The chamber cover 1211b is formed at an upper side.

The stirring motor 122 is a power means for rotating the stirring blades 123 formed in the raw material chamber 100, and is formed inside the lifting case 320 and the stirring motor inside the lifting case 320. The shaft of 122 is connected to the stirring blade 123 through the chamber cover 111b is characterized in that it is formed. That is, the stirring blade 123 for stirring the raw material is characterized in that a plurality of raw materials are mixed by the rotation of the stirring motor 122.

The stirring blade 123 is connected to the shaft of the stirring motor 122 and is formed in the raw material chamber 100, and is formed to stir a plurality of raw materials. Stirring blade 123 is formed of a plurality of wings, characterized in that formed in a plurality of vertical. The stirring blade is characterized in that formed at an angle so that the raw material rises from the bottom to the top when stirring.

The stirring guide blade 124 is formed inside the chamber cover 111b and is formed to be spaced apart from the stirring blade 123 by a predetermined interval. The stirring guide blade 124 is fixed to the chamber cover 111b, and a plurality of wings are formed in the vertical direction. The stirring guide blade 124 is formed at a predetermined angle in the opposite direction to the stirring blade 123 is formed so that the raw material rising by the stirring blade 123 is downward.

The raw material mixing motor 130 is to generate rotational power for allowing a plurality of raw materials formed inside the raw material chamber 100 to rotate at a constant speed. The raw material mixing motor 130 has a motor shaft chamber case. It penetrates through the 111a and the motor connection housing 131 and is fixedly formed under the motor connection housing 131.

The motor connection housing 131 is for connecting the raw material mixing motor 130 to the chamber case 111a and is formed below the chamber case 111a. That is, the plurality of raw materials stirred and mixed in the raw material chamber 100 is rotated at a constant speed by the primary raw material mixing motor 130, the raw material is moved from the bottom to the top by the secondary stirring blade 123. Stirring by raising, by lowering the third rising raw material by the stirring guide wing 124, it provides an effect of maximizing the mixing ratio of the raw material.

A plurality of raw materials stirred and mixed in the raw material chamber 100 is rotated at a constant speed by the primary raw material mixing motor 130, by raising the raw material from the bottom to the upper by the secondary stirring blade 123. It is characterized in that the stirring, and the raw material rises to the third by the stirring guide blade (124).

The wing cooling tube 125 is for cooling heat generated when mixing raw materials, and is formed inside the stirring guide wing 124 and is formed outside the chamber cover 111b through the stirring guide wing 124. It is characterized in that the connection is formed to the cooling water circulation means (126).

That is, the cooling water cooled by the wing cooling water circulation means 126 flows from one direction of the stirring guide blade 124 to the other direction to take away the heat of the raw material, and then moves to the wing cooling water circulation means 126 to cool the cooling water. It is done. The wing cooling water circulation means 126 is formed to lower the temperature of the circulating cooling water, and is formed on one side of the chamber cover 111b or the lowering case 320.

The chamber cooling tube 127 is for cooling the heat generated when mixing raw materials, and is formed between the inner wall and the outer wall of the chamber case 111a or is formed on the outer circumferential surface of the chamber case 111a.

Chamber heat supply means 600 is formed on the outer circumferential surface of the chamber case, the chamber heat supply means for supplying heat to the chamber case when the external temperature falls below a predetermined temperature

In the present invention, the chamber cooling tube 127 formed between the inner wall and the outer wall and the chamber cooling tube 127 formed on the outer circumferential surface of the chamber case 111a are selected and used. The chamber cooling water circulation means 128 is formed to lower the temperature of the circulating cooling water, and is characterized by being formed at one side of the lower chamber case 111a.

5 is a view showing a chamber heat supply means according to an embodiment of the present invention.

5, the chamber heat supply means 600 according to an embodiment of the present invention, a plurality of pipes (611, 612), a plurality of heating wires (621, 622), a plurality of pipe temperature sensor unit 631, 632 ), A plurality of individual controllers 641 and 642, a power line 650, a communication line 660, and an integrated controller 680. The number of the plurality of pipes 611 and 612, the plurality of heating wires 621 and 622, the plurality of pipe temperature sensor units 631 and 632 and the plurality of individual controllers 641 and 642 shown in FIG. As an example, various numbers of pipes, heating lines, pipe temperature sensor units, and individual controllers may be provided according to the use state.

The plurality of pipes 611 and 612 are formed on the outer circumferential surface of the chamber case to supply heat to the chamber case.

