LU505706B1 - A DEVICE FOR MEASURING AND DETERMINING THE CARBON SINK CAPACITY OF PLANTATION FORESTS - Google Patents

Abstract

The present invention discloses an apparatus for measuring and detecting the carbon sink capacity of plantation forests, which specifically relates to the technical field of plantation forests, and the technical solution of which is as follows: It comprises a quantitative air intake box, a connecting block one and a connecting rod. The connecting block one is attached to a side end of the quantitative air intake box, and the connecting rod is rotatably attached to the inside of the connecting block one, and further comprises: a quantitative detection device, a holding device and a climbing device. The metering detection device is attached to the metering air intake box, the holding device is fixed to the connecting rod, and the climbing device is attached to the upper end of the holding device; The advantageous effect of the present invention is that: by establishing a quantitative air inlet box and establishing the quantitative detection device on the quantitative air inlet box, the space for storing air inside the box is fixed, and while the air inside the box is discharged, the air can be pumped into the box, which not only facilitates air exchange but also facilitates the detection of carbon dioxide in the air.

Description

A device for measuring and determining the carbon sink capacity of-U505706

Plantation forests

Technical part

The present invention relates to the field of plantation forests and in particular to a device for measuring and determining the carbon sink capacity of

plantation forests.

Technology in the background

The purpose of artificial forest management is clear, and the selection of tree species, spatial arrangement and other technical measures of afforestation are based on people's needs, and their main characteristics are: the seedlings or other propagation materials used are selected and bred by people and have good genetic quality and high adaptability; the individual trees are in

Generally the same age and evenly distributed on the forest floor; a smaller number of

Individual trees are used to create a forest with a uniform and reasonable

to form a group structure; the individual trees grow properly and can transition into the coppice in a timely and even manner; The degree of individual differentiation according to the

Conversion into a forest is relatively low, competition for the growth of the forest is relatively intense, the forest area is under the control of the

People and can adapt to the needs of forest growth. Artificial forests are forests created and cultivated by artificial sowing, planting or cuttings and other methods and technological measures, and according to the differences in their propagation and cultivation methods, they are generally divided into sowing, planting and cuttings forests.

The existing technology has the following shortcomings: The existing artificial forest must

carbon sink, but only the air in the artificial forest directly detects the

Carbon dioxide, the artificial forest is large, and the carbon dioxide content of the air in different

Heights in the artificial forest is different, and it is not able to control the amount of

To accurately measure carbon dioxide in the designated space.

Therefore, the invention of a device for measuring and determining the capacity of the

Carbon sinks from plantation forests are necessary.

Content of the invention

For this purpose, the present invention provides a device for measuring and

Determining the carbon sink capacity of plantation forests by setting up a quantitative air intake box and setting up a quantitative

Detection device on the quantitative air intake box, the space for the storage of

Air is fixed inside the box, and the air can be pumped into the box at the same time as it is discharged from inside the box, which is not only convenient for air exchange, but also more convenient for the detection of carbon dioxide in the air. Since the

Diameter of the trunk of the artificial forest is not very different, a

Support device and a climbing device installed on the outside of the trunk, the box is supported by the support device, and the box is driven by the climbing device to climb up the trunk, so that the air inside the box can be sampled from different heights for testing, and the accuracy of carbon dioxide detection in the air can be improved, so as to solve the need for carbon sink detection in the existing artificial forest. But only directly detect the air in the artificial forest

Carbon dioxide, the artificial forest is large, and the carbon dioxide content in the air H/505706 different heights in the artificial forest is different, and it is not able to accurately measure the amount of carbon dioxide in the specified space.

