KR102005334B1 - Industrial stirrer with improved stability and stirring efficiency - Google Patents

Abstract

In the present invention, the upper end coupled with the stirring wing of the conventional 'T' type industrial blender, which is generally used as a basic form of the industrial blender, is welded to the supporting column frame to easily replace consumables, The vibration of the support frame is severe and the power loss is caused and the durability of the support frame is shortened due to the wear and breakage of the parts and the mixing of the raw materials located at the tip of the tank relatively far away from the stirring wing A lower end supporting frame, a BTB mixing control unit, a stirring tank, and a mixing tank. The mixing tank is provided with a mixing tank and a stirring tank, and the mixing tank is manually moved. The vibration of the support frame that transmits the rotational power during the raw material agitation and the vibration of the support frame By minimizing the recoil, it minimizes the wear and tear of components, thus reducing the loss of rotational power, preventing overloading of the machine, lowering the failure rate by improving the life of the parts, and facilitating partial unloading of consumables. An object of the present invention is to provide an industrial stirrer which can be easily replaced and which improves the stability and the stirring efficiency such that the raw material is automatically mixed to the corner of the stirring tank.

Description

INDUSTRIAL STIRRER WITH IMPROVED STABILITY AND STIRRING EFFICIENCY BACKGROUND OF THE INVENTION 1. Field of the Invention [0001]

The present invention relates to a stirrer for stabilizing a support frame that transmits rotational power during stirring of raw materials of an industrial blender so as to minimize vibration, noise, and recoil due to friction and resistance generated during stirring, And more particularly to an industrial stirrer having improved stability and stirring efficiency.

The industrial blender is designed to mix and mix large amounts of raw materials in various fields such as cosmetics, pharmaceuticals, chemicals and foods in a short period of time through the rotation of large stirring blades or various kinds of industrial blenders for dissolving, diluting, dispersing, Has been developed and commercialized.

The 'T' type industrial blender, which is a basic type among various industrial blenders, is easy to move because it is light in weight and is widely used and is widely used. It is difficult to replace the consumables because the upper end coupled with the stirring wing and the supporting column frame are welded , The vibrations of the support frame combined with the integrated structure are severely vibrated during stirring, resulting in loss of power, durability and short life due to wear and breakage of parts, .

In addition, since the stirring wing is only rotated and the stirring wing can not move in the front, rear, left, and right directions, mixing of the raw materials located at the end corners of the tank relatively far away from the stirring wing is not properly performed, And there is a risk that the inner side surface of the stirring tank touches the agitating blade when the agitating tank is manually moved, thereby causing a risk of breakage.

In order to solve the above problems, the present invention minimizes vibration, noise, and recoil of a support frame that transmits rotational power during stirring of raw materials, thereby reducing wear and breakage of parts, thereby reducing loss of rotational power, Improving the life of the parts to lower the failure rate and simplifying the partial detachment of the consumable parts to easily replace untrained workers and to improve the stability and the stirring efficiency to automatically mix the raw materials to the corners of the stirring tank An object of the present invention is to provide an industrial stirrer.

To achieve the above object, according to the present invention, there is provided an industrial stirrer having improved stability,

The frame is horizontally formed in a shape of a rectangle whose front upper end is inclined in the lower end direction and is connected to the upper end of the lower end support frame and is rotated in the left and right direction by receiving a driving signal, An upper body for rotating the stirring vanes,

A lower support frame which supports the industrial stirrer and transmits driving power, and a lower support frame which supports the industrial stirrer and transmits drive power,

And a BTB mixing control unit coupled to a rear side of the upper end surface of the lower support frame for transmitting and controlling driving signals of the upper body and the lower support frame.

As described above, according to the present invention, it is possible to improve the stability of the coupling of the support frame that transmits the rotational power during the raw material stirring, thereby minimizing vibration, noise, and recoil due to friction and resistance generated during stirring, By reducing the damage, it is possible to reduce the loss of rotational power, to prevent overloading of the device, to improve the service life of the parts, to lower the failure rate, to easily replace the unattended worker, So that the raw material can be automatically mixed into the corners of the container.

