Gypsum batten semi-dry method intelligent feeding system

Abstract

The invention provides a gypsum batten semi-dry method intelligent feeding system, which comprises a main material cylinder, a transverse auger screw and a control system connected with the main material cylinder and the transverse auger screw, a first consistency sensor and a second consistency sensor are connected with the control system, and a detected consistency value is compared with a consistency value set in the control system; and timely supplementing gypsum, deionized water or a water reducing agent according to a detection result. The full-intelligent production line is formed, the production efficiency of the phosphogypsum battens is greatly improved, the quality of the obtained phosphogypsum battens is uniform, and the product requirements are met.

Description

Technical Field

[0001] The invention belongs to the technical field of building gypsum production, and in particular relates to a semi-dry intelligent feeding system for gypsum strip boards. Background Art

[0002] Gypsum building materials are currently mostly manufactured by the casting method, and the water-to-cement ratio is relatively large. The water required for the reaction of hemihydrate gypsum with water to form dihydrate gypsum is only 18% of the total weight of the hemihydrate gypsum, while the water-to-cement ratio of the casting method is currently above 40%, which results in a large amount of free water and attached water in the newly made casting gypsum building materials, which requires a long time of drying and drying. The semi-dry method has a water-to-cement ratio of less than 30%, which reduces the drying and drying time and the cost of using the yard. The free water and attached water quickly reach an absolutely dry state after medium-temperature drying and directly enter the sales link; it reduces carbon emissions and saves related costs. It is currently a more commonly used production method. However, in the prior art, the output of phosphogypsum is huge, and the product quality of phosphogypsum is different from that of desulfurized gypsum. When phosphogypsum is used to produce gypsum laths, the quality of the gypsum laths obtained between different batches and even within the same batch varies greatly due to the difference in quality. In the production process, the raw material ratio needs to be adjusted during the feeding process so that the quality of the obtained gypsum laths is uniform. However, in the prior art, the raw materials are mostly matched and adjusted manually before entering production, which greatly affects the production efficiency. Summary of the invention

[0003] In order to solve the problems in the prior art, the present invention provides a semi-dry intelligent feeding system for gypsum strips. By intelligently transforming the feeding system to form a fully intelligent production line, the production efficiency of phosphogypsum strips is greatly improved, and the obtained gypsum strips are of uniform quality and meet product requirements.

[0004] The present invention solves the technical problem by adopting the following technical solutions:

[0005] The object of the present invention is to provide a semi-dry intelligent feeding system for gypsum strip boards, comprising a main material barrel, a transverse auger screw and a control system connecting the main material barrel and the transverse auger screw, wherein the main material barrel comprises a main material mixing bin, a plurality of feeding ports arranged at the top of the main material mixing bin, and a discharge port arranged at the bottom of the main material mixing bin, a solenoid valve is arranged at the bottom of the feeding port, and a gravity sensor is arranged inside the solenoid valve; a first consistency sensor is arranged at the bottom of the inner side of the main material mixing bin; the transverse auger screw comprises a transverse auger, a transverse auger feeding port arranged at one end of the transverse auger screw, a gypsum feeding port, a water reducing agent feeding port and a second consistency sensor arranged inside the transverse auger, and a transverse auger discharge port is also arranged at the end of the transverse auger opposite to the transverse auger feeding port; the discharge port is connected to the transverse auger feeding port;

[0006] The first consistency sensor and the second consistency sensor are connected to the control system, and compare the detected consistency value with the consistency value set in the control system. When the consistency value detected by the first consistency sensor is higher than the preset value, the system calculates the amount of water to be added according to the difference in the consistency values, and replenishes water from the feeding port, while increasing the speed of the stirring motor in the main barrel; when the consistency value detected by the first consistency sensor is lower than the preset value, the system calculates the amount of gypsum to be added according to the difference in the consistency values, replenishes gypsum from the feeding port, and increases the speed of the stirring motor in the main barrel; when the consistency value detected by the second consistency sensor is higher than the preset value, the system calculates the amount of water-reducing agent to be added according to the difference in the consistency values, replenishes water-reducing agent from the water-reducing agent replenishing port, and increases the speed of the horizontal auger motor; when the consistency value detected by the second consistency sensor is lower than the preset value, the system calculates the amount of water-reducing agent gypsum to be added according to the difference in the consistency values, replenishes gypsum from the gypsum replenishing port, and increases the speed of the horizontal auger motor.

