Cement strength detection device based on mechanical sensor

Abstract

The invention discloses a cement strength detection device based on a mechanical sensor, and relates to the technical field of food detection devices. The cement strength detection device based on the mechanical sensor comprises a table board, the top of the table board is fixedly connected with a base, and the top of the base is fixedly connected with pressure test equipment through a supporting rod; a connecting plate is fixedly connected to the front side of a pressing plate of the pressure test equipment, a front baffle is slidably connected to the front side of the connecting plate through a first sliding groove, a first spring is fixedly connected between the first sliding groove and the connecting plate, and a second-stage hydraulic block is fixedly connected to the bottom of a top supporting plate of the pressure test equipment. The side face of the secondary hydraulic block is movably connected with a first hydraulic block through a first hose, the front side of the first hydraulic block is slidably connected with a first push block, the front side of the first push block is fixedly connected with a sliding plate, the top of the waste box is fixedly connected with the bottom of the sliding plate, and the side face of the first hydraulic block is rotationally connected with a turning plate through a transmission piece. When the cement strength detection device based on the mechanical sensor is used, the turning plate automatically rotates, so that the waste box automatically unloads, and manual unloading is reduced.

Description

Technical Field

[0001] The present invention relates to the field of cement strength detection, and in particular to a cement strength detection device based on a mechanical sensor. Background Art

[0002] Cement is an essential component in many building materials. Its primary function is to bind cement together with sand, gravel, and other materials to form a solid, solid mass, commonly known as concrete. Therefore, the quality of cement directly impacts the quality of construction. Therefore, compressive strength testing of cement concrete samples is essential.

[0003] Chinese patent CN119223736B, authorized and announced on April 1, 2025, discloses a cement strength testing device, which includes a pressure testing machine and a blocking and cleaning mechanism provided on the pressure testing machine; the pressure testing machine includes a base platform, a mounting plate and a hydraulic cylinder, the base platform and the mounting plate are connected by a support column, the hydraulic cylinder is installed on the top of the mounting plate, the output end of the hydraulic cylinder extends to the bottom of the mounting plate and is provided with a pressure plate; a stepped groove connected to the top of the base platform is provided on the front side of the base platform, and a waste collection box is placed on the stepped groove; the blocking and cleaning mechanism includes a door panel, a rear push plate module and a side baffle module symmetrically arranged on the left and right; the door panel is provided on the front side of the pressure testing machine. In the above application documents, the equipment needs to manually open the front baffle for loading after each test, and also needs to manually open the waste collection box for cleaning, which is more troublesome and reduces the efficiency of continuous testing. Summary of the Invention

[0004] In view of the shortcomings of the existing technology, the present invention provides a cement strength detection device based on a mechanical sensor, which solves the problems raised in the above background technology. To achieve the above purpose, the present invention is implemented through the following technical solutions: A cement strength detection device based on a mechanical sensor, comprising: A table top, wherein the top of the table top is fixedly connected to a base, the top of the base is fixedly connected to a pressure testing device via a support rod, the pressure testing device is internally provided with a pressure sensor for detecting the pressure of cement when it is compressed, and a waste opening is opened on the front surface of the table top; The front side of the pressure plate of the pressure testing equipment is fixedly connected to a connecting plate, the front side of the connecting plate is slidably connected to a front baffle through a slide groove 1, a spring 1 is fixedly connected between the bottom of the slide groove 1 and the bottom of the connecting plate, the bottom of the top support plate of the pressure testing equipment is fixedly connected to a secondary hydraulic block, the side of the secondary hydraulic block is fixedly connected to one end of a hose 1, the other end of the hose 1 is fixedly connected to the top of the hydraulic block 1, the front side of the hydraulic block 1 is slidably connected to a push block 1, the front side of the push block 1 is fixedly connected to a slide plate, the front side of the base is slidably connected to a waste box through a sliding groove provided on its surface, the top of the waste box is fixedly connected to the bottom of the slide plate, and the side of the hydraulic block 1 is rotatably connected to the flap via a transmission member. A flap is provided so that after the waste box is pushed out, the flap automatically opens, so that the cement fragments collected in the waste box are automatically discharged from the waste port, thereby reducing manual material collection, thereby improving the continuous testing efficiency of the equipment and saving labor.

