A system for detecting carbon content in the environment

Abstract

The invention discloses a carbon content detection system in an environment, which relates to the field of carbon dioxide concentration detection, and comprises a carbon dioxide detection tower and a control terminal. The control terminal comprises an anti-seismic base, a protective body is fixedly provided on the upper end surface of the anti-seismic base, a main control integrated block is arranged in the protective body, and a hydraulic telescopic rod is fixedly provided on the upper end surface of the protective body. The invention detects the carbon dioxide concentration at different heights in the atmospheric environment, so as to fully understand the carbon dioxide situation in the environment, and at the same time, it can know in real time which time period has the highest carbon dioxide emission and which height has the most reduced carbon dioxide concentration, so as to prescribe the right medicine to accurately carry out carbon dioxide emission and carbon dioxide removal for efficient management, greatly improve the efficiency of reducing the carbon dioxide concentration, and at the same time, effectively maintain the carbon dioxide concentration in the atmospheric environment.

Description

Technical Field

[0001] The invention relates to the field of carbon dioxide concentration detection, and in particular to a carbon content detection system in an environment. Background Art

[0002] At present, the traditional detection of carbon dioxide concentration in the atmospheric environment is relatively simple, and it is difficult to monitor the carbon dioxide concentration in the urban environment in real time. It is impossible to detect the carbon dioxide concentration in the city in an all-round way, which seriously affects people's efficiency in controlling carbon dioxide concentration. Summary of the invention

[0003] The object of the present invention is to provide a system for detecting carbon content in an environment to solve the problems raised in the above background technology.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a carbon content detection system in an environment, comprising a carbon dioxide detection tower and a control terminal, wherein the control terminal comprises an anti-seismic base, a protective body is fixedly provided on the upper end surface of the anti-seismic base, a main control integrated block is arranged in the protective body, a hydraulic telescopic rod is fixedly provided on the upper end surface of the protective body, a detection shell is fixedly provided on the telescopic end of the hydraulic telescopic rod, a detection inner cavity is arranged in the detection shell, a carbon dioxide detector is fixedly provided on the lower side wall of the detection inner cavity, the carbon dioxide detector is electrically connected to the main control integrated block, the left and right side walls of the detection inner cavity are respectively connected to arc-shaped air inlet cavities, each of the arc-shaped air inlet cavities is fixedly provided with an air suction machine at the connection point with the detection inner cavity, each of the air suction machines is electrically connected to the main control integrated block, and each of the The side walls of the arc-shaped air inlet cavity close to the center line direction of the detection cavity are fixed with filters, and a first cavity is respectively arranged on the upper side of each of the arc-shaped air inlet cavities, and a rotating shaft is respectively rotatably connected between the front and rear side walls of each of the first cavities, and a fixed sleeve is respectively fixed on each of the rotating shafts, and a torsion spring is respectively connected to the front and rear side walls of the first cavity on each of the fixed sleeves, and an impact rod is respectively fixed on the lower end surface of each of the fixed sleeves, and a sliding groove is respectively arranged between each of the arc-shaped air inlet cavity and the first cavity, and is slidably connected to the corresponding impact rod, and a toggle arm is respectively fixed on the upper end surface of each of the fixed sleeves, and an elliptical sliding column is respectively fixed on the upper end surface of each of the toggle arms, and a second cavity is respectively fixed on the upper side wall of the detection cavity, and a toggle mechanism is arranged between the second cavity and the two first cavities.

[0005] Preferably, the toggle mechanism includes a sliding column slidably mounted on the upper side wall of the second inner cavity, the sliding column extends upward and passes through the upper end surface of the detection shell, an arc-shaped rubber plate is fixedly provided on the lower end surface of the sliding column, a reset spring is connected between the upper end surface of the arc-shaped rubber plate and the upper side wall of the second inner cavity, an outer cover plate is fixedly provided on the upper end surface of the sliding column, and arc-shaped sliding arms are hingedly connected to the left and right end surfaces of the outer cover plate, each of the arc-shaped sliding arms slides through the corresponding first inner cavity, and a groove plate is fixedly provided on the end surface of each arc-shaped sliding arm close to the center line direction of the detection inner cavity.

