Environment-friendly ore pulp densimeter

Abstract

The utility model relates to the technical field of densimeters, in particular to an environment-friendly ore pulp densimeter. The device comprises a mounting pipe, a connecting pipe, a conveying pipe, supporting legs, a mounting ring, a fixing ring, an industrial personal computer and a density detection assembly, the density detection assembly comprises a supporting block, a connecting block, a spring b, a clamping block, a spring c, a lead screw, a sliding block, a signal starting source and a vibration sensor. The two connecting blocks are arranged on the supporting block in a relatively rotating mode, the bottoms of the two connecting blocks are each provided with a connecting block part, the two ends of the spring b are connected with the two connecting block parts correspondingly, the two ends of the mounting pipe are each communicated with one connecting pipe, the two connecting pipes are each communicated with one conveying pipe, and the multiple supporting legs are arranged on the mounting pipe and the multiple conveying pipes correspondingly. The industrial personal computer is arranged on the fixing ring and provided with a connecting port part, and the supporting block is arranged on the connecting port part. According to the utility model, the ore pulp density can be detected through the signal starting source and the vibration sensor which are arranged on the industrial personal computer.

Description

Technical Field

[0001] The utility model relates to the technical field of density meters, in particular to an environmentally friendly slurry density meter. Background Art

[0002] Slurry refers to a liquid mixture formed by adding water and other auxiliary materials to solid raw materials such as ore and mineral soil in order to extract target elements in industrial production. The traditional method for measuring the density of slurry is to use a gamma-ray densitometer.

[0003] However, the use of traditional gamma-ray densitometers to measure slurry density has the following defects: when protection is not good, gamma rays will generate radiation, causing personal injury and environmental pollution, and the mining industry is often located in remote areas. Densitometers are generally installed in the open air. The outdoor environment can easily cause the radioactive source to be lost in the field. The legal representative is responsible for dereliction of duty, which leads to the fact that companies generally dare not use radioactive instruments. Utility Model Content

[0004] The utility model aims to solve the problems existing in the background technology and proposes an environmentally friendly slurry density meter which can detect the density of slurry through a signal generator and a vibration sensor arranged on an industrial computer.

[0005] The technical scheme of the utility model is a density detection component, including a mounting tube 1, a connecting tube 2, a conveying tube 3, a supporting leg 4, a mounting ring 5, a fixing ring 6, an industrial computer 7 and a density detection component 8; the density detection component includes a supporting block 81, a connecting block 82, a spring b83, a clamping block 84, a spring c85, a screw rod 86, a sliding block 87, a signal starting source 810 and a vibration sensor 811, two connecting blocks 82 are relatively rotatably arranged on the supporting block 81, and a connecting block portion 821 is arranged at the bottom of each of the two connecting blocks 82, and both ends of the spring b83 are respectively connected to the two connecting block portions 821, and the clamping block portion 811 is provided with a plurality of connecting blocks 821, wherein the connecting block portion 821 is provided with a plurality of connecting blocks 821, and the connecting block portion 821 is provided with a plurality of connecting blocks 821, wherein the connecting block portion 821 is provided with a plurality of connecting blocks 821, and the plurality of connecting blocks 821 is provided with a plurality of connecting blocks 821, wherein the connecting block portion 821 is provided with a plurality of connecting blocks 821, and the plurality of connecting blocks 821 is provided with a plurality of connecting blocks 821, wherein the plurality of connecting blocks 82 ... wherein the plurality of connecting blocks 82 is provided with a plurality of connecting blocks 821, wherein the plurality of connecting blocks 82 is provided with a plurality of connecting blocks 821, wherein the plurality of connecting blocks 82 is provided with a plurality of connecting blocks 821, wherein the plurality of connecting blocks 82 is provided with a plurality of connecting blocks A holding block 84 is rotatably set on each of the two connecting blocks 82, a fixed block portion a822 is set on the side end faces of the two connecting blocks 82, a fixed block portion b841 is set on the side end faces of the two clamping blocks 84, both ends of the spring c85 are respectively set on the fixed block portion a822 and the fixed block portion b841, a screw rod 86 is rotatably set on each of the two clamping blocks 84, a sliding block 87 is slidably set on each of the two clamping blocks 84, the two screw rods 86 are correspondingly threadedly connected to the sliding blocks 87, and the signal source 810 and the vibration sensor 811 are respectively set on the two sliding blocks 87. The signal source 810 and the vibration sensor 811 are facing oppositely; one connecting pipe 2 is connected to each end of the mounting pipe 1, one conveying pipe 3 is connected and arranged on each of the two connecting pipes 2, multiple supporting legs 4 are arranged on the mounting pipe 1 and multiple conveying pipes 3, one mounting ring 5 is arranged on each of the multiple supporting legs 4, the fixing ring 6 is coaxially arranged on the mounting pipe 1, the industrial computer 7 is arranged on the fixing ring 6, the industrial computer 7 has a connecting port 71, and the support block 81 is arranged on the connecting port 71.