[0005] Preferably, the transmission part includes hose 2, hydraulic block 2, rack 1, gear 1, rotating shaft 1, and flap. The side surface of the hydraulic block 1 is fixedly connected to one end of the hose 2, the other end of the hose 2 is fixedly connected to the side surface of the hydraulic block 2, the rear side of the hydraulic block 2 is fixedly connected to the surface of the waste box, the bottom of the hydraulic block 2 is slidably connected to rack 1, the interior of the waste box is movably connected to the flap through rotating shaft 1, the top of the rotating shaft 1 is fixedly connected to gear 1, and the gear 1 is meshed with rack 1.

[0006] Preferably, the number of the support rods is four, and the four support rods are distributed around the center of the pressure testing equipment. A left baffle is fixedly connected between the two support rods on the left side, a right baffle is fixedly connected between the two support rods on the right side, and a rear baffle is fixedly connected between the two support rods on the rear side. A push rod is fixedly connected to the rear side of the rear baffle, and an electric hydraulic cylinder is fixedly connected to the rear side of the push rod. A dust collection assembly is fixedly connected to the outer sides of the left and right baffles, and a buffer assembly is movably connected to the interior of the waste box. Two slide grooves are provided on the inner surfaces of the two support rods on the front side, and the front baffle is slidably connected to the two support rods on the front side.

[0007] Preferably, the number of the secondary hydraulic blocks is two, and each of the secondary hydraulic blocks is symmetrically distributed about the center line of the front baffle, the number of the hoses 1 is two, the number of the hydraulic blocks 1 is two, the number of the push blocks 1 is two, the number of the slides is two, the number of the hoses 2 is two, the number of the flaps is two, the length of each flap is half of the internal length of the waste box, the number of the rotating shafts 1 is two, the number of the gears 1 is two, and the number of the racks 1 is two.

[0008] Preferably, the dust suction assembly includes a suction head, an air suction pipe, a dust cleaner, a switch, a rotating shaft 2, a gear 2, a rack 2, a hydraulic block 3, a hose 3, a hydraulic block 4, and a push block 2. The front top of the base is fixedly connected to the hydraulic block 4 through a circular hole opened on its surface, the top of the hydraulic block 4 is slidably connected to the push block 2, the side of the hydraulic block 4 is fixedly connected to one end of the hose 3, the other end of the hose 3 is fixedly connected to the side of the hydraulic block 3, the top of the hydraulic block 3 is slidably connected to the rack 2, the top of the base is fixedly connected to the dust cleaner, the top and side of the dust cleaner pass through and are fixedly connected to the air suction pipe, the top of the air suction pipe is fixedly connected to the suction head, the front side of the dust cleaner is fixedly connected to the switch, the side of the switch is rotatably connected to the rotating shaft 2, the outer side of the rotating shaft 2 is fixedly connected to the gear 2, and the gear 2 is meshed with the rack 2. A dust suction component is provided to make the front baffle fall and contact push block two, and cooperate with hydraulic block four, hose three, hydraulic block three, rack two, gear two, and rotating shaft two to make the switch automatically open when the equipment is undergoing a pressure test, so that the dust generated when the pressure test equipment crushes the cement test block is sucked away by the dust suction component, thereby reducing environmental pollution and protecting the test personnel.

[0009] Preferably, the number of the suction heads is two, the number of the suction pipes is two, the number of the vacuum cleaners is two, the number of the switches is two, the number of the hydraulic blocks three is two, the number of the hydraulic blocks four is two, the number of the rotating shafts two is two, the number of the gears two is two, the number of the racks two is two, and the number of the hoses three is two.