[0007] Furthermore, there are three feeding ports, the first feeding port is connected to the first premixing cylinder, the second feeding port is connected to the second premixing cylinder, and the third feeding port is connected to deionized water; the first premixing cylinder is used for premixing gypsum and recycled fiber, and the second premixing cylinder is used for premixing water reducer, defoamer and retarder.

[0008] Furthermore, three independent weighing chambers are arranged above the main material mixing bin, a solenoid valve is arranged at the bottom of the weighing chamber, a gravity sensor is arranged inside the solenoid valve, and the upper parts of the three weighing chambers are the first feeding port, the second feeding port and the third feeding port respectively. The gypsum and recycled fiber premixed by the first premixing barrel are injected into the first weighing chamber through the first feeding port, the water reducer, defoamer and retarder premixed by the second premixing barrel are injected into the second weighing chamber through the second feeding port, and deionized water is injected into the third weighing chamber through the third feeding port until the weight sensed by the gravity sensor meets the weight required for production, the injection is stopped, the gates at the bottom of each weighing chamber are opened, and the materials enter the main material mixing bin for stirring and mixing.

[0009] Furthermore, the amount of deionized water / gypsum / water reducer that needs to be supplemented is: the difference between the detected consistency value and the preset value / preset value*original amount of deionized water / gypsum / water reducer*coefficient. The coefficient varies according to the type of material and the time of supplementation. When deionized water is supplemented in the main material mixing bin, the coefficient is 0.5%, when gypsum is supplemented in the main material mixing bin, the coefficient is 0.1%, when the water reducer is supplemented in the spiral of the horizontal auger, the coefficient is 0.1‰, and when gypsum is supplemented in the spiral of the horizontal auger, the coefficient is 0.5‰.

[0010] Furthermore, the premixing time in the first premixing barrel is 5 minutes, and the premixing time in the second premixing barrel is 1 minute.

[0011] Furthermore, the stirring time of the main barrel is 16 minutes, and the passing time of the horizontal auger spiral is 3 minutes.

[0012] Furthermore, the first consistency sensor detects the consistency of the material in the main material mixing bin at the 6th minute and the 11th minute after the start of feeding from the main material barrel, and compares it with the preset value.

[0013] Furthermore, the second consistency sensor detects the consistency of the material inside the transverse auger screw at the 19th minute after the start of feeding into the main barrel, and compares it with a preset value.

[0014] Furthermore, a stirring paddle is provided in the main material stirring bin, and the stirring paddle is connected to a stirring motor, and the stirring motor is arranged at the outer bottom of the main material stirring bin, and the stirring paddle is rotated under the drive of the stirring motor to stir the material.

[0015] Furthermore, a transverse auger motor is provided at the feeding end of the transverse auger spiral, and the transverse auger is rotated under the drive of the transverse auger motor to stir and transport the materials.

[0016] Furthermore, the water reducing agent feeding port and the gypsum feeding port are arranged at the lower end of the second consistency sensor.

[0017] Furthermore, the horizontal auger outlet is connected to a vertical feeding device, which includes a second driving vertical feeding motor and a feeding shaft connected to the vertical feeding motor, and the feeding shaft is arranged inside the shell, and the feeding shaft is a spiral shaft.

[0018] Furthermore, a vertical feeding inlet is arranged at the upper end of the vertical feeding device, and a vertical feeding outlet is arranged at the bottom end. The vertical feeding inlet is connected to the horizontal auger outlet, and the vertical feeding outlet is connected to the extruder.

[0019] Furthermore, the material passes through the vertical feeding device for 3 minutes, and the material is extruded from the extruder for 1 minute.

[0020] Furthermore, there are multiple main barrels, and the discharge port of each main barrel is connected to the feed port of the horizontal auger.

[0021] Compared with the prior art, the beneficial technical effects of the present invention are:

[0022] The present invention controls the main material barrel, the horizontal auger screw, the vertical feeding device, and the extruder through a control system, and realizes real-time detection of the consistency of the main material mixing bin and the inside of the horizontal auger screw during the material production process through the first consistency sensor and the second consistency sensor, and timely replenishes gypsum, deionized water or water reducing agent according to the detection results, so that the quality of the obtained gypsum strip is uniform, avoiding the problems of uneven quality of the phosphogypsum strip in the prior art, poor product quality, high unqualified rate, etc. The present invention forms a fully intelligent production line, greatly improves the production efficiency of phosphogypsum strips, and meets product requirements.