1 is a perspective view showing an overall shape of an industrial stirrer having improved stability according to the present invention,
FIG. 2 is an exploded perspective view of an industrial stirrer having improved stability according to the present invention,
FIG. 3 is a perspective view illustrating the components of the upper body according to the present invention,
4 is a perspective view illustrating the components of the lower support frame according to the present invention,
5 is a perspective view showing components of the control board of the BTB mixing control unit according to the present invention,
6 is a partially enlarged view showing an enlarged view of a portion where a stirring tank and a stirring tank moving cylinder are coupled,
FIG. 7 is a sectional view showing an embodiment in which the upper body coupled with the stirring vane is lifted and lowered by raising and lowering the cylinder frame according to the present invention,
8 is a diagram showing an embodiment in which the stirring tank is reciprocally moved through the forward and backward movement of the stirring tank moving cylinder according to the present invention,
9 is an exploded perspective view showing components of the main support frame according to the present invention in an exploded manner and showing components constituted by an automatic reverse rotation motor in the worm gear portion,
10 is an exploded perspective view showing components of the main support frame according to the present invention in an exploded view and showing a component in which a manual rotation handle is formed in a worm gear portion,
11 shows an embodiment in which the upper body according to the present invention is reciprocally moved in the left and right direction and is stirred in the inner left and right direction of the stirring tank,
12 is a view showing an embodiment in which the left limit sensing plate according to the present invention is sensed by the first limit switch as the left limit sensing plate is rotated in the clockwise direction and the operation shaft is sensed by the third limit switch,
13 is a view showing an embodiment in which the right limit sensing plate according to the present invention is sensed by the second limit switch as the right limit sensing plate is rotated counterclockwise, and the operation shaft is sensed by the fourth limit switch and the rotation is stopped.

Hereinafter, preferred embodiments of the present invention will be described with reference to the drawings.

FIG. 1 is a perspective view illustrating an overall shape of an industrial stirrer having improved stability according to the present invention. The upper body 100, the lower support frame 200, and the BTB mixing controller 300 are shown in FIG.

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First, the upper body 100 according to the present invention will be described.

The upper body 100 is horizontally formed as a rectangular frame whose one end in the front upper end is inclined in the lower end direction and is coupled to the upper end of the lower end support frame, And is rotated in the left and right direction to rotate the stirring blade located at the lower front end.

This is composed of an upper frame 110, a stirring driving motor unit 120, and a stirring wing unit 130.

The upper frame 110 is a rectangular frame formed horizontally in the lengthwise direction of the upper and lower ends of the upper frame 110. The upper frame 110 includes a stirring driving motor unit having one side of the front upper end surface inclined in the lower end direction and being coupled to the lower rear side, And is connected to the BTB mixing control unit and is reciprocally rotated left and right.

The stirring drive motor unit 120 has a motor shape in which a rotary shaft is protruded in a vertical upper direction on a rear side of a lower end face of the upper frame, a decelerator is coupled to an upper end of the motor, and is connected to the stirring wing through a power transmission belt, It serves to provide.

This transfers rotation power to the stirring vane 132 to stir the raw material.

The stirring wing 130 is rotated by receiving the rotational power of the stirring driving motor unit, and the upper end of the stirring wing 130 is vertically coupled to the upper end of the lower end surface of the upper frame. do.

As shown in Fig. 3, this is constituted by a stirring rotation shaft 131 and a stirring wing 132.

The stirring rotation shaft 131 receives rotation power through the power transmission belt connected to the stirring drive motor unit and is rotated in the axial direction.

The stirring vanes 132 are formed in the shape of a circular plate coupled to the lower end of the stirring rotation shaft and protrude at regular intervals along the circumference and rotate about the center axis of the stirring rotation shaft to stir the raw materials.