[0010] Preferably, the length of the suction head is consistent with the length of the left baffle, and the bottom of the hydraulic block three is fixedly connected to the top of the base.

[0011] Preferably, the buffer assembly includes a square slot, a buffer plate, a third rotating shaft, and a second spring. The flap has a square slot formed on its surface, the interior of which is rotatably connected to the third rotating shaft, the outer side of which is fixedly connected to the buffer plate, and a second spring fixedly connected between the bottom of the buffer plate and the top of the square slot. The buffer assembly cushions cement debris generated after the pressure test as it falls into the waste box, thereby protecting the flap, gear 1, and rack 1, slowing wear of the rack and gear 1 and extending the service life of the equipment.

[0012] Preferably, the number of the square grooves is two, the length of each square groove is smaller than the length of the flap, the number of the buffer plates is two, each buffer plate is symmetrically distributed about the center line of the waste box, the length of each buffer plate is consistent with the length of each square groove, the number of the rotating shafts three is two, the number of the springs two is four, and every two springs two form a group.

[0013] Preferably, both sides of the rotating shaft 3 are rotatably connected to the inner surface of the waste box.

[0014] The present invention provides a cement strength detection device based on a mechanical sensor. It has the following beneficial effects: The cement strength detection device based on a mechanical sensor has the following characteristics: when the equipment completes the cement strength test, the pressure test equipment moves upward, causing the connecting rod to move upward, and cooperates with the front baffle, secondary hydraulic block, hose 1, hydraulic block 1, push block 1, slide plate, hose 2, hydraulic block 2, rack 1, gear 1, and rotating shaft 1 to automatically push out the waste box and rotate the flap at the same time, so that the cement fragments in the waste box fall into the waste port, thereby reducing the manual material collection.

[0015] The cement strength detection device based on a mechanical sensor has the following characteristics: when the equipment starts the cement strength test, the pressure test equipment moves downward, causing the front baffle to move downward, and the hydraulic block four, push block two, hose three, hydraulic block three, rack two, gear two, rotating shaft two, and switch are coordinated to automatically turn on the vacuum cleaner, so that the dust generated during the pressure test is automatically sucked out by the vacuum cleaner, thereby reducing environmental pollution and protecting the test personnel.

[0016] In this cement strength detection device based on a mechanical sensor, when the rear push plate moves forward to sweep away debris, the debris will fall directly onto the buffer component due to the action of gravity. In conjunction with the buffer plate, rotating shaft three, and spring two, gear one and rack one are protected, reducing wear on gear one and rack one, thereby extending the service life of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a schematic diagram of the overall front three-dimensional structure of the present invention; Figure 2 This is a schematic diagram of the overall back three-dimensional structure of the present invention; Figure 3 For the present invention Figure 2 A in the middle is an enlarged structural diagram; Figure 4 It is a schematic diagram of the structure of some components of the present invention; Figure 5 It is a schematic diagram of the structure of some components of the present invention; Figure 6 This is a schematic structural diagram of the dust collection assembly of the present invention; Figure 7 This is a schematic structural diagram of the buffer assembly of the present invention; Figure 8 For the present invention Figure 7 Enlarged structural diagram at point B in the middle.

[0018] In the picture: 100, table; 200, base; 300, pressure test equipment; 400, waste port; 500, push rod; 600, rear baffle; 700, right baffle; 800, left baffle; 900, support rod; 1001, connecting plate; 1002, spring 1; 1003, chute 1; 1004, front baffle; 1005, chute 2; 1006, secondary hydraulic block; 1007, hose 1; 1008, hydraulic block 1; 1009, push block 1; 1010, slide plate; 1011, hose 2; 1012, waste box; 1013, hydraulic block 2; 1014, rack 1; 1015, gear 1; 1016, shaft 1; 1017, flap 1100, dust collection assembly; 1101, suction head; 1102, suction pipe; 1103, vacuum cleaner; 1104, switch; 1105, shaft 2; 1106, gear 2; 1107, rack 2; 1108, hydraulic block 3; 1109, hose 3; 1110, hydraulic block 4; 1111, push block 2 1200, buffer assembly; 1201, square groove; 1202, buffer plate; 1203, rotating shaft three; 1204, spring two. DETAILED DESCRIPTION