[0006] Preferably, the signal generating source and the vibration sensor face oppositely.

[0007] Preferably, two sliding legs are slidably arranged on the sliding block, a roller is arranged at one end of the sliding leg away from the sliding block, the signal generating source and the vibration sensor are respectively located between the two sliding legs, and a spring d is connected between the sliding leg and the sliding block.

[0008] Preferably, the connecting tube includes a mounting tube, an elastic tube, a connecting rod, a spring a and a buffer tube, one mounting tube a is connected and arranged on the mounting tube and the conveying tube, two ends of the elastic tube are respectively connected to the two mounting tubes a, and the elastic tube is coaxial with the two mounting tubes a, multiple connecting rods are slidably arranged on the two mounting tubes a along a ring, one spring a is arranged on each of the multiple connecting rods, the buffer tube is arranged on the elastic tube, and the inner circumferential surface of the buffer tube is in contact with the outer circumferential surface of the elastic tube.

[0009] Preferably, the inner circumferential surface of the elastic tube is made of wear-resistant material.

[0010] Compared with the prior art, the utility model has the following beneficial technical effects:

[0011] When the utility model is used, a worker installs an industrial computer on the fixing ring, then installs the density detection assembly on the connecting port, pulls apart the distance between the two clamping blocks, the two clamping blocks contact the mounting tube, then pulls one of the clamping blocks, rotates the lead screw to move the sliding block, until the signal source moves to the closest distance to the mounting tube, then repeats the previous operation, moves the vibration sensor to the position closest to the signal source, the closer distance between the vibration sensor and the signal source can avoid multiple refractions of the signal in the pipeline before it can be accepted, thereby improving the detection accuracy of the density meter. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is a schematic diagram of the structure of an embodiment of the utility model;

[0013] Figure 2 This is a schematic diagram of the structure of the connecting pipe in the embodiment of the utility model.

[0014] Figure 3 It is a structural schematic diagram of the density detection component in the embodiment of the utility model.

[0015] Figure numerals: 1. Mounting tube; 2. Connecting tube; 21. Mounting tube a; 22. Elastic tube; 23. Connecting rod; 24. Spring a; 25. Buffer tube; 3. Delivery tube; 4. Support leg; 5. Mounting ring; 6. Fixed ring; 7. Industrial computer; 71. Connecting port; 8. Density detection assembly; 81. Support block; 82. Connecting block; 821. Connecting block; 822. Fixed block part a; 823. Mounting block; 83. Spring b; 84. Clamping block; 841. Fixed block part b; 85. Spring c; 86. Screw; 87. Sliding block; 88. Sliding leg; 89. Spring d; 810. Signal source; 811. Vibration sensor. DETAILED DESCRIPTION

[0016] Embodiment 1

[0017] like Figure 1-Figure 3 As shown, an environmentally friendly slurry density meter proposed in this embodiment includes a mounting pipe 1, a connecting pipe 2, a conveying pipe 3, a supporting leg 4, a mounting ring 5, a fixing ring 6, an industrial computer 7 and a density detection component 8.

[0018] The density detection assembly includes a support block 81, a connecting block 82, a spring b83, a clamping block 84, a spring c85, a screw rod 86, a sliding block 87, a signal generator 810 and a vibration sensor 811. Two connecting blocks 82 are relatively rotatably arranged on the support block 81. A connecting block portion 821 is arranged at the bottom of each of the two connecting blocks 82. Both ends of the spring b83 are respectively connected to the two connecting block portions 821. The clamping blocks 84 are respectively rotatably arranged on the two connecting blocks 82. The side ends of the two connecting blocks 82 A fixed block a822 is disposed on each of the two clamping blocks 84, a fixed block b841 is disposed on the side end surfaces of the two clamping blocks 84, two ends of the spring c85 are disposed on the fixed block a822 and the fixed block b841, respectively, a screw rod 86 is rotatably disposed on each of the two clamping blocks 84, a sliding block 87 is slidably disposed on each of the two clamping blocks 84, the two screw rods 86 are correspondingly threadedly connected to the sliding blocks 87, and the signal generator 810 and the vibration sensor 811 are respectively disposed on the two sliding blocks 87. The signal generator 810 and the vibration sensor 811 face each other.