[0006] Preferably, each of the groove plates is arranged in a continuous concave arch shape at the end face close to the center line direction of the detection inner cavity, and the surface is smooth and slidably connected to the corresponding elliptical sliding column, so that when the arc-shaped sliding arm slides upward, it drives the corresponding groove plate to slide, so that the toggle arm swings left and right, thereby driving the corresponding impact rod to swing left and right to knock on the filter, thereby removing impurities and dust attached to the outer surface of the filter, effectively ensuring the control terminal's detection of the carbon dioxide content in the air.

[0007] Preferably, a height detector is embedded in the upper surface of the outer cover plate, the detection height data is set to H and is communicatively connected with the main control integrated block.

[0008] Preferably, the carbon dioxide detection tower is communicatively connected to the main control integrated block, and data transmission is performed via GPRS.

[0009] Preferably, the carbon dioxide concentration data detected by the carbon dioxide detector is set to C, and the main control integrated block receives the position data H of the height detector in the outer cover plate and C at the H position, and bundles and integrates them into C\H, and transmits them to the carbon dioxide detection tower.

[0010] Preferably, the C at each H position is detected once every two hours between 0:00 and 12:00, and once every one hour between 12:00 and 24:00.

[0011] Preferably, the carbon dioxide detection tower receives C\H data transmitted by the main control integrated block in real time, and compares it with the height data of the same position in the previous time period to calculate the increase rate of carbon dioxide concentration.

[0012] Preferably, the carbon dioxide detection tower summarizes and arranges the carbon dioxide concentration increase rates of each H at 24 o'clock every day and stores them.

[0013] In summary, the beneficial effects of the present invention are:

[0014] The present invention detects the carbon dioxide concentration at different altitudes in the atmospheric environment, so as to comprehensively understand the carbon dioxide situation in the environment, and can also know in real time which time period the carbon dioxide emission is the highest and at which altitude the carbon dioxide concentration is reduced the most, so as to accurately carry out carbon dioxide emission and carbon dioxide removal for efficient management, greatly improving the efficiency of reducing the carbon dioxide concentration, and at the same time effectively maintaining the carbon dioxide concentration in the atmospheric environment. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the embodiments of the invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0016] Figure 1 This is a schematic diagram of the overall structure of a carbon content detection system in an environment according to the present invention;

[0017] Figure 2 For the present invention Figure 1 A schematic diagram of the partially enlarged structure at center A;

[0018] Figure 3 For the present invention Figure 1 Schematic diagram of the local enlarged structure at point B in the middle.

[0019] The marks in the accompanying drawings are described as follows: 10, earthquake-resistant base; 11, protective body; 12, main control integrated block; 13, hydraulic telescopic rod; 14, detection shell; 15, detection inner cavity; 16, carbon dioxide detector; 17, arc-shaped sealing plate; 18, air suction machine; 19, arc-shaped air intake cavity; 20, filter screen; 21, impact rod; 22, rotating shaft; 23, fixed sleeve; 24, toggle arm; 25, elliptical sliding column; 26, groove plate; 27, arc-shaped sliding arm; 28, first inner cavity; 29, arc-shaped rubber plate; 30, sliding column; 31, outer cover plate; 32, second inner cavity; 100, carbon dioxide detection tower; 200, control terminal; 201, toggle mechanism. DETAILED DESCRIPTION

[0020] All features disclosed in this specification, or steps in all methods or processes disclosed, except mutually exclusive features and / or steps, can be combined in any manner.

[0021] Any feature disclosed in this specification (including any additional claims, abstract and drawings), unless otherwise stated, may be replaced by other equivalent or alternative features with similar purposes. That is, unless otherwise stated, each feature is only an example of a series of equivalent or similar features.

[0022] Combine the following Figure 1-3 The present invention is described in detail. For the convenience of description, the directions mentioned below are defined as follows: the up, down, left, right, front, and back directions mentioned below are the same as Figure 1 The view direction is consistent in front, back, left, right, up and down. Figure 1 is a front view of the device of the present invention, Figure 1 The directions shown are consistent with the front, back, left, right, up and down directions of the device of the present invention when viewed from the front.