Next, the lower support frame 200 according to the present invention will be described.

The lower support frame 200 is a cylindrical frame formed with a rectangular frame at the lower end thereof and supporting the upper body vertically upright on one side of the upper end of the upper end of the upper support frame 200. The lower support frame 200 receives a drive signal of the BTB mixing control unit, And supports the industrial stirrer as a whole and transmits the driving power.

This consists of a main support frame 210, a square support frame 220, and a stirring tank movement cylinder 230.

The main support frame 210 supports the upper body as a whole in a cylindrical shape vertically upright at the center of the lower end surface of the upper body, rotates in the left and right directions, and vertically moves up and down.

8 and 9, the upper coupling frame 211, the cylinder frame 212, the lower coupling frame 213, the worm wheel 214, the worm gear portion 215, 216, and an operation shaft 217.

The upper coupling frame 211 has a hollow cylindrical shape with a protruding protrusion formed along the outer circumference of the upper part and is rotated in the left and right directions according to the rotation of the worm wheel.

The cylinder frame 212 is vertically mounted on the upper end of the upper joint frame and is raised and lowered through hydraulic pressure in a cylindrical shape and vertically moves up and down the upper body coupled to the upper end.

The lower coupling frame 213 has an upright hollow cylindrical shape and an inner hollow hole equal to the peripheral area of the upper coupling frame is formed to receive the upper coupling frame and support the upper body as a whole.

This includes a first limit switch 213a, a second limit switch 213b, a third limit switch 213c, and a fourth limit switch 213d.

The first limit switch 213a is fixedly coupled to one side of the upper left side of the lower coupling frame 213 so that the worm wheel 214 is rotated in the left direction through the forward rotation of the worm gear portion 215, Rotation motor incorporated in the worm gear portion 215 is stopped and the rotation direction is switched to rotate in the reverse direction when the detection portion 214a reaches the detection position.

As shown in FIG. 12, when the front side of the upper body is rotated in the leftward direction, when the left limit sensing plate 214a reaches a predetermined position, it senses the first position and stops the rotation in the left direction.

This prevents the upper body from rotating to a certain extent in the left direction to prevent an accident that the stirring vane 132 collides with the left side of the inner side of the stirring tank 400 and smooth stirring to the material located in the left side corner of the stirring tank .

The second limit switch 213b is fixedly coupled to one side of the upper right side surface of the lower coupling frame 213 and the worm wheel 214 is rotated in the right direction through the reverse rotation of the worm gear portion 215, 214b reach the detection position, the reverse rotation of the automatic reverse rotation motor built in the worm gear portion 215 is stopped, and the rotation direction is switched to rotate in the forward direction.

As shown in FIG. 13, when the front face of the upper body is rotated in the rightward direction, when the right limit sensing plate 214b reaches a predetermined position, it senses the first position and stops rotation in the right direction.

As a result, the upper body is stopped to rotate only to a certain extent in the right direction, thereby preventing an accident that the stirring vane 132 collides with the inner side of the right side of the stirring tank 400 and smooth stirring is performed up to the raw material located at the corner of the right side of the stirring tank Respectively.

The third limit switch 213c is fixedly coupled to one left side of the upper rear surface of the lower coupling frame 213 so that the worm wheel 214 is rotated in the left direction through the forward rotation of the worm gear portion 215, , The forward rotation of the automatic reverse rotation motor built in the worm gear portion 215 is stopped and the rotation direction is switched to rotate in the reverse direction.

As shown in FIG. 12, when the front end of the upper body is rotated in the leftward direction, when the operation shaft 217 reaches a predetermined position, it senses the second movement and stops the rotation in the leftward direction.

Accordingly, even if an error occurs or a failure occurs in the first limit switch 213a, it is possible to prevent an accident that the stirring wing 132 senses the second time and collides with the left side of the inner side of the stirring tank 400, So that smooth stirring can be achieved.