[0019] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0020] For example 1, please refer to Figure 1-Figure 4 , a cement strength detection device based on a mechanical sensor, comprising: The table 100 has a base 200 fixedly connected to the top of the table 100, and a pressure test device 300 fixedly connected to the top of the base 200 via a support rod 900. A pressure sensor is provided inside the pressure test device 300 for detecting the pressure of cement when it is under pressure. There are four support rods 900, and the four support rods 900 are distributed around the center of the pressure test device 300. A left baffle 800 is fixedly connected between the two left support rods 900, and a right baffle 700 is fixedly connected between the two right support rods 900. The left baffle 800 and the right baffle 700 are provided so that gravel and dust generated by the test will not splash directly onto the test personnel, thereby protecting the test personnel. A rear baffle 6 is fixedly connected between the two rear support rods 900. 00, the rear side of the rear baffle 600 is fixedly connected with a push rod 500, the rear side of the push rod 500 is fixedly connected with an electric hydraulic cylinder, the outer sides of the left baffle 800 and the right baffle 700 are fixedly connected with a dust collection assembly 1100, the interior of the waste box 1012 is movably connected with a buffer assembly 1200, the inner surface of the two front support rods 900 is provided with a slide groove 1005, the front baffle 1004 is slidably connected to the two front support rods 900, the front surface of the table 100 is provided with a waste port 400, and the waste port 400 is provided so that the cement fragments in the waste box 1012 can be directly collected and discharged through the waste port 400, reducing manual material collection; the front side of the pressure plate of the pressure testing equipment 300 is fixedly connected with a connecting plate 1001, and the connecting plate 10 The front side of 01 is slidably connected to the front baffle 1004 through a slide groove 1003, and a spring 1002 is fixedly connected between the bottom of the slide groove 1003 and the bottom of the connecting plate 1001. The spring 1002 is set so that when the pressure test equipment 300 moves down, the front baffle 1004 first contacts the top of the base 200, so that the pressure test equipment 300 can continue to move down for pressure testing, so that the front baffle 1004 does not affect the subsequent pressure testing. The bottom of the top support plate of the pressure test equipment 300 is fixedly connected to the secondary hydraulic block 1006, and the side of the secondary hydraulic block 1006 is fixedly connected to one end of the hose 1007, and the other end of the hose 1007 is fixedly connected to the top of the hydraulic block 1008. The hose 1007 is set. , so that the interior of the secondary hydraulic block 1006 is connected to the interior of the hydraulic block 1008, the front side of the hydraulic block 1008 is slidably connected to the push block 1009, and the front side of the push block 1009 is fixedly connected to the slide 1010. The front side of the base 200 is slidably connected to the waste box 1012 through the sliding groove opened on its surface. The waste box 1012 is provided so that the cement fragments generated during the test process can be collected, so as not to affect the pressure test of the next cement test block. The top of the waste box 1012 is fixedly connected to the bottom of the slide 1010. There are two secondary hydraulic blocks 1006, and each secondary hydraulic block 1006 is symmetrically distributed about the center line of the front baffle 1004. There are two hoses 1007 and two hydraulic blocks 1008.There are two push blocks 1009, two slide plates 1010, two hoses 1011, two flaps 1017, the length of each flap 1017 is half the length of the interior of the waste box 1012, two shafts 1016, two gears 1015, two racks 1014, and the side of the hydraulic block 1008 is rotatably connected to the flap 1017 through a transmission member. The transmission member includes a hose 1011, a hydraulic block 1013, a rack 1014, a gear 1015, a shaft 1016, and a flap 1017. The side of the hydraulic block 1008 is fixedly connected to one end of the hose 1011, and the hose 1013 is fixedly connected to the rack 1014. The other end of 11 is fixedly connected to the side of hydraulic block 2 1013. The rear side of hydraulic block 2 1013 is fixedly connected to the surface of waste box 1012. The bottom of hydraulic block 2 1013 is slidably connected to rack 1014. The interior of waste box 1012 is movably connected to flap 1017 via shaft 1016. The top of shaft 1016 is fixedly connected to gear 1015. Gear 1015 meshes with rack 1014. Flap 1017 is provided so that after waste box 1012 is pushed out, flap 1017 automatically opens, allowing the cement crushed materials collected in waste box 1012 to be automatically discharged from waste port 400. This reduces the manual material collection process, improves the equipment's continuous testing efficiency, and saves labor.