[0023] See also Figure 1-3 An embodiment of the present invention is as follows: a carbon content detection system in an environment comprises a carbon dioxide detection tower 100 and a control terminal 200, wherein the control terminal 200 comprises an anti-seismic base 10, wherein a protective body 11 is fixedly provided on the upper end surface of the anti-seismic base 10, wherein a main control integrated block 12 is arranged in the protective body 11, wherein a hydraulic telescopic rod 13 is fixedly provided on the upper end surface of the protective body 11, wherein a detection shell 14 is fixedly provided at the telescopic end of the hydraulic telescopic rod 13, wherein a detection inner cavity 15 is arranged in the detection shell 14, wherein a carbon dioxide detector 16 is fixedly provided on the lower side wall of the detection inner cavity 15, wherein the carbon dioxide detector 16 is electrically connected to the main control integrated block 12, wherein the left and right side walls of the detection inner cavity 15 are respectively connected to arc-shaped air inlet cavities 19, wherein each arc-shaped air inlet cavity 19 is fixedly provided with an air suction machine 18 at the connection point with the detection inner cavity 15, wherein each air suction machine 18 is electrically connected to the main control integrated block 12 ... arc-shaped air inlet cavity 19 is fixedly provided with an air suction machine 18 at the connection point with the detection inner cavity 15, wherein each arc-shaped air inlet cavity A filter screen 20 is fixedly provided on the side wall of the air cavity 19 close to the center line direction of the detection inner cavity 15, a first inner cavity 28 is respectively provided on the upper side of each of the arc-shaped air inlet cavities 19, a rotating shaft 22 is respectively rotatably connected between the front and rear side walls of each of the first inner cavities 28, a fixed sleeve 23 is respectively fixed on each of the rotating shafts 22, a torsion spring is respectively connected to the front and rear side walls of the first inner cavity 28 on each of the fixed sleeves 23, an impact rod 21 is respectively fixed on the lower end surface of each of the fixed sleeves 23, a sliding groove is respectively provided between each of the arc-shaped air inlet cavities 19 and the first inner cavity 28, and is slidably connected to the corresponding impact rod 21, a toggle arm 24 is respectively fixed on the upper end surface of each of the fixed sleeves 23, and an elliptical sliding column 25 is respectively fixed on the upper end surface of each of the toggle arms 24, and a second inner cavity 32 is respectively fixed on the upper side wall of the detection inner cavity 15, and a toggle mechanism 201 is provided between the second inner cavity 32 and the two first inner cavities 28.

[0024] In addition, in one embodiment, the toggle mechanism 201 includes a sliding column 30 slidably mounted on the upper side wall of the second inner cavity 32, the sliding column 30 extends upward and passes through the upper end surface of the detection shell 14, and an arc-shaped rubber plate 29 is fixedly provided on the lower end surface of the sliding column 30, and a reset spring is connected between the upper end surface of the arc-shaped rubber plate 29 and the upper side wall of the second inner cavity 32, and an outer cover plate 31 is fixedly provided on the upper end surface of the sliding column 30, and arc-shaped sliding arms 27 are respectively hinged on the left and right end surfaces of the outer cover plate 31, and each of the arc-shaped sliding arms 27 slides through the corresponding first inner cavity 28, and each of the arc-shaped sliding arms 27 is respectively fixed with a groove plate 26 on the end surface close to the center line direction of the detection inner cavity 15.

[0025] In addition, in one embodiment, each of the groove plates 26 is arranged in a continuous concave arch shape near the end face in the direction of the center line of the detection cavity 15, and the surface is smooth and slidably connected to the corresponding elliptical sliding column 25, so that when the arc-shaped sliding arm 27 slides upward, it drives the corresponding groove plate 26 to slide, so that the toggle arm 24 swings left and right, thereby driving the corresponding impact rod 21 to swing left and right to knock on the filter 20, thereby removing impurities and dust attached to the outer surface of the filter 20, effectively ensuring the control terminal 200 to detect the carbon dioxide content in the air.