To achieve the above purpose, the present invention provides the following technical solution: a device for measuring and determining the capacity of the

Carbon sink of plantation forests, which includes a quantitative air intake box, a

Connecting block I and a connecting rod, wherein the connecting block I is attached to a

side end of the quantitative air intake box and the connecting rod is rotatably mounted on the inside of the connecting block I. Further comprising: a

A quantity determination device, a holding device and a climbing device, wherein the

Quantity determination device is attached to the quantity air intake box, the

Holding device is attached to the connecting rod and the climbing device is attached to the upper

end of the holding device;

The quantitative detection device includes a through hole, a rack, a rubber seal pressure plate and a carbon dioxide detector, wherein the through hole is inserted with a rack on the inside, the rubber seal pressure plate is slidably installed inside the quantitative air inlet box, and a carbon dioxide detector is installed at the left end of the rubber seal pressure plate. The rubber seal pressure plate is connected with the rack on the right end, the servo motor is installed at the right end of the quantitative air inlet box, the servo motor is connected with a gear on the

Output end of the servo motor, the gear is engaged and connected with the rack, and the air intake pipe is installed at the left end of the quantitative air intake box.

Preferably, the support device comprises a left clamp seat and a right

Clamp fit, the connecting rod is provided with two connecting rods, one

Connecting rod with the left clamp seat and the other connecting rod with the right

clamp seat is connected.

Preferably, the servo motor two and the support block one are each mounted at the upper end of the left clamp seat, the support block one is rotatably mounted on the inner wall of the rotation axis one, the rotation axis one is mounted on the outer wall of the climbing wheel one, the

Climbing wheel one is attached to the outer wall of the rubber hill, and the exit of the

Servo motor two is connected to one end of rotation axis one.

Preferably, the connecting block three is fixedly mounted at the upper end of the left clamp holder remote from one end of the connecting rod, the connecting block two is fixedly mounted at the upper end of the right clamp holder remote from one end of the connecting rod, and the connecting block two and the connecting block three are connected to each other by bolts.

Preferably, the climbing device comprises a support block two and a shock-absorbing

Spring, with the support block two attached to the upper end of the right clamp holder and the shock absorbing spring attached to the side end of the support block two.

Preferably, the vibration damping spring is installed with a support block three at an end remote from the support block two, the support block three is provided with a bearing at the

Inner wall installed, the bearing is rotatable with a rotary axis two installed on the inner side, the rotary axis two is installed with a climbing wheel two on the outer wall, the climbing wheel two is installed with a rubber buffer on the outer wall.

Preferably, the inlet pipe is provided with a motorized valve two and one each/505706

Gas flow meter, the inlet pipe is equipped with a wind deflector nozzle at the left end, and the wind deflector nozzle is equipped with a filter screen on the inside.

Preferably, a limiting block is fitted at one end of the frame, away from the rubber sealing pressure plate, an exhaust pipe is fitted at the right end of the

air intake box and an electric valve is attached to the exhaust pipe.

Preferably, a sealing layer is attached to the inner wall of the air volume inlet housing, a solar panel and a wireless transmitter are each attached to the upper end of the

air intake housing, a battery holder is located at the bottom of the

air intake housing and the battery holder is electrically connected to the solar panel.

Preferably, the connecting rod is at both the upper and lower end of the left

end of the connecting rod with a connecting shaft I, the connecting shaft I being rotatably mounted on the inner wall of the connecting block I, the connecting block having an axle pin inserted into the lateral end of the connecting block and the connecting rod being provided with a

Connecting shaft II.

The advantageous effect of the present invention is:

By setting up a quantitative air inlet box and setting up a quantitative detection device on the quantitative air inlet box, the space for storing air inside the box is fixed, and the air can be pumped into the box at the same time as it is discharged from the inside of the box, so that it is not only convenient to change the air, but also more convenient to detect the carbon dioxide in the air. Since the diameter of the trunk of the artificial forest is not much different, a support device and a climbing device are installed on the outside of the trunk, the box is supported by the support device, and the box is supported by the

Climbing device to climb up the trunk so that the air in different

Heights inside the box can be extracted to be detected, and the accuracy of carbon dioxide detection in the air can be improved.