[0021] During use, after the equipment completes the pressure test, the rear baffle 600 moves forward under the push of the push rod 500, so that the cement fragments produced by the test are swept into the waste box 1012. At this time, the pressure test equipment 300 is started, the pressure test equipment 300 moves upward, the connecting plate 1001 moves upward, the front baffle 1004 moves upward, the secondary hydraulic block 1006 is compressed, and the pressure in the secondary hydraulic block 1006 is transmitted to the hydraulic block 1008 through the hose 1007, so that the hydraulic block 1008 is compressed, the push block 1009 is pushed forward, the slide plate 1010 moves forward, and the waste box 1012 is opened. 012 is automatically pushed forward, continuing to move the pressure testing equipment 300 upward, so that the secondary hydraulic block 1006 continues to be compressed, and the excess pressure is transmitted to the inside of the hydraulic block 1008, and then transmitted to the inside of the hydraulic block 2 1013 through the hose 2 1011, so that the hydraulic block 2 1013 is compressed, and the rack 1014 moves downward, and the gear 1015 rotates clockwise, so that the flap 1017 rotates downward under the drive of the rotating shaft 1016, so that the cement gravel inside the waste box 1012 falls to the waste port 400 for discharge, thereby completing the automatic material collection process, reducing manual material collection, and improving the working efficiency of the equipment.

[0022] For example 2, please refer to Figures 1-6On the basis of the first embodiment, the dust collection assembly 1100 includes a suction head 1101, a suction pipe 1102, a dust collector 1103, a switch 1104, a second rotating shaft 1105, a second gear 1106, a second rack 1107, a third hydraulic block 1108, a third hose 1109, a fourth hydraulic block 1110, and a second push block 1111. The top of the front side of the base 200 is fixedly connected to the fourth hydraulic block 1110 through a circular hole opened on its surface. The top of the fourth hydraulic block 1110 is slidably connected to the second push block 1111. The side of the fourth hydraulic block 1110 is fixedly connected to one end of the third hose 1109. The other end of the third hose 1109 is fixedly connected to the third hydraulic block 1108. The side is fixedly connected, and a hose three 1109 is provided to communicate the inside of the hydraulic block three 1108 with the inside of the hydraulic block four 1110. The top of the hydraulic block three 1108 is slidably connected with a rack two 1107. The top of the base 200 is fixedly connected with a vacuum cleaner 1103. The vacuum cleaner 1103 is provided so that the dust generated during the test is absorbed by the vacuum cleaner 1103, reducing the pollution of the dust to the environment and protecting the test personnel. The top and side of the vacuum cleaner 1103 are penetrated and fixedly connected with a suction pipe 1102. The top of the suction pipe 1102 is fixedly connected with a suction head 1101. The length of the suction head 1101 is consistent with the length of the left baffle 800. The hydraulic block three 11 The bottom of 08 is fixedly connected to the top of the base 200, and the front side of the vacuum cleaner 1103 is fixedly connected to a switch 1104. The switch 1104 is set so that the start and stop of the vacuum cleaner 1103 can be controlled, thereby saving energy. The side of the switch 1104 is rotatably connected to the second shaft 1105, and the outer side of the second shaft 1105 is fixedly connected to the second gear 1106. The second gear 1106 is meshed with the second rack 1107. There are two suction heads 1101, two suction pipes 1102, two vacuum cleaners 1103, two switches 1104, two hydraulic blocks 1108, and two hydraulic blocks 1110. There are two rotating shafts 1105, two gears 1106, two racks 1107, and two hoses 1109. A dust suction component 1100 is provided to make the front baffle 1004 fall and contact with the push block 2 1111, and cooperate with the hydraulic block 4 1110, the hose 3 1109, the hydraulic block 3 1108, the rack 2 1107, the gear 2 1106, and the rotating shaft 1105 to make the switch 1104 automatically open when the equipment is pressure tested, so that the dust generated when the pressure test equipment 300 crushes the cement test block is sucked away by the dust suction component 1100, thereby reducing environmental pollution and protecting the test personnel.