The fourth limit switch 213d is fixedly coupled to one right side of the upper rear surface of the lower coupling frame 213 so that the worm wheel 214 is rotated in the right direction through the reverse rotation of the worm gear portion 215, , The reverse rotation of the automatic reverse rotation motor built in the worm gear portion 215 is stopped and the rotation direction is switched so that the rotation is made in the forward direction.

As shown in FIG. 13, when the front end of the upper body is rotated rightward, when the operation shaft 217 reaches a certain position, it senses the second movement and stops rotation in the rightward direction.

Accordingly, even if an error occurs or a failure occurs in the second limit switch 213b, it is possible to prevent an accident that the stirring wing 132 senses a secondary and collides with the right side of the inner side of the stirring tank 400, Ensure smooth stirring up to the raw material.

The worm wheel formed at the upper end of the lower coupling frame 213 through the first limit switch 213a, the second limit switch 213b, the third limit switch 213c and the fourth limit switch 213d according to the present invention And the right rotation angle of the upper body is cut off. When the upper body is reciprocally rotated in the left and right direction, the stirring wings 132 are rotated in the stirring tank 400) to prevent accidental contact with the inside of the tank, and to ensure smooth stirring to the raw materials located at the left and right side of the stirring tank.

The worm wheel 214 is formed as a ring-shaped band between the upper and lower coupling frames, is engaged with the upper coupling frame, and is formed at regular intervals along the periphery.

This includes a left limit sensing plate 214a and a right limit sensing plate 214b.

The left limit sensing plate 214a is fixedly coupled to the left side of the lower end of the worm wheel 214 so that the position of the left limit sensing plate 214a is moved or released to the sensing range of the first limit switch 213a with respect to the center axis Reciprocating.

Here, the right limit sensing plate 214b is fixedly coupled to one side of the right side of the lower end of the worm wheel 214 so that the position of the right limit sensing plate 214b is moved or released to the sensing range of the second limit switch 213b with respect to the center axis Reciprocating.

The worm gear portion 215 has a worm gear engaged with a side surface of the worm wheel, and a worm gear driving motor for transmitting a worm gear rotational force is connected through a timing belt to provide rotational power to the worm wheel do.

The automatic worm gear portion 215a and the manual worm gear portion 215b are selectively coupled to each other.

The automatic worm gear portion 215a functions to rotate the worm gear, which is rotated by being engaged with one side of the front face of the worm wheel, in a forward or reverse direction automatically to transmit the driving power to the worm wheel. A power transmission chain 215a-2, and an automatic reverse rotation motor 215a-3.

Here, the worm gear 215a-1 is positioned in mesh with the gear on one side of the front face of the worm wheel, receives the driving power in accordance with the forward or reverse rotation of the automatic reverse-rotation motor 215a-3 and rotates the worm wheel clockwise or counterclockwise As shown in FIG.

Here, the power transmission chain 215a-2 is connected to the rotation shaft of the worm gear and the rotation shaft of the automatic reverse rotation motor to transmit the driving power of the automatic reverse rotation motor to the worm gear.

Here, the automatic reverse rotation motor 215a-3 is formed parallel to the upper end of the worm gear, and transmits the driving power to the worm gear through the power transmission chain by repeating forward rotation and reverse rotation according to the driving signal do.

The automatic worm gear portion 215a according to the present invention repeats forward and reverse rotations and rotates the worm wheel 214 engaged with the gears clockwise or counterclockwise so that the upper body is automatically repetitively moved in the left and right directions So that it can be smoothly stirred to the raw materials in the left and right corners of the stirring tank.

The worm gear 215b-1 serves to transmit the driving power to the worm wheel by manually or manually rotating the worm gear, which is engaged with one side of the worm wheel, in the forward or reverse direction, , And a manual rotation handle 215b-2.

Here, the worm gear 215b-1 is positioned in mesh with the gear on one side of the front face of the worm wheel, and receives the driving power in accordance with the forward or reverse rotation of the manual rotation handle 215b-2 to rotate the worm wheel clockwise or counterclockwise It rotates.