Description of the attached drawings

Figure 1 shows a structural diagram of a device for measuring and determining the

Carbon sink capacity of plantation forests provided by the present invention;

Figure 2 shows a structural diagram of a device for measuring and determining the

Capacity of the carbon sink of plantation forests by the present invention to

made available;

Figure 3 shows a left view of a device for measuring and determining the carbon sink capacity of plantation forests provided by the present invention;

Figure 4 shows a right view of a quantitative air inlet box in a device for

Measuring and determining the carbon sink capacity of plantation forests provided by the present invention;

Figure 5 shows a three-dimensional view of a connecting rod in a device for

Measuring and determining the carbon sink capacity of plantation forests provided by the present invention;

Figure 6 shows a plan view of a device for measuring and determining the carbon sink capacity of plantation forests provided by the present invention.

In the picture: a quantitative air intake box 1, a sealing layer 11, a

Connecting block one 12, a connecting rod 13, a connecting shaft one 131, a

Connecting shaft two 132, a shaft pin 14, a battery holder 15, a solar panel 16, a wireless transmitter 17, a through hole 18, a quantitative detection device 2, a

Servo motor one 21, a gear 22, a rack 23, a limit block 231, a

Exhaust pipe 24, an electrically operated valve one 241, a rubber sealing pressure plate 25,

Carbon dioxide detector 26, air intake pipe 27, electric valve two 271, gas flow meter 272, air guide nozzle 28, filter screen , 281, support device 3, left clamp seat 31, right

Clamp seat 32, connection block two 33, connection block three 34, servo motor two 35,

Pivoting shaft one 36, climbing wheel one 37, support block one 38, climbing device 4, support block two 41, vibration damping spring 42, support block three 43, bearing 44, spindle two 45, climbing wheel two 46, rubber hump 47.

Detailed description

Preferred embodiments of the present invention are described below in

described in conjunction with the accompanying drawings, and it should be understood that the preferred embodiments described herein are for illustration and

explanation of the present invention and are not intended to limit the present

invention.

With reference to the attached figures 1 to 6, the present invention represents a

Device for measuring and determining the carbon sink capacity of

plantation forests, comprising a quantitative air inlet box 1, a connecting block 12, a connecting rod 13 and further a quantitative detection device 2, a

Support device 3 and a climbing device 4;

The connection block one 12 is at one side end of the quantitative

air intake box 1, the connecting block one 12 has the function of quantitative

Air inlet box 1 to support and connect, the connecting rod 13 is rotatable on the

The connecting rod 13 is mounted inside the connecting block one 12, the connecting rod 13 has the function of connecting the left clamp seat 31, the right clamp seat 32 and the connecting block one 12, respectively. The quantity measuring device 2 is mounted on the quantity air intake box 1, the quantity measuring device 2 has the function of measuring carbon dioxide in a certain

To determine the room size precisely, the support device 3 is connected to the connecting rod 13, the support device 3 has the function of supporting the air intake box 1 when the left

Clamp seat 31 and the right clamp seat 32 are limited to the fuselage, and the

Climbing device 4 is attached to the upper end of the support device 3. The climbing device 4 has the function of driving the left clamp seat 31 and the right clamp seat 32 in order to

to climb up the tree trunk to make it easier for the quantitative detection device 2

To suck air into the quantitative air intake box 1 at different heights of the tree.

The quantitative detection device 2 includes a through hole 18, a rack 23, a rubber seal pressure plate 25 and a carbon dioxide detector 26, the rack 23 is inserted into the through hole 18, the through hole 18 is opened at the right end of the quantitative air intake box 1, the through hole 18 has the function of

Movement of the rack 23, and the rubber seal pressure plate 25 is slidably mounted inside the quantitative air intake box 1. The rubber seal pressure plate 25 slides to the right and has the function of sucking air into the inside of the quantitative air intake box 1 through the air intake pipe 27, and a carbon dioxide detector 26 is mounted at the left end of the

Rubber sealing pressure plate 25 is installed, the carbon dioxide detector 26 has the function of accurately measuring and detecting the 5 carbon dioxide inside the metering air inlet box 1, and the

Width of the carbon dioxide detector 26 is smaller than the width of the air intake pipe 27. If the