[0023] The above description is only an overview of the technical solution of the present invention. In order to more clearly understand the technical means of the present invention, it can be implemented according to the contents of the specification. In order to make the above and other purposes, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are listed below. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 The present invention is a front view of a semi-dry intelligent feeding system for gypsum strip boards.

[0025] Figure 2 It is a side view of a semi-dry intelligent feeding system for gypsum strip boards of the present invention.

[0026] Figure 3 This is a partially enlarged view of a semi-dry intelligent feeding system for gypsum strip boards of the present invention.

[0027] In the accompanying drawings, 1 is the main material barrel, 2 is the horizontal auger spiral, 3 is the vertical feeding device, 4 is the extruder, 101 is the first consistency sensor, 102 is the spiral feeder, 103 is the main material mixing bin, 104 is the third feeding port, 105 is the second feeding port, 106 is the first feeding port, 107 is the third weighing chamber, 108 is the second weighing chamber, 109 is the first weighing chamber, 110 is the gravity sensor, 111 is the discharge port, 112 is the stirring motor, 201 is the horizontal auger feed port, 202 is the horizontal auger motor, 203 is the horizontal auger, 204 is the second consistency sensor, 205 is the gypsum feeding port, 206 is the water reducer feeding port, 207 is the horizontal auger discharge port, 301 is the vertical feeding motor, and 302 is the feeding shaft. DETAILED DESCRIPTION

[0028] The technical solution of the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be understood that the following embodiments are only exemplary illustrations and explanations of the present invention and should not be construed as limiting the scope of protection of the present invention. All technologies implemented based on the above content of the present invention are included in the scope of protection that the present invention is intended to protect.

[0029] In addition, unless otherwise specified, various raw materials, reagents, instruments and equipment used in the present invention can be purchased from the market or prepared by existing methods.

[0030] See also Figure 1-Figure 3 A semi-dry intelligent feeding system for gypsum strip board includes a main material barrel 1, a horizontal auger screw 2 and a control system connecting the main material barrel 1 and the horizontal auger screw 2. The main material barrel 1 includes a main material mixing bin 103, a plurality of feeding ports arranged at the top of the main material mixing bin 103, and a discharge port 111 arranged at the bottom of the main material mixing bin 103. A solenoid valve is arranged at the bottom of the feeding port, and a gravity sensor 110 is arranged inside the solenoid valve; the inner side of the main material mixing bin 103 A first consistency sensor 101 is arranged at the bottom; the horizontal auger screw 2 includes a horizontal auger 203, a horizontal auger feed port 201 arranged at one end of the horizontal auger screw 2, a gypsum feeding port 205, a water reducing agent feeding port 206 and a second consistency sensor 204 arranged inside the horizontal auger, and a horizontal auger discharge port 207 is also arranged at the end of the horizontal auger screw 2 opposite to the horizontal auger feed port 201; the discharge port 111 is connected to the horizontal auger feed port 201.

[0031] The first consistency sensor 101 and the second consistency sensor 204 are connected to the control system, and the detected consistency value is compared with the consistency value set in the control system. When the consistency value detected by the first consistency sensor 101 is higher than the preset value, the system calculates the amount of water to be added according to the difference in the consistency values, and replenishes water from the feeding port, while increasing the speed of the stirring motor 112 in the main barrel; when the consistency value detected by the first consistency sensor 101 is lower than the preset value, the system calculates the amount of gypsum to be added according to the difference in the consistency values, and replenishes gypsum from the feeding port. paste, and at the same time increase the speed of the stirring motor 112 in the main barrel; when the consistency value detected by the second consistency sensor 204 is higher than the preset value, the system calculates the amount of water-reducing agent required to be added according to the difference in consistency values, replenishes the water-reducing agent from the water-reducing agent feeding port 206, and at the same time increases the speed of the horizontal auger motor 202; when the consistency value detected by the second consistency sensor 204 is lower than the preset value, the system calculates the amount of water-reducing agent gypsum required to be added according to the difference in consistency values, replenishes gypsum from the gypsum feeding port 205, and at the same time increases the speed of the horizontal auger motor 202.