[0023] During use, based on Example 1, when the equipment is in use, the push rod 500 drives the rear baffle 600 to recover, causing the pressure testing equipment 300 to move downward. At this time, the front baffle 1004, due to the slide groove 1003 and spring 1002 on its surface, first contacts the top of the base 200, causing the push block 2 1111 to move downward, causing the hydraulic block 4 1110 to be compressed, and the internal pressure of the hydraulic block 4 1110 to be transmitted to the hydraulic block 3 1108 through the hose 3 1109, causing the hydraulic block 3 1108 to be compressed, causing the rack 2 1107 to move upward, causing the gear 2 1106 to rotate, and causing the rotating shaft 2 1105 to drive the switch 1104 to open, thereby turning on the vacuum cleaner 1103. At this time, the pressure testing equipment 300 presses the cement test block downward, and the dust generated when the cement test block is broken will be directly sucked away by the suction head 1101 through the suction pipe 1102, thereby avoiding pollution of the environment and protecting the safety of the test personnel.

[0024] For example three, please refer to Figures 1-8 On the basis of the first and second embodiments, the buffer assembly 1200 includes a square groove 1201, a buffer plate 1202, a third rotating shaft 1203, and a second spring 1204. The surface of the flap 1017 is provided with a square groove 1201. The square groove 1201 is provided so that the buffer plate 1202 is pressed downward without colliding with the flap 1017. The interior of the square groove 1201 is rotatably connected to the third rotating shaft 1203. Both sides of the third rotating shaft 1203 are rotatably connected to the inner surface of the waste box 1012. The outer side of the third rotating shaft 1203 is fixedly connected to the buffer plate 1202. The second spring 1204 is fixedly connected between the bottom of the buffer plate 1202 and the top of the square groove 1201. The second spring 1204 is provided so that the gravity on the buffer plate 1202 is transmitted to the inside of the second spring 1204. , thereby achieving the purpose of buffering, the number of square grooves 1201 is two, the length of each square groove 1201 is less than the length of the flap 1017, the number of buffer plates 1202 is two, each buffer plate 1202 is symmetrically distributed about the center line of the waste box 1012, the length of each buffer plate 1202 is consistent with the length of each square groove 1201, the number of rotating shaft three 1203 is two, the number of spring two 1204 is four, and every two springs two 1204 form a group. A buffer assembly 1200 is provided to buffer the cement fragments generated after the pressure test when they fall into the waste box 1012, thereby protecting the flap 1017, gear one 1015, and rack one 1014, delaying the loss of rack one 1014 and gear one 1015, and extending the service life of the equipment.