Rack 23 pushes the rubber sealing sliding plate 25 to the left, the

Carbon dioxide detector 26 is inserted into the interior of the air intake pipe 27 so that the

Position of the carbon dioxide detector 26 can be better adjusted, and the right end of the

Rubber sealing sliding plate 25 is connected to the rack 23, and the

Rubber seal sliding plate 25 is pushed and pulled in the transverse direction by the rack 23. When the rubber seal sliding plate 25 is moved to the right, air is blown through the

Air intake pipe 27 is pumped into the interior of the metering air intake box 1, and the air on the right side of the rubber sealing push plate 25 is discharged to the outside through the exhaust air pipe 24, so that the interior of the metering air intake box 1 is completely filled with new air.

When the rubber sealing slide plate 25 is moved to the left, the

Rubber sealing slide plate 25 the air on the left side of the rubber sealing slide plate 25 through the air intake pipe 27 to the outside, whereby the renewed intake of new air into the

Dosing air intake box 1 is facilitated. The servo motor one 21 is located at the right end of the

The servo motor 21 has the function of rotating the gear 22, the servo motor 21 is installed with the gear 22 at the output end, and the gear 22 after rotation has the function of moving the rack 23 sideways, and the servo motor 21 can be rotated positively or negatively. The gear 22 meshes with and connects the rack 23, and the left end of the quantitative air intake box 1 is connected to a

Air intake pipe 27 through which air is fed into the quantitative air intake box 1, and the air in the quantitative air intake box 1 is also discharged through the air intake pipe 27. The air intake pipe 27 is respectively equipped with a motorized valve two 271 and a gas flow meter 272, the motorized valve two 271 and the

Gas flow meters 272 are respectively electrically connected to the battery holder 15, the motorized valve two 271 has the function of controlling the opening and closing of the air intake pipe 27, the left end of the air intake pipe 27 is coupled with an air guide nozzle 28, and the rotation of the air guide nozzle 28 toward the air guide nozzle 28 has the function of facilitating the supply of air from different directions. The inside of the

Air guide nozzle 28 is connected to a filter screen 281, the filter screen 281 has the function of filtering the air and preventing insects, leaves and weeds from entering the quantitative

Air inlet box 1, the rack 23 is connected to a limiting block 231 on the

End of the rack 23 away from the rubber sealing sliding plate 25, the

Limit block 231 has the function of limiting the right end of the rack 23 so that the rack 23 is not detached from the gear 22. The right end of the quantitative

Air intake box 1 is equipped with an outlet pipe 24, the outlet pipe 24 has the function of conveniently discharging the air to the outside on the right side of the rubber seal pressure plate 25, and the outlet pipe 24 is equipped with a motorized valve 241, the motorized valve 241 has the function of controlling the opening and closing of the outlet pipe 24, and the motorized valve 241 is electrically connected to the battery holder 15.

The support device 3 comprises a left clamp seat 31 and a right clamp seat 32,

the connecting rod 13 is provided with two connecting rods, one connecting rod 13 is connected to the left 505706

clamp seat 31, the other connecting rod 13 of the left clamp seat 31 is connected to the right clamp seat 32, the left clamp seat 31 and the right clamp seat 32 are attached to the outer wall of the fuselage, and the left clamp seat 31 and the right clamp seat 32 have the effect of supporting the metering inlet box 1. The upper end of the left

Clamp seat 31 is installed with a servo motor two 35 and a support block one 38, the servo motor two 35 has the function of rotating a rotary shaft one 36, the inner wall of the

Support block one 38 is rotatably installed with a rotary shaft one 36, the rotary shaft one 36 has the function of rotating a climbing wheel one 37, and the rotary shaft one 36 is installed with a climbing wheel one 37 on the outer wall. After the climbing wheel 37 is rotated, the

Outer wall of the climbing wheel 37 the tree trunk, so that the climbing wheel 37 rotates on the tree trunk and drives the left clamp seat 31 and the right clamp seat 32 to climb up the tree trunk, and the outer wall of the climbing wheel 37 is mounted with a rubber hump 47, and the rubber hump 47 has the effect of increasing the friction of the climbing wheel 37 and the

