Intelligent agricultural surface temperature sensor

Abstract

The utility model relates to the technical field of intelligent agriculture, in particular to an intelligent agricultural surface temperature sensor which comprises clamping rails and supporting plates, the bottoms of the clamping rails are fixedly connected with the supporting plates, the opposite inner sides of the supporting plates are fixedly connected with connecting shafts, the opposite outer sides of the clamping rails are fixedly connected with anti-corrosion shells, and the inner sides of the anti-corrosion shells are fixedly connected with high-heat-conduction bottom plates. A sliding groove is formed in the high-heat-conduction bottom plate, the upper side of the clamping rail is clamped with a rotating wheel, the opposite inner side of the rotating wheel is fixedly connected with a rotating shaft, the rotating shaft is rotationally connected with a bearing plate through a rotating groove, and the top of the bearing plate is sequentially and fixedly connected with a driving device, a switch controller and a data recorder from left to right. Through the clamping rail, the high-thermal-conductivity bottom plate, the data recorder and the temperature sensor, the temperature of the ground surface in the greenhouse can be measured at regular intervals, the device can move by means of the rail device and is remotely controlled, the temperature of a plurality of greenhouses can be measured at regular intervals, time and labor are saved, and the economic cost is low.

Description

Technical Field

[0001] The utility model relates to the technical field of smart agriculture, and specifically relates to a surface temperature sensor for smart agriculture. Background Art

[0002] Smart agriculture is to apply Internet of Things technology to traditional agriculture, and use sensors and software to control agricultural production through a mobile platform or a computer platform, making traditional agriculture more "intelligent". Smart agriculture is the application of Internet of Things technology in the field of modern agriculture, and it mainly has a monitoring function system, a monitoring function system, and a real-time image and video monitoring function.

[0003] The detection function system of smart agriculture is a complete set of equipment for real-time monitoring of various data indicators in agricultural greenhouses. When growing crops in agricultural greenhouses, the temperature of the land needs to be strictly controlled. Therefore, it is necessary to regularly measure the surface temperature. Some existing surface temperature sensors for smart agriculture are fixed on the ground inside the greenhouse. Since they cannot be moved, a surface temperature sensor needs to be set at a certain interval, resulting in a relatively high economic cost. Therefore, a surface temperature sensor for smart agriculture is proposed to solve the above problems. Content of the Utility Model

[0004] The purpose of the utility model is to provide a surface temperature sensor for smart agriculture, so as to solve the problem that the surface temperature sensor for smart agriculture is fixed on the ground inside the greenhouse. Since it cannot be moved, a surface temperature sensor needs to be set at a certain interval, resulting in a relatively high economic cost.

[0005] To achieve the above purpose, the utility model provides the following technical solutions:

[0006] A surface temperature sensor for smart agriculture includes a clamping rail and a support plate. The bottom of the clamping rail is fixedly connected to the support plate. The opposite inner sides of the support plate are fixedly connected to a shaft. The opposite outer sides of the clamping rail are fixedly connected to an anti-corrosion shell. The inner side of the anti-corrosion shell is fixedly connected to a high thermal conductivity bottom plate. A chute is provided inside the high thermal conductivity bottom plate. The upper side of the clamping rail is engaged with a rotating wheel. The opposite inner sides of the rotating wheel are fixedly connected to a rotating shaft. The rotating shaft is rotationally connected to a supporting plate through a rotating groove. The top of the supporting plate is fixedly connected with a driving device, a switch controller, and a data recorder in sequence from left to right. Both the front and rear ends of the data recorder are fixedly connected with connecting plates. The bottom of the connecting plate is fixedly connected with a temperature sensor. The top of the data recorder is fixedly connected with a temperature display and an infrared signal transceiver.

[0007] Preferably, there are two engaging rails, support plates, anti-corrosion shells, high thermal conductivity bottom plates and chutes. The engaging rails and support plates are both rectangular plates vertically distributed. There are multiple connecting shafts, which are equidistantly distributed. The connecting shafts are rectangular shafts horizontally distributed. The anti-corrosion shell is a rectangular shell with an open top.

[0008] Preferably, the high thermal conductivity bottom plate is of rectangular structure, the chute is a rectangular groove body, there are two groups of rotating wheels, each group of rotating wheels has two, there are two rotating shafts, and the rotating shafts are circular shafts horizontally distributed in the front-rear direction.

[0009] Preferably, the supporting plate is a rectangular plate horizontally distributed. The supporting plate is provided with a circular rotating groove. The driving device is connected to the rotating shaft. The right side of the driving device is fixedly connected to the switch controller. The right side of the switch controller is fixedly connected to the data recorder. The driving device, switch controller and data recorder are electrically connected.