[0032] The present invention sets a plurality of consistency sensors in the main barrel and the horizontal auger screw 2 to detect the consistency of the material in real time, and compares the real-time monitored consistency with the consistency value set in the control system to determine whether it is necessary to supplement the water reducing agent, gypsum or water, so as to supplement the system under the control of the control system, thereby ensuring that the quality of the obtained product is consistent and meets the product standard requirements.

[0033] There are three feeding ports, the first feeding port 106 is connected to the first premixing cylinder, the second feeding port 105 is connected to the second premixing cylinder, and the third feeding port 104 is connected to deionized water; the first premixing cylinder is used for premixing gypsum and recycled fiber, and the second premixing cylinder is used for premixing water reducer, defoamer, and retarder. The first premixing cylinder and the second premixing cylinder are connected to the first feeding port 106 and the second feeding port 105 through the spiral feeder 102, realizing fully automatic continuous feeding.

[0034] Three independent weighing chambers are arranged above the main material mixing bin 103, and a solenoid valve is arranged at the bottom of the weighing chamber, and a gravity sensor 110 is arranged inside the solenoid valve. The upper parts of the three weighing chambers are the first feeding port 106, the second feeding port 105 and the third feeding port 104. The gypsum and recycled fiber premixed by the first premixing drum are injected into the first weighing chamber 109 through the first feeding port 106, the water reducer, defoamer and retarder premixed by the second premixing drum are injected into the second weighing chamber 108 through the second feeding port 105, and deionized water is injected into the third weighing chamber 107 through the third feeding port 104, until the weight sensed by the gravity sensor 110 is consistent with the preset value set for the weight in each weighing chamber in the control system, the injection is stopped, the gates at the bottom of each weighing chamber are opened, and the materials enter the main material mixing bin 103 for stirring and mixing.

[0035] In order to ensure the premixing effect, save premixing time and reduce production costs, the premixing time in the first premixing barrel is 5 minutes, and the premixing time in the second premixing barrel is 1 minute.

[0036] The stirring time of the main barrel is 16 minutes, and the passing time of the horizontal auger spiral is 3 minutes.

[0037] The first consistency sensor 101 detects the consistency of the material in the main material mixing bin 103 at the 6th minute and the 11th minute after the main material barrel starts feeding, and compares it with the preset value.

[0038] The second consistency sensor 204 detects the consistency of the material inside the spiral of the horizontal auger at the 19th minute after the start of feeding into the main barrel, and compares it with the preset value.

[0039] A stirring paddle is provided in the main material stirring bin 103, and the stirring paddle is connected to a stirring motor 112. The stirring motor 112 is provided at the outer bottom of the main material stirring bin 103, and the stirring paddle is rotated to stir the material under the drive of the stirring motor 112. The stirring motor 112 is connected to the control system, and the stirring motor 112 works under the control of the control system. After the material is fed into the feeding port, the stirring motor 112 starts to work, and the stirring paddle is rotated under the drive of the stirring motor 112 to stir the material.

[0040] A transverse auger motor 202 is provided at the feeding end of the transverse auger screw 2, and the transverse auger 203 rotates to stir and transport the material under the drive of the transverse auger motor 202. The transverse auger motor 202 is connected to the control system and works under the control of the control system.

[0041] The water reducing agent feeding port 206 and the gypsum feeding port 205 are arranged at the lower end of the second consistency sensor 204.

[0042] The horizontal auger outlet 207 is connected to a vertical feeding device 3, which includes a vertical feeding motor 301 and a feeding shaft 302 connected to the vertical feeding motor 301. The feeding shaft 302 is arranged inside the shell, and the feeding shaft 302 is a spiral shaft.

[0043] The upper end of the vertical feeding device 3 is provided with a vertical feeding inlet, and the lower end is a vertical feeding outlet, and the vertical feeding inlet is connected to the horizontal auger outlet 207, and the vertical feeding outlet is connected to the extruder 4. The vertical feeding device 3 is connected to the control system. Under the control of the control system, the material after spiral stirring by the horizontal auger 203 directly enters the vertical feeding inlet from the horizontal auger outlet 207, and the vertical feeding motor 301 drives the feeding shaft 302 to rotate, and the material is mixed and stirred under the drive of the feeding shaft 302 inside the vertical feeding device 3, so that the stirring is more uniform, and the stirred material is fed into the extruder 4 from the vertical feeding outlet to complete the extrusion molding operation. In a preferred embodiment, the horizontal auger 203 and the feeding shaft 302 are both spiral shafts.