To increase the gripping degree of the climbing wheel 37 on the tree trunk. The output end of the servo motor two 35 is connected to one end of the rotary shaft one 36, a connecting block three 34 is fixedly attached to an upper end of the left clamp seat 31 away from one end of the

connecting rod 13, and a connecting block two 33 is fixedly mounted on an upper end of the right clamp seat 32 away from one end of the connecting rod 13. The

Connection block two 33 and connection block three 34 are connected by bolts, and connection block two 33 and connection block three 34 have the

Function to fix the position of the left clamp seat 31 and the right clamp seat 32.

The climbing device 4 comprises a support block two 41 and a vibration-damping

Spring 42, wherein the support block two 41 is attached to an upper end of the right clamp seat 32, the support block two 41 has the function of supporting the vibration-damping spring 42, the vibration-damping spring 42 is attached to a side end of the support block two 41, the vibration-damping spring 42 has the function of supporting the support block three 43, as well as buffering and damping the climbing wheel two 46. The vibration-damping

Spring 42 is mounted at an end opposite to the support block two 41 with a climbing wheel three 43, the support block three 43 having the function of supporting the rotary shaft two 45 and the climbing wheel two 46, and the inner wall of the support block three 43 is mounted with a bearing 44, the bearing 44 having the function of facilitating the rotation of the rotary shaft two 45. The bearing 44 is rotatably mounted on the inner side of the rotary shaft two 45, and after the rotary shaft two 45 is rotated, the climbing wheel two 46 is driven to rotate, and the

Climbing wheel two 46 is attached to the outer wall of the rotary shaft two 45, and after the

Climbing wheel two 46 has been rotated, the outer wall of the climbing wheel two 46 touches the

tree trunk to cause the climbing wheel two 46 to rotate on the tree trunk and drive the left clamp seat 31 and the right clamp seat 32 to climb up the tree trunk.

When the tree trunk is uneven, the climbing wheel two 46 is shock-absorbed and buffered by the shock-absorbing spring 42, and the outer wall of the climbing wheel two 46 is provided with a

Rubber hump 47 is provided, and the rubber hump 47 increases the friction between the climbing wheel two 46 and the tree trunk, so that the climbing wheel two 46 does not slip easily and can climb up easily.

The inner wall of the quantitative air intake box 1 is provided with a sealing layer 11, the sealing layer 11 has the effect of sealing the inner wall of the

; quantitative air intake box 1 and the sealing layer 11 and the&/505706

Rubber seal pressure plate 25 connections to make leakage, and the upper end of the quantitative air intake box 1 is provided with a solar panel 16 and a wireless transmitter 17, the solar panel 16 has the effect of converting the light energy into electrical energy which is stored in the battery holder 15. The wireless transmitter 17 is wirelessly connected to the

carbon dioxide detector 26 and transmits data from the carbon dioxide detector 26 wirelessly to a computer. A battery holder 15 is located at the bottom of the quantitative

Air inlet chamber 1, and the battery holder 15 has the function of holding the motorized

Valve two 271, gas flow meter 272, servo motor one 21, motorized valve one 241, carbon dioxide detector 26, and servo motor two 35, respectively. The battery holder 15 is electrically connected to the solar panel 16, and a connecting shaft 131 is provided above and below the left end of the

Connecting rod 13 is attached, and the connecting shaft 131 has the function of

Connecting block one 12 and the connecting rod 13 to be connected rotatably. The

Connecting shaft 131 is rotatably mounted on the inner wall of the connecting block one 12, the lateral end of the connecting block one 12 is inserted with a shaft pin 14, the

Shaft pin 14 has the function of controlling the position of the connecting block one 12 and the

Connecting shaft 131 to fix, the right end of the connecting rod 13 is provided with a