The plurality of heating lines 621 and 622 may be installed in a spiral shape on the outside while surrounding the plurality of pipes 611 and 612, and may generate heat when power is supplied through the power line 650. The plurality of heating wires 621 and 622 may be formed of a heating element such as a nichrome wire (or a constant temperature wire, a heating cable) that generates heat when power is supplied, and may include various types of heating elements in a range known to those skilled in the art. Can be configured. As an example,

The plurality of pipe temperature sensor units 631 and 632 may be attached to the outside of the plurality of pipes 611 and 612 or buried or closely attached to a heat insulating material surrounding the outside. The plurality of pipe temperature sensor units 631 and 632 may measure the pipe temperature of the corresponding pipe and output the pipe temperature measured values to the plurality of individual controllers 641 and 642. Meanwhile, when the plurality of pipe temperature sensor units 631 and 632 are installed in close proximity to the plurality of heating lines 621 and 622, the pipe temperature may not be accurately measured due to the heat emitted from the plurality of heating lines 621 and 622. Therefore, the plurality of pipe temperature sensor units 631 and 632 may be disposed on opposite sides of the heating lines 621 and 622 with respect to the center of the respective pipes 611 and 612 so as not to overlap the plurality of heating lines 621 and 622. Can be installed.

The plurality of individual controllers 641 and 642 receive the pipe temperature measurement value from the corresponding pipe temperature sensor unit among the pipe temperature sensor units 631 and 632 to the integrated control device 180 through the communication line 660. You can print The plurality of individual controllers 641 and 642 and the integrated control device 680 may transmit and receive data to each other using an one-to-many (1: N) communication scheme such as RS-485 through an integrated communication line 660. have. Accordingly, each of the plurality of individual controllers 641 and 642 may output an identification signal for identifying the individual controller to the integrated controller 680 together with the pipe temperature measured value, and the integrated controller 680 may According to the identification signal, it is possible to know whether each pipe temperature measurement value transmitted from the plurality of individual controllers 641 and 642 is a pipe temperature measurement value corresponding to which pipe among the plurality of pipes 611 and 612. In addition, the plurality of individual controllers 641 and 642 supply power from corresponding heating lines among the plurality of heating lines 621 and 622 according to a power transmission control signal received from the integrated control device 680 through the communication line 660. You can decide whether or not. As described above, the plurality of individual controllers 641 and 642 and the integrated control device 680 can transmit and receive data with each other using a one-to-many (1: N) communication method, and from the integrated control device 680 The output power transmission control signal may be transmitted to a plurality of individual controllers 641 and 642. Here, the power transmission control signal may include a selection signal for selecting any one of a plurality of individual controllers (641, 642), each of the plurality of individual controllers (641, 642) integrated control device (680) Determining whether the selection signal included in the power transmission control signal corresponds to the self, and if the selection signal included in the power transmission control signal corresponds to itself, supplying power to the heating line corresponding to the power transmission control signal. You can decide whether or not.

The power line 650 may be connected between the integrated controller 680 and the plurality of individual controllers 641 and 642, and between the plurality of individual controllers 641 and 642 and the plurality of heating lines 621 and 622. The power line 650 may transmit power supplied from the integrated control device 680 to the plurality of heating lines 621 and 622 through the plurality of individual controllers 641 and 642. Since a plurality of heating lines 621 and 622 are connected to one power line 650 through a plurality of individual controllers 641 and 642, wiring of the power line 650 may be reduced, and the control of the integrated controller 680 may be performed. Since the total amount of power supplied to the plurality of heating lines 621 and 622 can be distributed, the thickness of the power line 650 can be reduced.

The integrated controller 680 receives pipe temperature measurement values from the plurality of individual controllers 641 and 642 through the communication line 660 and supplies power to the plurality of heating lines 621 and 622 according to the pipe temperature measurement values. A power transmission control signal for determining whether or not to be supplied may be generated and transmitted to the plurality of individual controllers 641 and 642. As described above, the power transmission control signal may include a selection signal for selecting any one of the plurality of individual controllers 641 and 642.

The integrated control device 680, for example, determines the power supply priority of the plurality of heating wires 621, 622 according to the pipe temperature measurement values received from the plurality of individual controllers (641, 642), and determine the power supply According to the priority, a power transmission control signal for sequentially supplying power to the plurality of heating lines 621 and 622 may be generated and output to the plurality of individual controllers 641 and 642. For example, the integrated controller 6180 may preferentially supply power to a heating line corresponding to a pipe having the lowest pipe temperature measured value among the plurality of pipes 6111 and 612, and preferentially corresponds to a heating wire to which power is supplied. After the pipe temperature measurement value of the pipe is sufficiently high, the power supply of the pipe may be cut off, and power may be sequentially supplied to the heating wire corresponding to the pipe with the next lowest pipe temperature measurement value. As such, the integrated controller 680 may determine the power supply priority of the plurality of pipes 611 and 612 according to the order in which the pipe temperature measured values are low.