[0044] The material passes through the vertical feeding device 3 for 3 minutes, and the material is extruded in the extruder 4 for 1 minute.

[0045] There are multiple main barrels 1, and the discharge port of each main barrel 1 is connected to the horizontal auger feed port 201. In order to achieve continuous production, multiple main barrels 1 are set. After the first main barrel 1 completes feeding and transfers to the horizontal auger screw 2, the second main barrel 1 starts feeding, and the horizontal auger screw is continuously fed in sequence, thereby achieving continuous production of the gypsum strip board production line. During continuous production, the first consistency sensor 101 and the second consistency sensor 204 are detected every 5 minutes.

[0046] Example

[0047] The materials were configured according to the material formula in Table 1, and the material setting time of the material formula was measured to be 28 minutes for initial setting and 40 minutes for final setting. Gypsum and recycled fiber were respectively put into the first premixing barrel for premixing for 5 minutes, polycarboxylic acid, defoaming agent, and citric acid retarder were put into the second premixing barrel for premixing for 1 minute, and then the premixed materials in the first premixing barrel, the premixed materials in the second premixing barrel, and deionized water were respectively put into the weighing chamber from the first feeding port 106, the second feeding port 105, and the third feeding port 104, and after reaching the preset mass of the control system, they were put into the main material mixing bin 103 for mixing.

[0048] Table 1 Material ratio

[0049]

[0050] The time for the materials to pass through each production device is as follows: 16 minutes for the main material mixing bin 103 to mix, 5 minutes for the main material mixing bin 103 to empty; 3 minutes for the horizontal auger; 3 minutes for the vertical feeding device; 1 minute for the extruder. It can be seen that from the start of material premixing, it takes 28 minutes for the materials to reach the outlet of the extruder 4, and 33 minutes for the materials to empty and reach the outlet of the extruder 4.

[0051] During the production of gypsum strips, the first consistency sensor 101 and the second consistency sensor 204 detect the material consistency in real time. Suppose the system preset consistency is S 0 , real-time detection consistency is S 1 ,

[0052] When the first consistency sensor 101 detects the consistency value S 1 Higher than the preset value S 0 When the deionized water is added from the third feeding port 104, the speed of the stirring motor 112 in the main barrel is increased. The amount of deionized water to be added is:

[0053] (S 1 -S 0 ) / S 0 *Original water consumption*0.5%

[0054] When the first consistency sensor 101 detects the consistency value S 1 Below the preset value S 0 When gypsum is added from the first feeding port 106, the speed of the stirring motor 112 in the main barrel is increased. The amount of gypsum to be added is:

[0055] (S 0 -S 1 ) / S 0 *Original gypsum dosage*0.1%

[0056] When the consistency value S detected by the second consistency sensor 204 is1 Higher than the preset value S 0 When the water reducing agent is added from the water reducing agent feeding port 206, the speed of the horizontal auger motor 202 is increased, and the speed of the motor in the vertical feeding device is reduced. The amount of water reducing agent to be added is:

[0057] (S 1 -S 0 ) / S 0 *Original amount of water reducing agent*0.1‰

[0058] When the consistency value S detected by the second consistency sensor 204 is 1 Below the preset value S 0 When the gypsum is added from the gypsum feeding port 205, the speed of the horizontal auger motor 202 is increased, and the speed of the motor in the vertical feeding device is reduced. The amount of gypsum to be added is:

[0059] (S 0 -S 1 ) / S 0 *Original gypsum dosage*5‰

[0060] Table 2 shows the semi-dry consistency value of the gypsum strip board of this embodiment, which refers to the consistency value of the material after the time corresponding to the time elapsed from the start of premixing. The preset value of the consistency system is set according to the corresponding data in Table 2. The time when the material of this embodiment begins to be discharged from the extruder outlet is 28 minutes, and the consistency is 80mm at this time; the time when the material is emptied and finally discharged from the extruder outlet is 33 minutes, and the consistency is 65mm. It can be seen that the consistency of the material after extrusion from the extruder is between 65 and 80mm, and the time is consistent with the time period when the material enters the initial setting but has not yet been final set. The material of this embodiment meets the most suitable plastic consistency range of gypsum of 60 to 80mm.

[0061] Table 2 Semi-dry consistency values

[0062]

[0063] The serial numbers of the above embodiments of the present invention are only for description and do not represent the advantages or disadvantages of the embodiments.