Connecting shaft 132 is attached to the upper and lower sides of the right end of the connecting rod 13, and the connecting shaft 132 has the function of connecting the left clamp seat 31 and the right clamp seat 32 to the connecting rod 13, respectively. The connecting shaft one 131 is rotatably attached to the inner wall of the connecting block one 12, and the side

end of the connecting block one 12 is fitted with a shaft pin 14, and the shaft pin 14 has the function of fixing the position of the connecting block one 12 and the connecting shaft one 131. The connecting rods 13 are both fitted with a connecting shaft one 132 at the right end of the connecting rod 13 at the upper and lower parts of the connecting rod 13, and the connecting shaft one 132 has the function of connecting the left clamp seat 31 and the right clamp seat 32 with the connecting rods 13. The connecting shaft one 131 is rotatably supported on the inner wall of the connecting block one 12, and the side

The end of the connecting block one 12 is provided with a shaft pin 14, and the shaft pin 14 has the function of fixing the position of the connecting block one 12 and the connecting shaft one 131. The right end of the connecting rod 13 has a connecting shaft two 132 mounted on the upper and lower sides, and the connecting shaft two 132 has the function of connecting the left clamp seat 31 and the right clamp seat 32 with the connecting rod 13.

The method for applying the present invention is as follows: the

Connection block one 12 is installed in the side end of the air intake box 1, the

Connecting rod 13 is rotatably installed in the inside of the connecting block one 12, the inner wall of the air intake box 1 is provided with a sealing layer 11, the upper

The end of the air intake box 1 is provided with a solar panel 16 and a wireless transmitter 17, the lower end of the air intake box 1 is provided with a battery holder 15, which

Battery holder 15 is electrically connected to the solar panel 16. The battery holder 15 is electrically connected to the solar panel 16. The left end of the connecting rod 13 is provided with a connecting shaft 131, the connecting shaft 131 is rotatably mounted on the inner wall of the

connecting block one 12, the side end of the connecting block one 12 is inserted with a shaft pin 14, the right end of the connecting rod 13 is fitted with a

Connecting shaft two 132 provided, the through hole 18 is provided with a rack and one/505706

Pinion 23 is inserted on the inside, and the rubber sealing pressure plate 25 is sliding in the

Inside the air intake box 1. A carbon dioxide detector 26 is mounted on the left

End of the rubber seal pressure plate 25, the rack 23 is connected to the right end of the rubber seal pressure plate 25, and a servo motor one 21 is installed at the right end of the intake casing 1. At the output of the servo motor one 21, a gear 22 is installed which engages and is connected to a rack 23, and at the left end of the intake casing 1, an air intake pipe 27 is installed on which an electric valve two 271 and a gas flow meter 272 are installed, and at the left end of the air intake pipe 27, an air guide nozzle 28 is connected, on the inside of which a filter screen 281 is connected. A restricting block 231 is installed at one end of the rack 23, away from the

Rubber sealing pressure plate 25, and an exhaust pipe 24 is at the right end of the

metering air intake box 1, and an electric valve 241 is attached to the exhaust pipe 24. There are two connecting rods 13, one connecting rod 13 is connected to the left clamp seat 31, the other connecting rod 13 is connected to the right clamp seat 32, the upper

End of the left clamp seat 31 is installed with a servo motor two 35 and a support block one 38, the inner wall of the support block one 38 is rotatably mounted with a rotary shaft one 36, and the outer wall of the rotary shaft one 36 is mounted with a climbing wheel one 37. The output side end of the servo motor two 35 is connected with one end of the rotary shaft one 36, the left clamp seat 31 is connected with the connecting block three 34 at the upper end of the

Connecting rod 13 is firmly mounted at the end facing away from the connecting rod, the right clamp seat 32 is connected to the