Here, the integrated control device 680 is a method for supplying or cutting off power to the heating wire corresponding to the pipe selected in accordance with the power supply priority, for example, if the pipe temperature measurement value is lower than the first reference temperature, the heating line. When power is supplied to the pipe temperature measured value is higher than the second reference temperature may be to cut off the power supplied to the heating line. That is, the reference temperatures for supplying power to the plurality of heating lines 621 and 622 and cutting off the power supply may be set to the first reference temperature and the second reference temperature, respectively. As an example, the first reference temperature may be set to 0 ° C., and the second reference temperature may be set to 4 ° C. The second reference temperature is prepared in consideration of the safety between the plurality of pipes (611, 612) and the plurality of heating lines (621, 622) or the error and error of the plurality of pipe temperature sensor unit (631, 632) in consideration of safety. It may be set to a value within the range of 5 ° C to 10 ° C.

6 is a flowchart illustrating a heating line control method according to an embodiment of the present invention.

The heating line control method illustrated in FIG. 6 may be performed by the integrated control device 680, in particular, the heating line control unit (not shown).

Referring to FIG. 6, the heating line control method may first include monitoring a pipe temperature measurement value of a plurality of pipes (S11). The integrated control device 680 may receive the pipe temperature measurement values measured by the plurality of pipe temperature sensor units 631 and 632 through a plurality of individual controllers 641 and 642 and monitor them at regular intervals. The monitoring period may be set according to the external temperature or may be set by an administrator.

Next, the method may include a step (S12) of supplying power to a heating line corresponding to a pipe having a pipe temperature measured value equal to or less than a first reference temperature. That is, the heating line control unit transmits electric power for supplying power to the heating line corresponding to the corresponding pipe when the pipe temperature measurement value which is less than or equal to the first reference temperature among the pipe temperature measurement values input from the plurality of individual controllers 641 and 642 exists. The control signal may be generated and transmitted to the plurality of individual controllers 641 and 642.

The plurality of individual controllers 641 and 642 may control power supply to the plurality of heating lines 621 and 622 by controlling the power transmission switch unit 243 according to the received power transmission control signal.

Next, when the pipe temperature measurement value of the pipe to which the power is supplied reaches the second reference temperature may include the step (S13) of shutting off the power supply to the heating wire corresponding to the pipe. That is, the integrated control device 680 determines that the pipe temperature is sufficiently high that the water flowing in the pipe does not freeze when the pipe temperature measured value is greater than or equal to the second reference temperature, and supplies power to the heating wire corresponding to the pipe. Shut down can save power.

On the other hand, after determining the power supply priority of the plurality of pipes in the order of low pipe temperature measurement value, it is possible to supply power to the plurality of heating lines according to the power supply priority.

7 is a flowchart illustrating a heating line control method according to another exemplary embodiment of the present invention. The heating line control method illustrated in FIG. 7 may be performed by the integrated control device 680, in particular, the heating line control unit (not shown).

Referring to FIG. 7, the heating line control method may first include a step (S21) of monitoring pipe temperature measured values of a plurality of pipes. The integrated control device 680 may receive the pipe temperature measurement values measured by the plurality of pipe temperature sensor units 631 and 632 through the plurality of individual controllers 641 and 642 and may monitor each of the cycles. The monitoring period may be set according to the external temperature or may be set by an administrator.

Next, the method may include the step (S22) of interrupting power supply to the heating wire corresponding to the pipe having the pipe temperature measured value greater than or equal to the second reference temperature. That is, the integrated control device 680, when the pipe temperature measured value is greater than or equal to the second reference temperature determines that the pipe no longer needs to be kept warm, and cuts off the power supplied to the heating wire corresponding to the pipe to cut power. Can be saved.

Next, the heating line control unit (not shown) may include a step (S23) of determining whether the number of pipes whose pipe temperature measurement value is equal to or less than the first reference temperature is equal to or less than the maximum number of simultaneous heat generation. Here, the maximum number of simultaneous heat generation may be determined according to the maximum transmission capacity of the power line 650 as the maximum number of heating lines that the power supply unit (not shown) can supply power through the power line 650 at the same time. For example, when the power consumption of each of the plurality of heating lines is 10kw and the maximum transmission capacity of the power line 650 is 50kw, the maximum number of simultaneous heat generation may be five. On the other hand, the administrator may set the maximum number of simultaneous heating to less than five.