Here, the manual rotation handle 215b-2 is a handle formed in front of the rotation axis of the worm gear 215b-1 and serves to transmit driving power to the worm gear connected to the worm gear 215b-1.

Thus, the agitating blade is rotated and moved to a portion where the raw agitating is not properly performed on the left and right sides, so that the agitating tank can be smoothly agitated to the raw materials in the left and right corners of the agitating tank.

The semi-circular arc-shaped coupling part 216 is symmetrical with the semi-circular arc shaped frame and has bolt holes formed at regular intervals in the vertical direction to engage the upper end surface of the worm wheel 214 and the upper coupling frame 211 .

The worm wheel is engaged with the worm gear portion, and when the worm wheel is worn out due to the continuous rotation, the bolts joined at a predetermined interval are removed at the upper portion so that the joining portion can be easily attached and detached.

The operation shaft 217 is coupled to the worm gear support portion with the worm wheel interposed therebetween, and transmits the rotational force applied to the worm wheel to the upper body.

When the worm wheel 214 is moved to the left according to the forward rotation of the worm wheel 214, it is sensed by the third limit switch 213c. When the worm wheel 214 is moved to the right according to the reverse rotation, it is sensed by the fourth limit switch 213d.

The rectangular supporting frame 220 supports a main support frame on one side of the top surface in front of the top surface, and supports the BTB mixing control unit on the rear side of the top surface.

The stirring tank moving cylinder 230 is cylindrically coupled symmetrically to the front left and right sides of the upper surface of the rectangular plate supporting frame. One side of the stirring cylinder is coupled to the rear left and right sides of the stirring tank, Backward direction.

6, a first stirring tank fastening thread 231 is formed at the front end of a cylinder formed symmetrically to the left and right sides, and a second stirring tank fastening thread 231 formed at the lower left and right lower ends of the stirring tank The first stirring tank fastening thread 231 and the second stirring tank fastening thread 401 are fastened to each other through the threaded frame 232 in the state of being in contact with the inner wall 401 to move the stirring tank 400 in the forward and backward directions .

Through this, stirring is smoothly performed to the raw materials located in the front and rear corners of the stirring tank 400.

Next, the BTB mixing control unit 300 according to the present invention will be described.

The BTB mixing controller 300 is coupled to a rear side of the upper end of the lower support frame to transmit and control driving signals of the upper body 100 and the lower support frame 200.

The rotating blade RPM control unit 320 includes a power unit 310, a timer control unit 330, a swing driving unit 340, a rotational force control unit 350, a rotating blade up / down control unit 360, and an emergency stop control unit 370 .

The power supply unit 310 serves to supply power to the industrial blender as a whole.

The rotary blade RPM control unit 320 controls the rotation speed of the stirring blade to be automatically raised and lowered by measuring the friction and resistance according to the viscosity of the raw material by rotating the stirring blade.

This is because the rotation speed divided by 1 ~ 9 steps is automatically selected based on the resistance value measured according to the concentration and viscosity of the raw material when rotating the sample, so that the rotation speed of the rotary wing is raised and lowered.

In this case, if the viscosity of the raw material is high, the rotation speed of the rotary blade is lowered to prevent the overload due to the friction and the resistance generated in the rotary blade, and the number 2, 3, 4, 5 and 6 , 7, 8, and 9, the rotation speed increases, and in the case of the high-numbered 9th stage, when the viscosity of the raw material is low, the rotating speed of the rotary blades is increased so that the raw material can be stirred smoothly.

Thus, the rotation speed is automatically selected according to the viscosity of the raw material and rotated to increase the efficiency of the raw material stirring, reduce the vibration and noise caused by friction and resistance during stirring, and can be manually switched.

The timer control unit 330 measures the friction and resistance according to the viscosity of the raw material by rotating the stirring vane, automatically sets the stirring time, and the industrial blender is operated for the set time so that the stirring is performed. As shown in FIG.