Connecting block two 33 is fixedly mounted at the upper end of the end facing away from the connecting rod 13, connecting block two 33 and connecting block three 34 are connected to each other by bolts, and support block two 41 is mounted at the upper end of the right clamp seat 32. Shock absorbing springs 42 are mounted at a lateral end of support block two 41, support block three 43 is mounted at an end of the shock absorbing springs 42 facing away from support block two 41, a bearing 44 is mounted at an inner wall of support block three 43, a rotary bracket of rotary joint two 45 is mounted at an inner side of

bearing 44, and a climbing wheel two 46 is attached to an outer wall of the swivel joint two 45. The climbing wheel two 46 is mounted on the outer wall with a rubber buffer 47, the left clamp seat 31 and the right clamp seat 32 are each on the outside of the

tree trunk, the shaft pin 14 is inserted into the connecting block one 12 to fix the angle of the connecting rod 13, the servo motor two 35 on the left clamp seat 31 drives the rotary shaft one 36 to rotate, and the rotary shaft one 36 drives the climbing wheel one 37 to rotate. After the climbing wheel 37 is rotated, the outer wall of the

Climbing wheel 37 the tree trunk, so that the climbing wheel 37 rotates on the tree trunk and drives the left clamp seat 31 and the right clamp seat 32 to climb up the tree trunk, and the outer wall of the climbing wheel 37 is provided with a rubber hump 47, whereby the

Rubber hump 47 has the ability to increase the friction of the climbing wheel 37 and the grip of the

climbing wheel 37 on the tree trunk. When the climbing wheel 37 rotates, the climbing wheel 46 also rotates on the tree trunk, and when the tree trunk is uneven, the shock-absorbing spring 42 dampens and buffers the climbing wheel 46, so that the box for the quantitative

Air inlet 1 is raised. The servo motor one 21 on the right side of the

Dosing air inlet box 1 drives the gear 22 to rotate, the gear 22 engages and connects the rack 23, when the gear 22 rotates, the rack

23 is driven to move to the right, and the rack 23 pulls dt&/505706

Rubber sealing pressure plate 25 to move inside the metering air inlet box 1.

Open the electric valve two 271, air from the air guide nozzle 28 into the

Air intake pipe 27, and then from the air intake pipe 27 into the quantitative air intake box 1, through the air in the air intake pipe 27 through the gas flow meter 272 to measure the amount of incoming air, open the electric valve 241. When the

Rubber seal pressure plate 25 moves to the right, it presses the air on the right side of the

Rubber sealing pressure plate 25 through the exhaust pipe 24 and then closes the motorized

Valve one 241, the motorized valve two 271, and the carbon dioxide detector 26 detects the

Carbon dioxide inside the quantitative air inlet box 1 and then sends the

Acquisition data to the computer via the wireless transmitter 17. Then the servo motor one 21 drives the gear 22 to reverse rotation, the gear 22 drives the rack 23 to move to the left, the rack 23 pushes the rubber seal pressure plate 25 to the left, the electric valve two 271 opens, and the rubber seal pressure plate 25 pushes out the air inside the quantitative air intake box 1 to repeatedly exhaust the carbon dioxide in the

Inside the quantitative air intake box 1.

The above is only a preferred embodiment of the present invention, and any person skilled in the art can modify the present invention or convert it into an equivalent technical solution using the technical solutions described above.

Therefore, any simple modification or equivalent replacement based on the technical solutions of the present invention falls within the scope of the claimed

Protection of the present invention.

Claims (10)