Next, when the number of pipes whose pipe temperature measured value is equal to or less than the first reference temperature is less than or equal to the maximum number of simultaneous heat generation (S23-> YES), power is supplied to the heating wire corresponding to the pipe whose pipe temperature measured value is equal to or less than the first reference temperature. It may include the step (S24). That is, when the number of pipes whose pipe temperature measured value is less than or equal to the first reference temperature is less than or equal to the maximum number of simultaneous heat generation, power can be supplied to all heating lines corresponding to pipes whose pipe temperature measured value is less than or equal to the first reference temperature. Therefore, the heating line control unit (not shown) may supply power to the heating line corresponding to the pipes whose pipe temperature measurement value is equal to or less than the first reference temperature. On the other hand, the heating line control method according to another embodiment of the present invention, after performing step S24 may be performed again step S21.

Next, when the number of pipes whose pipe temperature measured value is equal to or less than the first reference temperature is larger than the maximum number of simultaneous heat generation possible (S23-> NO), the pipes selected according to the order in which the pipe temperature measurement values are low and the maximum number of heat generation possible simultaneously. It may include the step (S25) for supplying power to the heating line corresponding to the field. That is, when the number of pipes whose pipe temperature measured value is less than or equal to the first reference temperature is larger than the maximum number of simultaneous heating possible, heating lines corresponding to pipes whose pipe temperature measured value is less than or equal to the first reference temperature due to the limitation of the maximum capacity of the power line. Since it is not possible to supply power to both of them, it is possible to select the maximum number of pipes capable of simultaneous heating according to the order of low pipe temperature measurement, and to supply heating wires corresponding to the selected pipes.

For example, the first reference temperature is 0 ° C, the maximum number of simultaneous heat generation is 3, and the pipe temperature measured values of pipes A, B, C, D, and E are -2 ° C, -1.5 ° C, -1 ° C, In case of -0.5 ℃, 1 ℃, there are 4 pipes of A, B, C, D whose pipe temperature measured value is lower than the 1st reference temperature, but the maximum number of simultaneous heat is 3, so that the pipe A, B, C, D Not all heating wires can supply power, and only the heating wires of three pipes, that is, pipes A, B, and C, can be supplied in the order of low pipe temperature measurement. Of course, in this case, the pipe D does not supply power to the heating wire even though the measured pipe temperature is less than or equal to the first reference temperature.However, if the heating wires of the pipes A, B, and C are supplied with power, the pipe temperatures of the pipes A, B, and C are Since the pipe temperature measurement values are lower than the pipe temperature measurement values of pipes A, B, and C when the pipe temperature measurement values are monitored in step S21, which is performed after step S25, since Power can be supplied to the heating wire. Therefore, the number of heating wires simultaneously supplied with power can be reduced by the heating line control method as described above, thereby reducing the instantaneous maximum power consumption (peak power).

Meanwhile, in the heating line control method according to the present invention, the first reference temperature and the second reference temperature may be changed by a management terminal (not shown), or may be automatically changed according to an external temperature measurement value and the number of pipes. Can be. In addition, the heating line control method according to the present invention can be terminated by the control of the manager at any point performed by the heating line control unit 283.

8 illustrates a vertical moving unit according to an embodiment of the present invention.

Referring to FIG. 8, the vertical moving part 300 includes a cylinder case 310, a lifting case 320, a lifting cylinder 330, a cylinder connecting plate 340, a lifting guide bar 350, and lifting It includes a falling sensor 360.

The cylinder case 310 is fixed to the ground on both sides of the raw material chamber 100, and is formed to protect the lifting cylinder 330 formed therein from the outside.

The elevating case 320 is formed above the elevating cylinder 330, and a connection between the elevating case 320 and the elevating cylinder 330 is formed by the cylinder connecting plate 340.

The elevating cylinder 330 is a power source for elevating the elevating case 320 is formed inside the cylinder case 310 is fixed to the ground.

The lower portion of the elevating cylinder 330 is fixed to the ground, the upper portion of the cylinder shaft is formed to be coupled to one side of the cylinder connecting plate 340.

The cylinder connecting plate 340 is a connection plate for coupling between the cylinder shaft of the lifting cylinder 330 and the lifting case 320.