This is because the rotation time divided into 1 to 9 steps is automatically selected based on the resistance value measured according to the concentration and viscosity of the raw material when the sample is rotated, and it is set in inverse proportion to the rotary blade RPM controller 320.

When the viscosity of the raw material is low, the rotation speed of the rotary blades is shortened because the stirring is completed in a relatively short time, and the rotation speed of the rotary blades is reduced to 2, 3, 4, 5, 6, 7, The rotation time increases as the temperature rises and the rotation speed of the rotary blades is extended when the viscosity of the raw material is high so that the raw materials can be smoothly stirred.

Accordingly, the driving of the industrial blender can be stopped at the time when the stirring of the raw material is completed, thereby improving driving efficiency, preventing unnecessary consumption of energy, and enabling manual selection and further stirring.

The swing drive unit 340 sets the automatic and manual control of the rotation of the upper body in the left and right directions and the movement of the stirring tank in the forward and backward directions and controls the rotation of the upper body in the left and right directions, And selectively controls backward movement.

The automatic and manual control unit 340a is formed to select automatic or manual operation of the upper body and the stirring tank. When the manual operation is selected, the rotation of the worm gear unit is selectively controlled through the swing knob 340b, · Selectively control the right rotation and selectively control the movement of the stirring tank in the forward and backward directions by selectively controlling the cylinder movement of the stirring tank moving cylinder.

This allows the operator to directly control and stir to the corner where the stirring is not performed when the user observes with the naked eye.

The rotational force control unit 350 performs a function of automatically rotating up and down the rotational force of the stirring vane by measuring the friction and resistance according to the viscosity of the raw material by rotating the stirring vane.

This is because the rotating force divided by 1 ~ 9 steps is automatically selected based on the resistance value measured according to the concentration and viscosity of the raw material when rotating the sample, so that the rotational force of the rotating blade is raised and lowered.

In this case, if the viscosity of the raw material is low, the rotation speed of the rotary blades is lowered so that the raw materials can be smoothly stirred. In the first stage, the number of rotations is 2, 3, 4, 5, 6, 7, The higher the number of turns, the higher the number of steps, and the higher the viscosity of the raw material, the friction and resistance caused by the rotor to prevent overload.

Accordingly, the rotation intensity is automatically selected according to the viscosity of the raw material to rotate the raw material, thereby improving the efficiency of stirring the raw material, reducing the vibration and noise caused by friction and resistance during stirring, and manually selecting the rotation.

The rotary vane ascending / descending control unit 360 raises and lowers the cylinder frame formed at the upper end of the main support frame to move the material stirring vane vertically up and down.

This is used to place the stirring tank at the lower end of the stirring vane or to raise the stirring tank in which the stirring is completed when the stirring is performed, and can automatically move up and down by a predetermined height when stirring the raw material.

This allows smooth stirring from the upper corner to the lower corner of the raw material introduced into the agitating tank, and manual selection switching is also possible.

The emergency stop control unit 370 controls the driving force by temporarily shutting down the overall control in a dangerous situation or an unexpected situation when the industrial stirrer rotates.

This can prevent unexpected accidents by temporarily shutting down the power required for driving the industrial blender and stopping all motions.

Next, the stirring tank 400 according to the present invention will be described.

The stirring tank 400 has a cylindrical shape with an open upper end and accommodates the raw material introduced into the stirring tank 400, and a moving wheel is formed symmetrically in the left and right directions in front and rear of the lower end.

In addition, the stirring tank 400 according to the present invention is formed with a second stirring tank fastening thread 401 protruding symmetrically on the rear lower left and right sides.

Here, the second stirring tank fastening thread 401 is formed so as to coincide with the stirring tank moving cylinder formed symmetrically on the left and right sides of the rectangular supporting frame 220, and the first stirring tank fastening screw Threaded.