Claims LU505706 1. An apparatus for measuring and determining the carbon sink capacity of plantation forests, comprising a quantitative air inlet box (1), a connecting block one (12) and a connecting rod (13), the connecting block one (12) being attached to the lateral end of the quantitative air inlet box (1). The connecting rod (13) is rotatably attached to the inside of the connecting block one (12), characterized by further comprising: a dosage detection device (2), a holding device (3) and a climbing device (4). The dosage detection device (2) is mounted on the dosage inlet box (1), the supporting device (3) is fixed to the connecting rod (13), and the climbing device (4) is mounted on the upper end of the supporting device (3); The quantitative detection device (2) includes a through hole (18), a frame (23), a rubber sealing pressure plate (25), and a carbon dioxide detector (26), the frame (23) is inserted into the through hole (18). The rubber sealing pressure plate (25) is slidably mounted inside the quantitative air inlet box (1), and the rubber sealing pressure plate (25) is equipped with a carbon dioxide detector (26) at the left end. The rubber sealing pressure plate (25) is connected to the rack (23) at the right end, the servo motor one (21) is installed at the right end of the quantitative air inlet box (1), the gear (22) is installed at the output end of the servo motor one (21), the gear (22) is meshed with the rack (23), and the air inlet pipe (27) is installed at the left end of the quantitative air inlet box (1). 2. An apparatus for measuring and determining the carbon sink capacity of plantation forests according to claim 1, characterized in that: the support device (3) comprises a left clamp seat (31) and a right clamp seat (32), and the connecting rods (13) are set with two, one of which is connected to the left clamp seat (31) and the other to the right clamp seat (32). 3. An apparatus for measuring and detecting carbon sink capacity of plantation forests according to claim 2, characterized in that: the left clamp seat (31) with the second servo motor (35) and the first support block (38) is installed at the upper end respectively, and the first support block (38) with a rotating rotary axis (36) is installed on the inner wall, the rotary axis one (36) is installed on the outer wall of the climbing wheel one (37), the climbing wheel one (37) is installed on the outer wall of the rubber buffers (47), the output end of the servo motor two (35) is connected to one end of the rotary axis one (36). 4. An apparatus for measuring and determining the carbon sink capacity of plantation forests according to claim 2, characterized in that: the left clamp (31) is fixedly installed with the connecting block three (34) at the upper end of the end remote from the connecting rod (13). The right clamp holder (32) is fixedly installed with the connecting block two (33) at the upper end of the end remote from the connecting rod (13), and the connecting block two (33) and the connecting block three (34) are connected to each other by bolts. 5. An apparatus for measuring and determining the carbon sink capacity of plantation forests according to claim 1, characterized in that: the climbing device (4) comprises a support block two (41) and a shock absorbing spring (42), the support block two (41) is attached to the upper end of the right clamp seat (32), and the shock absorbing spring (42) is attached to the lateral end of the support block two (41). 6. A device for measuring and determining the carbon sink capacity in plantation forests according to claim 5, characterized in that: the vibration-damping spring (42) is installed with a support block three (43) at the end of the vibration-damping spring (42) remote from the support block two (41), and a bearing (44) is installed on the inner wall of the support block three (43). The bearing (44) is rotatably supported on the inner side with a rotation axis two (45), the rotation axis two (45) is supported on the outer wall with a climbing wheel two (46), and the climbing wheel two (46) is supported on the outer wall with a rubber buffer (47). 7. An apparatus for measuring and determining the carbon sink capacity of plantation forests according to claim 1, characterized in that: the air intake pipe (27) is installed with two electric valves (271) and a gas flow meter (272), respectively, the air intake pipe (27) is connected to an air guide nozzle (28) at the left end, and the inside of the air guide nozzle (28) is connected to a filter screen (281). 8. An apparatus for measuring and detecting carbon sink capacity of plantation forests according to claim 1, characterized in that: the frame (23) is installed with a restricting block (231) at the end remote from the rubber sealing pressure plate (25), and the quantitative air inlet box (1) with an outlet pipe (24) is installed at the right end, and an electric valve with a motorized valve (241) is installed on the outlet pipe (24). 9. An apparatus for measuring and detecting carbon sink capacity of plantation forests according to claim 1, characterized in that: a sealing layer (11) is installed on the inner wall of the quantitative air intake box (1). The quantitative air intake box (1) has a solar panel (16) and a wireless transmitter (17) each installed at the upper end. The quantitative air intake box (1) is equipped with a battery holder (15) at the lower end, and the battery holder (15) is electrically connected to the solar panel (16). 10. An apparatus for measuring and determining carbon sink capacity of plantation forests according to claim 1, characterized in that: the connecting rods (13) are installed with connecting shafts (131) at the left end of the connecting rods (13) at both the upper and lower parts of the connecting rods (13), the connecting shaft one (131) is rotatably mounted on the inner wall of the connecting block one (12), the connecting block one (12) has a shaft pin (14) inserted at the lateral end, and the connecting rods (13) have connecting shafts two (132) installed below the upper and lower parts of the right end of the connecting rods (13).