[0019] A connecting pipe 2 is connected to each other at both ends of the installation pipe 1, a conveying pipe 3 is connected and arranged on each of the two connecting pipes 2, a plurality of support legs 4 are arranged on each of the installation pipe 1 and multiple conveying pipes 3, a mounting ring 5 is arranged on each of the multiple support legs 4, a fixing ring 6 is coaxially arranged on the installation pipe 1, an industrial computer 7 is arranged on the fixing ring 6, the industrial computer 7 has a connecting port 71, and a support block 81 is arranged on the connecting port 71. After the worker sets the installation pipe 1 to the two conveying pipes 3, the worker allows the slurry to flow in the conveying pipe 3. The multiple support legs 4 arranged on the conveying pipe 3 and the installation pipe 1 can reduce the vibration interference of the slurry on the outside, thereby improving the accuracy of the density detection component 8 in detecting the density of the slurry. After the slurry flows to the installation pipe 1, the industrial computer 7 calculates the data detected by the density detection component 8 to obtain the density of the slurry.

[0020] When this embodiment is used, a worker installs the industrial computer 7 on the fixing ring 6, and then installs the density detection assembly 8 to the connecting port 71, pulls the distance between the two clamping blocks 84, and the two clamping blocks 84 contact the mounting tube 1, then pulls one of the clamping blocks 84, and rotates the screw rod 86 to move the sliding block 87 until the signal source 810 moves to the closest distance to the mounting tube 1, and then repeats the previous operation to move the vibration sensor 811 to the position closest to the signal source 810, so that the density detection assembly can adapt to different pipe sizes, thereby improving the versatility of the density meter, and the user does not need to purchase a variety of different density meters due to different pipe specifications, thereby reducing the waste of density meters, and the closer distance between the vibration sensor 811 and the signal source can avoid the signal from being refracted multiple times in the pipe before it can be accepted, thereby improving the detection accuracy of the density meter.

[0021] Embodiment 2

[0022] like Figure 3 As shown, an environmentally friendly slurry density meter proposed in this embodiment, compared with the first embodiment, in this embodiment, two sliding legs 88 are slidably arranged on the sliding block 87, a roller is arranged at one end of the sliding leg 88 away from the sliding block 87, the signal source 810 and the vibration sensor 811 are respectively located between the two sliding legs 88, and a spring d89 is connected between the sliding leg 88 and the sliding block 87.

[0023] In this embodiment, after the signal source 810 and the vibration sensor 811 are moved to the position required by the worker, the multiple sliding legs 88 can make sliding contact with the outer circumferential surface of the pipe, and fix the position of the signal source 810 and the vibration sensor 811 from both sides to avoid shaking of the signal source 810 and the vibration sensor 811 due to external forces, thereby improving the detection accuracy of the density meter.

[0024] Embodiment 3

[0025] like Figure 2 As shown, an environmentally friendly slurry density meter proposed in this embodiment, compared with embodiment one, in this embodiment, the connecting pipe 2 includes a mounting tube a21, an elastic tube 22, a connecting rod 23, a spring a24 and a buffer tube 25, the mounting tube a21 is connected and arranged on the mounting tube 1 and the conveying tube 3, the two ends of the elastic tube 22 are respectively connected to the two mounting tubes a21, and the elastic tube 22 is coaxial with the two mounting tubes a21, a plurality of connecting rods 23 are slidably arranged on the two mounting tubes a21 along a ring, a spring a24 is arranged on each of the plurality of connecting rods 23, the buffer tube 25 is arranged on the elastic tube 22, and the inner circumferential surface of the buffer tube 25 is in contact with the outer circumferential surface of the elastic tube 22, the inner circumferential surface of the elastic tube 22 is made of wear-resistant material, the slurry contains a large amount of minerals, when the slurry moves, the minerals will slide in contact with the inner surface of the elastic tube 22, thereby wearing the elastic tube 22, thereby improving the service life of the elastic tube 22 and reducing the user's cost.