The elevating guide bar 350 is formed so that the elevating case 320, which is raised and lowered during operation of the elevating cylinder 330, ascends smoothly without shaking, one side of the elevating guide bar 350 Is formed so as to ascend and descend through the upper cylinder case 310, the other side is fixedly formed on one side of the elevating case (320).

That is, the lifting guide bar 350, which is fixed to one side of the elevating case 320 when the elevating cylinder 330 is raised and lowered, is moved up and down into the cylinder case 310 to prevent shaking from occurring. do.

The lifting sensor 360 is configured to set the rising height and the downward height of the lifting case 320 to sense a height when a predetermined height rises or descends.

The elevating sensor 360 is characterized in that for sensing the elevating guide bar 350 is formed in the member formed on the cylinder case 310, the elevating.

As shown in the figure, the elevating case 320 is elevated by the elevating cylinder 330, the chamber cover (211b) is connected to the lowering case 320 when the elevating the elevating case 320 It is characterized in that the rising and falling at the same time.

9 is a view showing a lifting unit another embodiment of the present invention.

Referring to FIG. 9, the reactor device 10 of the present invention further includes a lift unit 500.

The lifting unit 500 is formed to transfer the raw material to the upper portion of the frame plate 210, or to move the worker without going through the stairs 220, the lifting unit 500 is one side of the frame plate 210. Is formed.

The lifting unit 500 further includes a lifting unit 510 and a transfer unit 520.

The lifting means 510 is to move the load vertically, or to move the worker to the upper portion of the frame plate 210.

The conveying means 520 is characterized in that for moving a load or a worker to be moved vertically in the horizontal direction.

The lifting means 510 includes a footrest 511 and a footrest cylinder 512.

The scaffold 511 is formed so as to load an object or climb the operator, the scaffold 511 is fixed by the scaffold cylinder 512 formed on both sides, and is separated from the ground by a certain height.

The scaffolding cylinder 512 is a power source for elevating or lowering the scaffold 511, and the scaffolding cylinder 512 is formed at both sides of the scaffold 511, and is provided on the lower surface of the scaffold 511. Bond is formed.

The conveying means 520 includes a conveying conveyor belt 521, a conveying roller 522, and a conveying conveyor belt 521.

The conveying belt 521 is formed in the center of the scaffolding 511 and the object or the worker to be transported to the upper conveying belt 521 is rotated when the conveying conveyor belt 521 is rotated when the conveying roller 522 is rotated in the horizontal direction In order to move to, characterized in that the conveying conveyor belt 521 is rotated to move in the horizontal direction when stopped after moving to the upper side of the frame plate 210 by the lifting of the footrest 511.

The conveying roller 522 is formed between a plurality of conveying conveyor belt 521, the feed roller 522 of one side is rotated when the conveying motor 523 is operated to rotate the conveying belt 521, a plurality of conveying The roller 522 is characterized in that the rotation.

The transfer motor 523 is connected to a transfer roller 522 formed on one side, thereby providing power for rotating the transfer conveyor belt 521 by rotating the transfer roller 522.

Figure 10 shows the vortex generating piping of the chamber cooling tube according to an embodiment of the present invention.

Referring to FIG. 10, the vortex generating pipe 700 is formed in at least one region inside the chamber cooling cylinder 127 to form a helical flow (ie, a vortex) in an incoming fluid. By generating, the fluid can function more effectively in the chamber cooling cylinder 127. For example, as the flow path of the fluid is lengthened by the helical flow (i.e., the contact area and time with the conduit in the chamber cooling cylinder 127 becomes longer), the cooling effect of the cooling water, the descaling effect of the descaling liquid, the compression The removal effect of the residual water of air, etc. can be improved more.

The vortex generating pipe 700 may include a vortex pipe 710 and a vortex generating unit 720.

The vortex piping 710 is formed in at least one region inside the chamber cooling cylinder 127, and may provide a space in which the fluid flows and a space in which the vortex generator 720 is disposed. The vortex piping 710 may be detachably coupled with other pipes of the chamber cooling cylinder 127. For this purpose, threads 714 and 714 'are formed at both ends of the chamber cooling cylinder 127. In one embodiment, the vortex piping 710 is detached from the chamber cooling water circulation means. Can be combined.