Through this, the stirring tank 400 is moved in the forward and backward directions when the stirring tank moving cylinder 230 is reciprocated forward and backward to smoothly stir the raw materials in the front and rear corners.

Hereinafter, the specific operation of the industrial stirrer having improved stability and stirring efficiency according to the present invention will be described.

First, the raw material is fed to the upper end of the stirring tank and is positioned at the vertical lower end of the stirring wing, and then the cylinder frame is lowered so that the stirring wing is locked in the raw material.

Next, after the first agitating tank fastening screw and the second agitating tank fastening screw are aligned, the stirring tank is fixed to the stirring tank moving cylinder through the threaded frame.

Next, the stirring blade is rotated to sample, and RPM, stirring time, and stirring torque of the stirring blades are automatically set based on the measured friction and resistance according to the viscosity of the raw material.

Here, it is also possible for the operator to manually select the RPM of the stirring vane, the stirring time, and the stirring torque.

At this time, when the stirring driving motor unit 120 is rotated, a rotating force is transmitted to the stirring blade through the power transmission belt, and the stirring blade is rotated.

As the worm gear of the worm gear portion is reciprocally rotated in the forward and reverse directions, the worm wheel rotates and the upper body rotates to the left and right. As the cylinder frame reciprocates in the upward and downward directions, As the stirring tank is reciprocated forward and backward of the stirring tank moving cylinder, the stirring tank is moved in the forward and backward directions to smoothly stir the raw material located in the corner portion of the stirring tank.

1: Industrial stirrer 100: Upper body
110: upper frame 120: stirring drive motor unit
130: stirring wing part 200: lower end supporting frame
210: main support frame 220: square support frame
230: stirring tank moving cylinder 300: BTB mixing control unit
310: power supply unit 320: rotary blade RPM control unit
330: timer control unit 340: swing drive unit
350: rotation force control unit 360: rotation blade up / down control unit
370: Emergency stop control unit 400: Stirring tank

Claims (8)