[0026] In addition, in one embodiment, a height detector is embedded in the upper end surface of the outer cover plate 31 , and the detection height data is set to H and is in communication connection with the main control integrated block 12 .

[0027] In addition, in one embodiment, the carbon dioxide detection tower 100 is communicatively connected to the main control integrated block 12, and data transmission is performed via GPRS.

[0028] In addition, in one embodiment, the carbon dioxide concentration data detected by the carbon dioxide detector 16 is set to C, and the main control integrated block 12 receives the position data H of the height detector in the outer cover plate 31 and C at the H position, and bundles and integrates them into C\H, and transmits them to the carbon dioxide detection tower 100.

[0029] In addition, in one embodiment, C at each H position is detected once every two hours between 0:00 and 12:00, and once every one hour between 12:00 and 24:00.

[0030] In addition, in one embodiment, the carbon dioxide detection tower 100 receives the C\H data transmitted by the main control integrated block 12 in real time, and compares it with the height data of the same position in the previous time period to calculate the increase rate of carbon dioxide concentration.

[0031] In addition, in one embodiment, the carbon dioxide detection tower 100 summarizes and arranges the carbon dioxide concentration increase rates of each H at 24 o'clock every day and stores them.

[0032] When it is necessary to detect the carbon dioxide concentration at a certain height, the main control integrated block 12 is used to control and drive the hydraulic telescopic rod 13 to a specified height. At this time, the two air suction machines 18 are opened to suck the surrounding air into the detection inner cavity 15, so that the arc sealing plate 17 slides upward and then abuts against the arc rubber plate 29, thereby pushing the arc rubber plate 29 to slide upward, thereby driving the outer cover plate 31 to slide upward, thereby driving the two arc sliding arms 27 to slide upward, thereby driving the two groove plates 26 to slide upward, thereby making the toggle arm 24 swing left and right, thereby driving the corresponding impact rod 21 to swing left and right to knock the filter 20, thereby removing impurities and dust attached to the outer surface of the filter 20, effectively ensuring that the control terminal 200 can detect the carbon dioxide content in the air. The amount of detection is carried out. When the arc-shaped sealing plate 17 fully abuts against the upper side wall of the detection cavity 15, the two air suction machines 18 are turned off, and at the same time, the carbon dioxide detector 16 detects the carbon dioxide in the gas in the detection cavity 15, so that the detected carbon dioxide concentration data C is transmitted to the main control integrated block 12. At the same time, the position data H of the height detector in the outer cover plate 31 is transmitted to the main control integrated block 12, and bundled and integrated into C\H, and transmitted to the carbon dioxide detection tower 100. The carbon dioxide detection tower 100 receives the C\H data transmitted by the main control integrated block 12 in real time, and compares it with the height data of the same position in the previous time period to calculate the increase rate of carbon dioxide concentration. The carbon dioxide detection tower 100 summarizes and arranges the carbon dioxide concentration increase rates of each H at 24 o'clock every day, and stores them.

[0033] The above is only a specific implementation of the invention, but the protection scope of the invention is not limited to it. Any changes or substitutions that are not conceived through creative work should be included in the protection scope of the invention. Therefore, the protection scope of the invention should be based on the protection scope defined in the claims.