The vortex generator 720 is disposed in a region inside the vortex pipe 710 and may include at least one spiral wing 722 and a circumference 724. Here, the helical blade 722 may be coupled to at least one of the rotational axes to generate a helical flow of the fluid while rotating when the fluid flows. In addition, the circumference 724 is in contact with the inner surface of the vortex piping 710, the outer end of the spiral blade 722 may be coupled. When the spiral blade 722 is rotated through the circumference 724, friction or impact that may occur between the spiral blade 722 and the inner surface of the vortex piping 710 may be reduced or eliminated.

To this end, the circumference 724 preferably has a shape corresponding to the inner surface of the vortex pipe 710 that the circumference 724 is in contact with, but is not limited thereto.

In addition, the duct 712 of the vortex pipe 710 adjacent to the vortex generating part 720 (for example, in front of the vortex generating part 720) of the vortex pipe 710 toward the vortex generating part 720 toward the vortex generating part 720. It can be formed so that the cross-sectional area is small. That is, the flow of the fluid may be more concentrated to increase the moving speed of the fluid, and allow the fluid to flow in the central region of the spiral blade 722. This creates and promotes a faster helical flow of the fluid, and reduces the chance of contact of the fluid with the helical wing 722, especially when the fluid flows into the peripheral region (except the central region) of the helical wing 722. The problem of not forming a flow can be prevented.

On the other hand, the threads 714, 714 'of the vortex pipe 710 protrudes inward to a predetermined length, and is formed adjacent to the vortex generator 720, so that the vortex generator 720, in particular the vortex generator 720 Movement of the perimeter 724 may be limited. That is, as the vortex generator 720 rotates according to the flow of the fluid, the vortex generator 720 moves in the flow direction of the fluid, thereby causing an unintended shock or an unintended vortex in the pipe. In this case, the movement of the vortex generator 720 may be prevented through the threads 714 and 714 '.

Figure 11 shows a part of the configuration of the chamber cooling tube according to another embodiment of the present invention.

As shown in FIG. 11, the chamber cooling tube according to another embodiment of the present invention may further include a foreign matter removing apparatus 800 in at least one region, and the foreign matter removing apparatus 800 may include a chamber case 111a. It may be formed to protrude on the outer peripheral surface.

Sludge or scale may be formed inside the chamber cooling tube, and a foreign material removing device 800 may be coupled to at least one region of the chamber cooling tube to remove such sludge or scale. The debris removing device 800 may be formed to protrude on the outer peripheral surface of the debris removing device 800, the manager removes the debris removing device 800, the chamber case (111a) in order to remove the scale or sludge Can be operated externally. In particular, by forming at least one region of the outer circumferential surface of the chamber case 111a where the foreign matter removing device 800 is formed of a transparent material, the user visually checks the state in which the scale is formed inside the chamber cooling tube 127. You can do that.

The foreign substance removing apparatus 800 is installed in one region of the chamber cooling tube 127 to communicate with the chamber cooling tube 800, and may remove the scale formed in the chamber cooling tube 127. The foreign substance removing apparatus 800 may be removed. When the diameter of the chamber cooling tube 127 is narrowed due to the scale or other residues, by removing the scale, it is possible to prevent the backflow phenomenon, etc. According to the embodiment, a plurality of foreign matters in the chamber cooling tube 127. The removal device 800 may be formed.

As illustrated in FIG. 11, the foreign material removing apparatus 800 may include a main body 810, a moving part 820, and an elastic part 830.

Referring to FIG. 11A, an outlet 811 may be formed at one end of the main body 810, and an inlet 812 may be formed at the other end thereof. In addition, an accommodating space is formed inside the main body 810 to accommodate the moving part 820 and the elastic part 830. The outlet 811 may be coupled to and communicate with the chamber cooling tube 127, the moving unit 820 may enter and exit the inside of the pipe via the outlet 811. As shown in FIG. 11A, the outlet 811 may be formed in a circular shape, and may have the same size as that of the diameter of the hole formed in the outlet 811 and the diameter of the moving part 820. Can be. Through this, even if the moving part 820 reciprocates into the chamber cooling tube 127 through the outlet, the fluid inside the pipe may not be introduced into the main body 810. The inlet 812 is where the moving part 820 located outside the main body part flows into the main body part 810 before the user exerts a force. As shown in FIG. 11A, a jaw is formed in the inlet 812 to limit the movement distance of the moving part 820.

The moving unit 820 may be disposed inside the main body 810 to reciprocate along the width direction of the main body 810. As illustrated in FIG. 11, a locking jaw 821 may be formed in at least one region of the outer circumferential surface of the moving unit 820, and the locking jaw 821 and the elastic unit 830 are coupled to each other to move the moving unit 820. And the elastic portion 830 may be interlocked with each other. In addition, the locking jaw 821 is locked to the outlet 811 of the body portion 810, it is possible to adjust the length of the moving portion 820 inserted into the chamber cooling tube 127 to a predetermined length.