[0010] Preferably, there are two connecting plates and temperature sensors. The connecting plates are both "L"-shaped bent plates. The temperature sensor is of rectangular block structure. The temperature sensor is slidably connected to the high thermal conductivity bottom plate through the chute. The data recorder, temperature display and infrared signal transceiver are electrically connected.

[0011] Compared with the prior art, the beneficial effects of the present utility model are:

[0012] In the present utility model, through the arranged engaging rails, high thermal conductivity bottom plate, data recorder and temperature sensor, the driving device can drive the data recorder to move from left to right along the engaging rails, and at the same time drive the temperature sensor to slide from left to right along the chute through the connecting plate. The temperature sensor can measure the surface temperature inside the greenhouse through the high thermal conductivity bottom plate and record the data through the data recorder. This device can regularly measure the surface temperature inside the greenhouse, can move relying on the track device, and can remotely control it, and can regularly measure the temperature of multiple greenhouses, which is time-saving and labor-saving, and has a lower economic cost. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 is a schematic diagram of the overall structure of the present utility model;

[0014] Figure 2 is an exploded view of the overall structure of the present utility model;

[0015] Figure 3 is a schematic diagram of the installation structure of the temperature sensor of the present utility model.

[0016] In the figure: 1, engaging rail; 2, support plate; 3, connecting shaft; 4, anti-corrosion shell; 5, high thermal conductivity bottom plate; 6, chute; 7, rotating wheel; 8, rotating shaft; 9, supporting plate; 10, driving device; 11, switch controller; 12, data recorder; 13, connecting plate; 14, temperature sensor; 15, temperature display; 16, infrared signal transceiver. Specific embodiments

[0017] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0018] Please refer to Figures 1-3 , the present invention provides a technical solution:

[0019] A smart agriculture surface temperature sensor includes an engaging rail 1 and a support plate 2. The bottom of the engaging rail 1 is fixedly connected to the support plate 2. The opposite inner sides of the support plate 2 are fixedly connected to a connecting shaft 3. The opposite outer sides of the engaging rail 1 are fixedly connected to an anti-corrosion shell 4. The inner side of the anti-corrosion shell 4 is fixedly connected to a high thermal conductivity bottom plate 5. A chute 6 is provided inside the high thermal conductivity bottom plate 5. The upper side of the engaging rail 1 is engaged with a rotating wheel 7. The opposite inner sides of the rotating wheel 7 are fixedly connected to a rotating shaft 8. The rotating shafts 8 are rotatably connected to a supporting plate 9 through rotating grooves. The top of the supporting plate 9 is fixedly connected with a driving device 10, a switch controller 11, and a data recorder 12 in sequence from left to right. Both the front and rear ends of the data recorder 12 are fixedly connected to a connecting plate 13. The bottom of the connecting plate 13 is fixedly connected to a temperature sensor 14. The top of the data recorder 12 is fixedly connected to a temperature display 15 and an infrared signal transceiver 16.

[0020] There are two engaging rails 1, support plates 2, anti-corrosion shells 4, high thermal conductivity bottom plates 5, and chutes 6. The engaging rails 1 and the support plates 2 are both vertically distributed rectangular plates. There are multiple connecting shafts 3, which are equally spaced. The connecting shafts 3 are horizontally distributed rectangular shafts. The anti-corrosion shell 4 is a rectangular shell with an open top, which can prevent the high thermal conductivity bottom plate 5 from being corroded. The high thermal conductivity bottom plate 5 is of rectangular structure, and the chute 6 is a rectangular groove body. There are two sets of rotating wheels 7, with two rotating wheels 7 in each set. There are two rotating shafts 8, which are circular shafts horizontally distributed in the front-rear direction and can drive the rotating wheels 7 to rotate through the driving device 10. The supporting plate 9 is a horizontally distributed rectangular plate, and the supporting plate 9 is provided with a circular rotating groove. The driving device 10 is connected to the rotating shaft 8. The right side of the driving device 10 is fixedly connected to the switch controller 11, and the right side of the switch controller 11 is fixedly connected to the data recorder 12. The driving device 10, the switch controller 11, and the data recorder 12 are electrically connected, and the switch of the driving device 10 and the data recorder 12 can be controlled through the switch controller 11. There are two connecting plates 13 and two temperature sensors 14. The connecting plates 13 are both "L"-shaped bent plates, and the temperature sensors 14 are both of rectangular block structure. The temperature sensors 14 are slidably connected to the high thermal conductivity bottom plate 5 through the chutes 6. The data recorder 12, the temperature display 15, and the infrared signal transceiver 16 are electrically connected, and the temperature data can be transmitted to the central console through the infrared signal transceiver 16.