[0064] The embodiments of the present invention are described above in conjunction with the accompanying drawings, but the present invention is not limited to the above-mentioned specific implementation modes, which are merely illustrative rather than restrictive. Under the guidance of the present invention, ordinary technicians in this field can also make many forms without departing from the scope of protection of the present invention and the claims, all of which are within the protection of the present invention.

Claims

1. A semi-dry intelligent feeding system for gypsum strips, characterized by: It comprises a main material barrel, a transverse auger screw and a control system connecting the main material barrel and the transverse auger screw, the main material barrel comprises a main material mixing bin, a plurality of feeding ports arranged at the top of the main material mixing bin, and a discharge port arranged at the bottom of the main material mixing bin, a solenoid valve is arranged at the bottom of the feeding port, and a weight sensor is arranged inside the solenoid valve; a first consistency sensor is arranged at the bottom of the inner side of the main material mixing bin; the transverse auger screw comprises a transverse auger, a transverse auger feeding port arranged at one end of the transverse auger screw, a gypsum feeding port, a water reducing agent feeding port and a second consistency sensor arranged inside the transverse auger, and a transverse auger discharge port is also arranged at the end of the transverse auger opposite to the transverse auger feeding port; the discharge port is connected to the transverse auger feeding port; The first consistency sensor and the second consistency sensor are connected to the control system, and compare the detected consistency value with the consistency value set in the control system. When the consistency value detected by the first consistency sensor is higher than the preset value, the system calculates the amount of water to be added according to the difference in the consistency values, and replenishes water from the feeding port, while increasing the speed of the stirring motor in the main barrel; when the consistency value detected by the first consistency sensor is lower than the preset value, the system calculates the amount of gypsum to be added according to the difference in the consistency values, and replenishes gypsum from the feeding port, while increasing the speed of the stirring motor in the main barrel; when the consistency value detected by the second consistency sensor is higher than the preset value, the system calculates the amount of water reducing agent to be added according to the difference in the consistency values, and replenishes the water reducing agent from the water reducing agent replenishing port, while increasing the speed of the horizontal auger motor; When the consistency value detected by the second consistency sensor is lower than the preset value, the system calculates the amount of water-reducing gypsum that needs to be added based on the difference in consistency values, replenishes gypsum from the gypsum feeding port, and increases the speed of the horizontal auger motor at the same time.

2. A semi-dry intelligent feeding system for gypsum strip boards as claimed in claim 1, characterized in that: There are three feeding ports, the first feeding port is connected to the first premixing cylinder, the second feeding port is connected to the second premixing cylinder, and the third feeding port is connected to deionized water; the first premixing cylinder is used for premixing gypsum and recycled fiber, and the second premixing cylinder is used for premixing water reducer, defoamer and retarder.

3. A semi-dry intelligent feeding system for gypsum strip boards as claimed in claim 2, characterized in that: Three independent weighing chambers are arranged above the main material mixing bin, a solenoid valve is arranged at the bottom of the weighing chamber, a gravity sensor is arranged inside the solenoid valve, and the upper parts of the three weighing chambers are the first feeding port, the second feeding port and the third feeding port respectively.

4. A semi-dry intelligent feeding system for gypsum strip boards as claimed in claim 1, characterized in that: The stirring time of the main barrel is 16 minutes, and the passage time of the horizontal auger spiral is 3 minutes.

5. A semi-dry intelligent feeding system for gypsum strip boards as claimed in claim 1, characterized in that: The first consistency sensor detects the consistency of the material in the main material mixing bin at the 6th minute and the 11th minute after the main material barrel starts feeding, and compares it with the preset value.

6. A semi-dry intelligent feeding system for gypsum strip boards as claimed in claim 1, characterized in that: The second consistency sensor detects the consistency of the material inside the spiral of the horizontal auger at the 19th minute after the start of feeding into the main barrel, and compares it with the preset value.

7. A semi-dry intelligent feeding system for gypsum strip boards as claimed in claim 1, characterized in that: A stirring paddle is arranged in the main material stirring bin, and the stirring paddle is connected to a stirring motor, and the stirring motor is arranged at the outer bottom of the main material stirring bin, and the stirring paddle is rotated under the drive of the stirring motor to stir the material.

8. A semi-dry intelligent feeding system for gypsum strip boards as claimed in claim 1, characterized in that: The water reducing agent feeding port and the gypsum feeding port are arranged at the lower end of the second consistency sensor.

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