In addition, as shown in FIG. 11, a scale removing plate 822 may be formed at one end of the moving part 820 connected to the inside of the chamber cooling tube 227, and a user force may be applied to the opposite end of the moving part 820. A receiving press portion 823 may be formed. The pressing unit 823 may be formed to have a large surface area in order to sufficiently receive the user's force. In one embodiment, the pressing unit 823 may be formed in a form similar to the push button of the urinal, and through this, a general person, not an expert, may easily operate the foreign substance removing device of the present invention.

The scale removing plate 822 is a part directly contacting the scale formed inside the chamber cooling tube 127, and may be formed in a wide surface area as illustrated in FIG. 11. Through this, even when the scale is formed inside, the scale can be easily removed. However, this is an exemplary form, and the scale removing plate 822 may be formed in various forms according to the embodiment, such as brush form, awl form, circular or polygonal form having a large surface area according to the embodiment. Can be.

In one embodiment, the descaling plate 823 may be omitted, in which case one end of the moving unit 820 may serve as the descaling plate 823.

The elastic part 830 is coupled to the moving part 820 and may elastically move in conjunction with the reciprocating motion of the moving part 820. The elastic part 830 is a structure for maintaining the moving part 820 at a predetermined position, and may be formed of an elastic body. That is, the elastic part 830 is contracted when an external force is applied, and allows the moving part 820 to move into the chamber cooling tube 127 inside the moving part 820, and when the external force is removed, the moving part 820 returns to its original state. ) Will return to its original state. As shown in (b) of FIG. 11, the elastic part 830 may be formed of a spring. However, the elastic part 830 may be formed of various materials having excellent deformation and restoring force, such as rubber or silicon, according to an exemplary embodiment. .

In one embodiment, the foreign matter removing apparatus 800 may be detachable from the chamber cooling tube 127. To this end, the chamber cooling tube 127 may further include a coupling part (not shown) coupled to the foreign material removing apparatus 800. For example, the debris removal device 800 is to form a screw groove (not shown), then normally shield the coupling portion (not shown) by using a stopper, to remove the scale in the chamber cooling tube 127 At this time, the user can remove the scale after coupling the foreign matter removal apparatus of the present invention to the coupling portion 800.

Looking at the operation of the debris removal device 800 according to an embodiment of the present invention, first, as shown in FIG. 11 (a), scale may occur in the chamber cooling tube 127. Next, as shown in Figure 11 (b), the user presses the pressing portion 823 of the foreign material removing apparatus 800 of the present invention, the scale removing plate 822 while pushing the scale chamber cooling the scale The pipe 127 can be detached from the inner wall effectively.

The above-described embodiments are for illustrative purposes, and those skilled in the art to which the above-described embodiments belong may easily change to other specific forms without changing the technical spirit or essential features of the above-described embodiments. I can understand. Therefore, it is to be understood that the above-described embodiments are illustrative in all respects and not restrictive. For example, each component described as a single type may be implemented in a distributed manner, and similarly, components described as distributed may be implemented in a combined form.

The scope to be protected by the present specification is represented by the following claims rather than the above description, and should be construed to include all changes or modifications derived from the meaning and scope of the claims and their equivalents. .

10: reactor device
100: raw material chamber
200: support
300: vertical moving part
400: control unit
500: lift
600: chamber heat supply means
700: vortex generating piping
800: debris removal device

Claims (2)