[0021] Workflow: Before use, connect the power supply, bury the support plates 2 and the connecting shafts 3 in the soil on one side of the greenhouse, make the lower half of the anti-corrosion shell 4 fit with the surface soil, and ensure that the high thermal conductivity bottom plate 5 fixedly connected to its inner side is horizontally distributed. The support plates 2 and the connecting shafts 3 both have good corrosion resistance, and the anti-corrosion shell 4 can prevent the high thermal conductivity bottom plate 5 from being corroded. When it is necessary to measure the surface temperature inside the greenhouse, the switch controller 11 can be remotely controlled through the infrared signal transceiver 16, or the switch controller 11 can be directly manually operated. The driving device 10 is started through the switch controller 11, so that it drives the rotating wheels 7 to rotate through the rotating shaft 8. The rotating wheels 7 drive the data recorder 12 to move from left to right along the engaging rail 1 through the supporting plate 9, and at the same time drive the two temperature sensors 14 to slide from left to right along the chute 6 through the connecting plates 13. The temperature sensors 14 can measure the surface temperature inside the greenhouse through the high thermal conductivity bottom plate 5 and record the data through the data recorder 12. The temperature display 15 can display the measured surface temperature in real time, and the infrared signal transceiver 16 can send the data to the central console in real time, so as to cooperate with other monitoring data for the overall planning of the greenhouse. This device can regularly measure the surface temperature inside the greenhouse, can move relying on the track device, and can be remotely controlled, and can regularly measure the temperature of multiple greenhouses, which is time-saving and labor-saving and has a low economic cost.

[0022] Although embodiments of the present utility model have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principle and spirit of the present utility model. The scope of the present utility model is defined by the appended claims and their equivalents.

Claims

1. A surface temperature sensor for smart agriculture, comprising a clamping rail (1) and a support plate (2), characterized in that: The bottom of the engaging rail (1) is fixedly connected to a support plate (2). The opposite inner sides of the support plate (2) are fixedly connected to a shaft (3). The opposite outer sides of the engaging rail (1) are fixedly connected to an anti-corrosion shell (4). The inner side of the anti-corrosion shell (4) is fixedly connected to a high thermal conductivity bottom plate (5). A chute (6) is provided inside the high thermal conductivity bottom plate (5). The upper side of the engaging rail (1) is engaged with a rotating wheel (7). The opposite inner sides of the rotating wheel (7) are fixedly connected to a rotating shaft (8). The rotating shaft (8) is rotatably connected to a supporting plate (9) through a rotating groove. The top of the supporting plate (9) is fixedly connected with a driving device (10), a switch controller (11), and a data recorder (12) in sequence from left to right. Both the front and rear ends of the data recorder (12) are fixedly connected with connecting plates (13). The bottom of the connecting plate (13) is fixedly connected with a temperature sensor (14). The top of the data recorder (12) is fixedly connected with a temperature display (15) and an infrared signal transceiver (16).

2. The surface temperature sensor for smart agriculture according to claim 1, characterized in that: There are two each of the engaging rail (1), the support plate (2), the anti-corrosion shell (4), the high thermal conductivity bottom plate (5), and the chute (6). The engaging rail (1) and the support plate (2) are both vertically distributed rectangular plates. There are multiple connecting shafts (3), and the connecting shafts (3) are equidistantly distributed. The connecting shaft (3) is a horizontally distributed rectangular shaft. The anti-corrosion shell (4) is a rectangular shell with an open top.

3. The surface temperature sensor for smart agriculture according to claim 1, characterized in that: The high thermal conductivity bottom plate (5) is of a rectangular structure. The chute (6) is a rectangular groove body. There are two groups of rotating wheels (7), and each group of rotating wheels (7) has two. There are two rotating shafts (8), and the rotating shafts (8) are circular shafts horizontally distributed in the front-rear direction.

4. The surface temperature sensor for smart agriculture according to claim 1, wherein: The supporting plate (9) is a horizontally distributed rectangular plate. The supporting plate (9) is provided with a circular rotating groove. The driving device (10) is connected to the rotating shaft (8). The right side of the driving device (10) is fixedly connected to the switch controller (11). The right side of the switch controller (11) is fixedly connected to the data recorder (12). The driving device (10), the switch controller (11), and the data recorder (12) are electrically connected.

5. The surface temperature sensor for smart agriculture according to claim 1, wherein: There are two each of the connecting plate (13) and the temperature sensor (14). The connecting plate (13) is an "L"-shaped bent plate. The temperature sensor (14) is of a rectangular block structure. The temperature sensor (14) is slidably connected to the high thermal conductivity bottom plate (5) through the chute (6). The data recorder (12), the temperature display (15), and the infrared signal transceiver (16) are electrically connected.

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