Claims

1. A system for detecting carbon content in an environment, comprising a carbon dioxide detection tower (100) and a control terminal (200), characterized in that: The control terminal (200) comprises an anti-vibration base (10), a protective body (11) is fixedly provided on the upper end surface of the anti-vibration base (10), a main control integrated block (12) is arranged in the protective body (11), a hydraulic telescopic rod (13) is fixedly provided on the upper end surface of the protective body (11), a detection housing (14) is fixedly provided at the telescopic end of the hydraulic telescopic rod (13), a detection inner cavity (15) is arranged in the detection housing (14), and a carbon dioxide gas is fixedly provided on the lower side wall of the detection inner cavity (15). The detector (16) is electrically connected to the main control integrated block (12). The left and right side walls of the detection inner cavity (15) are respectively connected to arc-shaped air inlet cavities (19). Each arc-shaped air inlet cavity (19) is fixedly provided with an air suction machine (18) at the connection point with the detection inner cavity (15). Each air suction machine (18) is electrically connected to the main control integrated block (12). Each arc-shaped air inlet cavity (19) is close to the side wall of the detection inner cavity (15) in the direction of the center line. A filter screen (20) is fixedly provided on each of the arc-shaped air inlet cavities (19), a first inner cavity (28) is respectively provided on the upper side of each of the arc-shaped air inlet cavities (19), a rotating shaft (22) is respectively rotatably connected between the front and rear side walls of each of the first inner cavities (28), a fixed sleeve (23) is respectively fixedly provided on each of the rotating shafts (22), a torsion spring is respectively connected between the front and rear side walls of each of the fixed sleeves (23), a striking rod (21) is respectively fixedly provided on the lower end surface of each of the fixed sleeves (23), and each of the arc-shaped air inlet cavities (19) is respectively provided with a first inner cavity (28), and a rotating shaft (22) is respectively rotatably connected between the front and rear side walls of each of the first inner cavities (28). A slide groove is respectively arranged between the air intake cavity (19) and the first inner cavity (28), and is slidably connected to the corresponding impact rod (21); a toggle arm (24) is respectively fixedly arranged on the upper end surface of each fixed sleeve (23); an elliptical sliding column (25) is respectively fixedly arranged on the upper end surface of each toggle arm (24); a second inner cavity (32) is arranged in communication with the upper side wall of the detection inner cavity (15); a toggle mechanism (201) is arranged between the second inner cavity (32) and the two first inner cavities (28).

2. A system for detecting carbon content in an environment according to claim 1, characterized in that: The toggle mechanism (201) includes a slide column (30) slidably mounted on the upper side wall of the second inner cavity (32), the slide column (30) extending upwardly through the upper end surface of the detection shell (14), an arc-shaped rubber plate (29) fixedly provided on the lower end surface of the slide column (30), a return spring connected between the upper end surface of the arc-shaped rubber plate (29) and the upper side wall of the second inner cavity (32), an outer cover plate (31) fixedly provided on the upper end surface of the slide column (30), and an arc-shaped slide arm (27) is hingedly connected to the left and right end surfaces of the outer cover plate (31), each of the arc-shaped slide arms (27) slides through the corresponding first inner cavity (28), and each of the arc-shaped slide arms (27) is fixedly provided with a groove plate (26) on the end surface close to the center line direction of the detection inner cavity (15).

3. A system for detecting carbon content in an environment according to claim 2, characterized in that: Each of the groove plates (26) is arranged in a continuous concave arch shape at its end face in the direction of the center line of the detection inner cavity (15), and has a smooth surface and is slidably connected to the corresponding elliptical sliding column (25).

4. A system for detecting carbon content in an environment according to claim 2, characterized in that: The upper end surface of the outer cover plate (31) is embedded with a height detector, the detection height data is set to H and is in communication connection with the main control integrated block (12).

5. The system for detecting carbon content in an environment according to claim 1, characterized in that: The carbon dioxide detection tower (100) is communicatively connected to the main control integrated block (12), and data transmission is performed via GPRS.

6. A system for detecting carbon content in an environment according to claim 2, characterized in that: The carbon dioxide concentration data detected by the carbon dioxide detector (16) is set to C, and the main control integrated block (12) receives the position data H of the height detector in the outer cover plate (31) and C at the H position, and bundles and integrates them into C\H, and transmits them to the carbon dioxide detection tower (100).

7. A system for detecting carbon content in an environment according to claim 6, characterized in that: The C at each H position is detected every two hours between 0:00 and 12:00, and every hour between 12:00 and 24:

00.

8. A system for detecting carbon content in an environment according to claim 7, characterized in that: The carbon dioxide detection tower (100) receives C\H data transmitted by the main control integrated block (12) in real time, and compares it with the height data of the same position in the previous time period to calculate the carbon dioxide concentration increase rate.

9. A system for detecting carbon content in an environment according to claim 8, characterized in that: The carbon dioxide detection tower (100) summarizes and arranges the carbon dioxide concentration increase rates of each H at 24 o'clock every day and stores them.

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