At least one raw material chamber receiving a plurality of raw materials introduced from the outside and mixing the raw materials through stirring;
A support part for supporting the raw material chamber and forming a working space of an operator;
A vertical moving part formed on both sides of the raw material chamber and vertically moving upward or downward;
A control part formed in at least one region of the support part to control the raw material chamber and the vertical moving part; And
Further comprising a lifting unit for moving the input raw material or the operator to the upper portion,
The raw material chamber,
A chamber case formed under the raw material chamber; A chamber cover formed on the chamber case; A chamber fixing stand fixed to an inner surface of the cylinder case at both sides of the chamber case to fix the raw material chamber from the ground; A liquid injection hole formed at one side of the lower side of the chamber case to inject a liquid raw material into the raw material chamber; A raw material outlet formed at one side of the lower side of the chamber case in order to discharge the mixed raw materials through stirring; A raw material temperature sensor penetrating through one side of the chamber cover to measure a temperature of the raw material stirred in the raw material chamber; A chamber manometer formed on one side of the first pressure pipe to measure the pressure in the raw material chamber; A raw material confirmation window formed on one side of an upper portion of a chamber cover to identify a raw material stirred in the raw material chamber; A first pressure pipe formed to be detachably attached to an external second pressure pipe at one side of the upper chamber cover to pressurize the inside of the raw material chamber; A second pressure pipe connected to one side of the frame plate such that the first pressure pipe is detachably attached to press the inside of the raw material chamber, and is connected to an external pressure tank; A pressure discharge member formed on one side of the first pressure pipe to discharge the pressure inside the raw material chamber; A pressure sensor formed at one side of the first pressure pipe; A gas discharge pipe formed on one side of the chamber cover to discharge the gas generated in the raw material chamber; A stirring motor formed inside a lifting case provided above the chamber cover to generate rotational power for stirring a plurality of raw materials provided in the raw material chamber; A stirring blade which is connected to a shaft of the stirring motor passing through the chamber cover to mix a plurality of raw materials in rotation and is formed toward an inner side of the chamber case; Stirring guide blade formed to one side of the lower chamber cover to maximize the mixing ratio of the raw material by cross-mixing the raw material; A raw material mixing motor in which a motor shaft penetrates under the motor connecting housing to rotate the plurality of raw materials; A motor connection housing connecting the raw material mixing motor to the chamber case; Wing cooling tube is connected to the wing cooling water circulation means formed to one side through the chamber cover in the stirring guide wing to cool the heat generated when mixing the raw materials; Wing cooling water circulation means formed on one side of the chamber cover to circulate the cooling water through the wing cooling tube; A chamber cooling tube formed between an inner wall and an outer wall of the chamber case to cool heat generated in the raw material chamber when the raw materials are mixed; Chamber cooling water circulation means for circulating cooling water through the chamber cooling tube; And a chamber heat supply means formed on an outer circumferential surface of the chamber case and supplying heat to the chamber case when the external temperature falls below a predetermined temperature.
The vertical moving unit,
A cylinder case formed on the ground on both sides of the raw material chamber; A lifting cylinder formed on both sides of the raw material chamber; An elevating case formed on an upper elevating cylinder and being elevated by the elevating cylinder; A cylinder connecting plate formed to connect the lifting cylinder and the lifting case; An elevating guide bar which is formed on the elevating case and is connected to the elevating case to prevent shaking during the elevating by the elevating cylinder; And an elevating sensor formed on one side of the elevating guide bar in order to sense height during operation of the elevating cylinder.
The chamber heat supply means,
A plurality of pipes formed on an outer circumferential surface of the chamber case; A plurality of heating lines installed in the plurality of pipes and generating heat when power is supplied through a power line; A plurality of pipe temperature sensor units installed in the plurality of pipes and measuring pipe temperature of the pipe to output pipe temperature measurement values; The pipe temperature measurement unit receives the pipe temperature measurement value from the corresponding pipe temperature sensor unit among the plurality of pipe temperature sensor units and outputs it to the communication line, and the corresponding heating line among the plurality of heating wires according to the power transmission control signal received through the communication line. A plurality of individual controllers for determining whether to supply power; And receiving the pipe temperature measurement values from the power supply unit controlling the power supply to the power line and the amount of power supplied to the power line through the communication line, and supplying power to the plurality of heating lines according to the pipe temperature measurement value. Including an integrated control device including a heating wire control unit for generating the power transmission control signal for determining whether to supply the transmission to the plurality of individual controllers,
The heating line control unit determines a power supply priority of the plurality of heating lines according to the pipe temperature measurement values, and supplies a power transmission control signal for sequentially supplying power to the plurality of heating lines according to the power supply priority. Generate and output to the plurality of individual controllers,
The heating line control unit,
When the power supply to the heating wire corresponding to the pipe of which the pipe temperature measured value is greater than or equal to the second reference temperature is cut off, and the number of pipes whose pipe temperature measured value is equal to or less than the first reference temperature is equal to or less than the maximum number of simultaneous heat generation, the pipe temperature is measured. When the power is supplied to a heating wire corresponding to a pipe whose value is less than or equal to the first reference temperature, and the number of pipes whose pipe temperature measurement value is less than or equal to the first reference temperature is greater than the maximum number of simultaneous heat generation, the pipe temperature measurement value is low in order. And Reactor apparatus for supplying power to the heating wire corresponding to the selected pipes in accordance with the maximum number of simultaneous heating possible.
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