The frame is horizontally formed in a shape of a rectangle having a front upper end and a lower end in a longitudinal direction, and is coupled to an upper end of the lower support frame. The driving signal of the BTB mixing control unit is received and rotated in the left- An upper body 100 for rotating a stirring blade located at a lower front end,
Shaped frame having a rectangular plate shape at the lower end thereof and vertically upright on one side of the upper end of the upper face to support the upper body and receives the driving signal of the BTB mixing control part to move up and down in the vertical direction to support the industrial stirrer as a whole A lower support frame 200 for transmitting driving power,
And a BTB mixing control unit 300 coupled to one side of a rear side of the upper end of the lower support frame for transmitting and controlling driving signals of the upper body 100 and the lower support frame 200, As a result,
The lower support frame 200
A main support frame 210 supporting the upper body as a whole in the shape of a cylinder upright vertically at the center of the lower end surface of the upper body and rotating the upper body in the left and right directions to vertically move up and down,
A square supporting frame 220 supporting a main support frame on one side of the top surface in front of the top surface and supporting the BTB mixing control unit on the rear side of the top surface,
A cylinder shape coupled symmetrically to the front left and right sides of the upper surface of the rectangular plate support frame and coupled to a pin groove formed on the rear left and right sides of the front side of the stirring tank, And a tank moving cylinder (230). The industrial stirrer has improved stability and stirring efficiency.
delete delete delete The apparatus of claim 1, wherein the main support frame (210)
An upper coupling frame 211 having a hollow cylindrical shape with a projecting step formed along the upper outer periphery and rotated in the left and right directions in accordance with the rotation of the worm wheel,
A cylinder frame 212 vertically lifting and lowering the upper body coupled to the upper end by raising and lowering the oil through a hydraulic pressure in a cylindrical shape built in the upper end of the upper joint frame,
A lower coupling frame 213 which is formed in an upright hollow cylindrical shape and has an inner hollow hole having the same peripheral area as the upper coupling frame to receive the upper coupling frame and support the upper body as a whole,
A worm wheel 214 formed between the upper and lower coupling frames in a circular strip shape and coupled to the upper coupling frame and having gears formed at regular intervals along the periphery,
A worm gear unit 215 incorporating a worm gear engaged with a side surface of the worm wheel and connected to the worm gear driving motor through a timing belt for transmitting rotational power to the worm gear,
A semicircular contact portion 216 symmetrically formed with a semi-circular arc shaped frame and having bolt holes formed at regular intervals in the vertical direction to connect the upper end surface of the worm wheel to the upper engagement frame,
And an operating shaft (217) coupled to the worm gear support portion via the worm wheel and transmitting rotational force to the worm wheel to the upper body.
6. The apparatus of claim 5, wherein the lower coupling frame (213)
When the worm wheel 214 is rotated in the left direction through the forward rotation of the worm gear portion 215 to reach the detection position of the left limit sensing plate 214a by being fixedly connected to one side of the upper left surface of the lower coupling frame 213, A first limit switch 213a for stopping the forward rotation of the automatic reverse rotation motor built in the worm gear portion 215 and switching the rotational direction,
When the worm wheel 214 rotates in the right direction through the reverse rotation of the worm gear portion 215 and reaches the sensing position of the right limit sensing plate 214b by being fixedly coupled to one side of the upper right side surface of the lower coupling frame 213, A second limit switch 213b for stopping the reverse rotation of the automatic reverse rotation motor built in the worm gear unit 215 and switching the rotation direction,
When the worm wheel 214 is rotated in the leftward direction through the forward rotation of the worm gear portion 215 to reach the detection position of the operation shaft 217, A third limit switch 213c for stopping the forward rotation of the automatic reverse rotation motor built in the gear portion 215 and switching the rotational direction,
When the worm wheel 214 is rotated in the right direction through the reverse rotation of the worm gear portion 215 to reach the detection position of the operation shaft 217 at the upper right rear side of the upper rear face of the lower coupling frame 213, And a fourth limit switch (213d) for stopping the reverse rotation of the automatic reverse rotation motor built in the gear unit (215) and for changing the rotational direction.
The stirring tank moving cylinder (230) according to claim 1, wherein the stirring tank moving cylinder
A first stirring tank fastening thread 231 is formed at the front end of the cylinder symmetrically formed on the left and right sides of the cylinder and the second stirring tank fastening thread 401 formed at the lower left and right lower ends of the stirring tank, And the first stirring tank tightening thread 231 and the second stirring tank tightening thread 401 are fastened to each other through the fastening bolt 232 to move the stirring tank 400 in the forward and backward directions. Made industrial stirrer.
The apparatus of claim 1, wherein the BTB mixing controller (300)
A power supply unit 310 that supplies power to the industrial blender as a whole,
A rotary blade RPM control unit 320 for controlling the rotation speed of the stirring blade to be automatically raised and lowered by measuring the friction and resistance according to the viscosity of the raw material by rotating the stirring blade,
A timer control unit for automatically rotating the stirrer to measure the friction and resistance according to the viscosity of the raw material to automatically set the stirrer time and to allow the industrial mixer to operate for the set time, (330)
Automatic and manual control of left and right rotation of the upper body and forward and backward movement of the stirring tank are set and the rotation of the upper body in the left and right direction and control of the forward and backward movement of the stirring tank are selectively controlled A swing drive unit 340,
A rotation force control unit 350 for controlling the rotation and rotation of the stirring blade automatically by measuring the friction and resistance according to the viscosity of the raw material by rotating the stirring blade,
A rotary vane ascending / descending control unit 360 for raising and lowering the cylinder frame formed at the upper end of the main support frame to vertically move the material stirring vane vertically,
And an emergency stop control unit (370) for temporarily shutting off the overall control in a dangerous situation or an unexpected situation when the industrial stirrer rotates, so as to control the driving force, and the stability and stirring efficiency of the industrial stirrer are improved.

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