[0025] During use, based on Example 1 and Example 2, when the push rod 500 pushes the rear baffle 600 forward, the cement fragments generated by the test will fall directly onto the flap 1017. Due to the action of gravity, vibration will be generated between gear 1015 and rack 1014, causing wear on gear 1015 and rack 1014. After the buffer assembly 1200 is set, when the push rod 500 pushes the rear baffle 600 forward, the cement fragments generated by the test will fall onto the buffer plate 1202 above the flap 1017, so that the spring 2 1204 absorbs the impact force of the falling cement fragments, thereby reducing the wear of the flap 1017 caused by vibration, thereby extending the service life of the equipment.

[0026] The above are only preferred specific embodiments of the present invention, but the scope of protection of the present invention is not limited thereto. Any technician familiar with this technical field, within the technical scope disclosed by the present invention, who makes equivalent replacements or changes based on the technical solutions and inventive concepts of the present invention, should be covered by the scope of protection of the present invention.

Claims

1. A cement strength detection device based on a mechanical sensor, characterized in that: include: A table top (100), wherein the top of the table top (100) is fixedly connected to a base (200), the top of the base (200) is fixedly connected to a pressure testing device (300) via a support rod (900), a pressure sensor is provided inside the pressure testing device (300) for detecting the pressure of cement when it is compressed, and a waste material opening (400) is provided on the front surface of the table top (100); The front side of the pressure plate of the pressure test equipment (300) is fixedly connected to a connecting plate (1001), the front side of the connecting plate (1001) is slidably connected to a front baffle (1004) through a slide groove (1003), a spring (1002) is fixedly connected between the bottom of the slide groove (1003) and the bottom of the connecting plate (1001), the bottom of the top support plate of the pressure test equipment (300) is fixedly connected to a secondary hydraulic block (1006), the side of the secondary hydraulic block (1006) is fixedly connected to one end of a hose (1007), the hose The other end of tube one (1007) is fixedly connected to the top of hydraulic block one (1008), the front side of the hydraulic block one (1008) is slidably connected to push block one (1009), the front side of the push block one (1009) is fixedly connected to a slide plate (1010), the front side of the base (200) is slidably connected to the waste box (1012) through a sliding groove opened on its surface, the top of the waste box (1012) is fixedly connected to the bottom of the slide plate (1010), and the side of the hydraulic block one (1008) is rotatably connected to the flap (1017) through a transmission member.

2. The cement strength detection device based on a mechanical sensor according to claim 1, characterized in that: The transmission component includes a hose 2 (1011), a hydraulic block 2 (1013), a rack 1 (1014), a gear 1 (1015), a rotating shaft 1 (1016), and a flap (1017). The side of the hydraulic block 1 (1008) is fixedly connected to one end of the hose 2 (1011), the other end of the hose 2 (1011) is fixedly connected to the side of the hydraulic block 2 (1013), the rear side of the hydraulic block 2 (1013) is fixedly connected to the surface of the waste box (1012), the bottom of the hydraulic block 2 (1013) is slidably connected to the rack 1 (1014), the interior of the waste box (1012) is movably connected to the flap (1017) via the rotating shaft 1 (1016), the top of the rotating shaft 1 (1016) is fixedly connected to the gear 1 (1015), and the gear 1 (1015) is meshed with the rack 1 (1014).

3. The cement strength detection device based on a mechanical sensor according to claim 1, characterized in that: The number of the support rods (900) is four, and the four support rods (900) are distributed about the center of the pressure test equipment (300). A left baffle (800) is fixedly connected between the two support rods (900) on the left side, a right baffle (700) is fixedly connected between the two support rods (900) on the right side, and a rear baffle (600) is fixedly connected between the two support rods (900) on the rear side. The rear side of the rear baffle (600) is fixedly connected. A push rod (500), the rear side of which is fixedly connected to an electric hydraulic cylinder, the outer sides of the left baffle (800) and the right baffle (700) are fixedly connected to a dust collection assembly (1100), the interior of the waste box (1012) is movably connected to a buffer assembly (1200), a second slide groove (1005) is provided on the inner surface of the two front support rods (900), and the front baffle (1004) is slidably connected to the two front support rods (900).