[0026] In this embodiment, after the worker installs the connecting pipe 2, when the conveying pipe 3 is impacted by external force and vibrates, the vibration will move the position of the mounting pipe a21, causing the distance between the two mounting pipes a21 to decrease. When the mounting pipe a21 moves, the elastic tube 22, the spring a24 and the buffer tube 25 will absorb the vibration, thereby preventing the external vibration from being transmitted to the mounting pipe 1, avoiding external interference with the detection accuracy of the density meter, and improving the accuracy of the equipment in detecting the slurry density.

[0027] The implementation modes of the present invention are described in detail above in conjunction with the accompanying drawings, but the present invention is not limited thereto, and various changes can be made within the knowledge scope of technicians in the relevant technical field without departing from the purpose of the present invention.

Claims

1. An environmentally friendly slurry density meter, characterized in that: It comprises a mounting pipe (1), a connecting pipe (2), a conveying pipe (3), a supporting leg (4), a mounting ring (5), a fixing ring (6), an industrial computer (7) and a density detection component (8); The density detection assembly comprises a support block (81), a connection block (82), a spring b (83), a clamping block (84), a spring c (85), a screw rod (86), a sliding block (87), a signal generator (810) and a vibration sensor (811). Two connection blocks (82) are relatively rotatably arranged on the support block (81). A connection block portion (821) is arranged at the bottom of each of the two connection blocks (82). Two ends of the spring b (83) are respectively connected to the two connection block portions (821). One clamping block (84) is rotatably arranged on each of the two connection blocks (82). The two connection blocks (82) are A fixed block portion a (822) is disposed on the side end surface of each of the two clamping blocks (84), a fixed block portion b (841) is disposed on the side end surfaces of each of the two clamping blocks (84), two ends of a spring c (85) are disposed on the fixed block portion a (822) and the fixed block portion b (841), respectively, a screw rod (86) is rotatably disposed on each of the two clamping blocks (84), a sliding block (87) is slidably disposed on each of the two clamping blocks (84), the two screw rods (86) and the sliding blocks (87) are correspondingly threadedly connected, and a signal generator (810) and a vibration sensor (811) are disposed on the two sliding blocks (87), respectively; Two connecting blocks (82) are relatively rotatably arranged on the supporting block (81), a connecting block portion (821) is arranged at the bottom of each of the two connecting blocks (82), two ends of the spring b (83) are respectively connected to the two connecting block portions (821), a clamping block (84) is rotatably arranged on each of the two connecting blocks (82), a fixed block portion a (822) is arranged on the side end surfaces of each of the two connecting blocks (82), and a fixed block portion a (822) is arranged on the side end surfaces of each of the two clamping blocks (84) Part b (841), the two ends of the spring c (85) are respectively arranged on the fixed block part a (822) and the fixed block part b (841), a screw rod (86) is rotatably arranged on each of the two clamping blocks (84), a sliding block (87) is slidably arranged on each of the two clamping blocks (84), the two screw rods (86) and the sliding blocks (87) are correspondingly threadedly connected, and the signal generator (810) and the vibration sensor (811) are respectively arranged on the two sliding blocks (87).

2. The environmentally friendly slurry density meter according to claim 1, characterized in that: The signal generating source (810) and the vibration sensor (811) face each other.

3. The environmentally friendly slurry density meter according to claim 1, characterized in that: Two sliding legs (88) are slidably arranged on the sliding block (87), a roller is arranged at one end of the sliding leg (88) away from the sliding block (87), a signal generator (810) and a vibration sensor (811) are respectively located between the two sliding legs (88), and a spring d (89) is connected between the sliding leg (88) and the sliding block (87).

4. The environmentally friendly slurry density meter according to claim 1, characterized in that: The connecting pipe (2) comprises a mounting pipe a (21), an elastic pipe (22), a connecting rod (23), a spring a (24) and a buffer pipe (25). One mounting pipe a (21) is connected to the mounting pipe (1) and the delivery pipe (3). Two ends of the elastic pipe (22) are respectively connected to the two mounting pipes a (21). The elastic pipe (22) and the two mounting pipes a (21) are coaxial. A plurality of connecting rods (23) are slidably arranged on the two mounting pipes a (21) along a ring shape. One spring a (24) is arranged on each of the plurality of connecting rods (23). The buffer pipe (25) is arranged on the elastic pipe (22). The inner peripheral surface of the buffer pipe (25) contacts the outer peripheral surface of the elastic pipe (22).

5. The environmentally friendly slurry density meter according to claim 4, characterized in that: The inner peripheral surface of the elastic tube (22) is made of wear-resistant material.

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