4. The cement strength detection device based on a mechanical sensor according to claim 1, characterized in that: There are two secondary hydraulic blocks (1006), each of which is symmetrically distributed about the center line of the front baffle (1004). There are two hoses (1007), two hydraulic blocks (1008), two push blocks (1009), two slides (1010), two hoses (1011), two flaps (1017), and the length of each flap (1017) is half the length of the interior of the waste box (1012). There are two rotating shafts (1016), two gears (1015), and two racks (1014).

5. The cement strength detection device based on a mechanical sensor according to claim 3, characterized in that: The dust collection assembly (1100) includes a suction head (1101), a suction pipe (1102), a dust collector (1103), a switch (1104), a rotating shaft (1105), a gear (1106), a rack (1107), a hydraulic block (1108), a hose (1109), a hydraulic block (1110), and a push block (1111). The top of the front side of the base (200) is fixedly connected to the hydraulic block (1110) through a circular hole opened on its surface. The top of the hydraulic block (1110) is slidably connected to the push block (1111). The side of the hydraulic block (1110) is fixedly connected to one end of the hose (1109), and the other end of the hose (1109) is fixedly connected to the push block (1111). The side of hydraulic block three (1108) is fixedly connected, the top of the hydraulic block three (1108) is slidably connected to rack two (1107), the top of the base (200) is fixedly connected to a vacuum cleaner (1103), the top and side of the vacuum cleaner (1103) are penetrated and fixedly connected to a suction pipe (1102), the top of the suction pipe (1102) is fixedly connected to a suction head (1101), the front side of the vacuum cleaner (1103) is fixedly connected to a switch (1104), the side of the switch (1104) is rotatably connected to a rotating shaft two (1105), the outer side of the rotating shaft two (1105) is fixedly connected to a gear two (1106), and the gear two (1106) is meshed with the rack two (1107).

6. The cement strength detection device based on a mechanical sensor according to claim 5, characterized in that: The number of the suction heads (1101) is two, the number of the suction pipes (1102) is two, the number of the vacuum cleaners (1103) is two, the number of the switches (1104) is two, the number of the hydraulic blocks three (1108) is two, the number of the hydraulic blocks four (1110) is two, the number of the rotating shafts two (1105) is two, the number of the gears two (1106) is two, the number of the racks two (1107) is two, and the number of the hoses three (1109) is two.

7. The cement strength detection device based on a mechanical sensor according to claim 5, characterized in that: The length of the suction head (1101) is consistent with the length of the left baffle (800), and the bottom of the hydraulic block three (1108) is fixedly connected to the top of the base (200).

8. The cement strength detection device based on a mechanical sensor according to claim 5, characterized in that: The buffer assembly (1200) comprises a square groove (1201), a buffer plate (1202), a third rotating shaft (1203), and a second spring (1204). The surface of the flap (1017) is provided with a square groove (1201). The interior of the square groove (1201) is rotatably connected to the third rotating shaft (1203). The outer side of the third rotating shaft (1203) is fixedly connected to the buffer plate (1202). The second spring (1204) is fixedly connected between the bottom of the buffer plate (1202) and the top of the square groove (1201).

9. The cement strength detection device based on a mechanical sensor according to claim 8, characterized in that: There are two square grooves (1201), the length of each square groove (1201) is less than the length of the flap (1017), there are two buffer plates (1202), each buffer plate (1202) is symmetrically distributed about the center line of the waste box (1012), the length of each buffer plate (1202) is consistent with the length of each square groove (1201), there are two rotating shafts (1203), there are four springs (1204), and every two springs (1204) form a group.

10. The cement strength detection device based on a mechanical sensor according to claim 8, characterized in that: Both sides of the rotating shaft (1203) are rotatably connected to the inner surface of the waste box (1012).

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