TWM607187U - Biological intelligent monitoring and developing system - Google Patents

Abstract

In order to solve the technical problem of the current biological aquaculture industry, it is still necessary to invest a large amount of labor cost as the operating mode. The present invention provides a biological intelligent monitoring and development system, including: an Internet of Things cloud platform and an Internet of Things device. The Internet of Things platform includes a server, the Internet of Things platform is connected to an Internet of Things device and one or more Internet devices via an Internet, and the Internet of Things platform stores more than one sense uploaded to the Internet of Things platform via the Internet of Things device. Measuring data, the Internet of Things platform judges an environmental condition and a biological characteristic according to an analysis system, the Internet of Things platform generates a monitoring farming instruction according to the environmental condition and the biological characteristic and automatically transmits it to the Internet of Things device, the Internet of Things platform Accept the operation of the Internet device.

Description

Biological intelligent monitoring and development system

The new model relates to a biological breeding automation system, in particular to a biological intelligent monitoring and cultivation system using Internet of Things to monitor and record.

Most of the existing biological breeding management methods are mainly manual operations. Taking the current agricultural breeding as an example, most of them are mainly to set up more than one irrigation pipeline in an agricultural breeding area, and manually record the time and manually observe the characterization of a crop Choose a fertilizer solution that is suitable for the crop; take the current aquaculture as an example, an aquaculture farmer needs to monitor the water quality of an aquaculture area and feed the feed, because a fish or a cultured crop in aquaculture They all grow in the aquatic environment, which often makes it difficult for the aquaculture farmer to observe the growth status and history of the fish or the aquaculture crop in the water in real time. Taking the current livestock farming as an example, a livestock farmer can set up in a farmhouse A remote monitoring system cannot provide immediate measures for the current situation of the farmhouse, and the animal husbandry industry still needs to view the current situation of the farmhouse by viewing the remote monitoring system. However, manual operations often have to bear the risk of negligence. As the output of biological breeding increases, labor costs will also become a big burden. Therefore, the development of remote monitoring and automatic adjustment of breeding conditions in a biological breeding area It is an urgent problem in various industries.

In order to solve the above-mentioned technical problems that the current biological breeding industry still needs to invest a lot of labor costs as the operating mode. The invention uses the Internet of Things technology to monitor the growth status of a cultured organism in real time, stores the record as a production history, and provides immediate measures for the growth status.

In order to achieve the above creative purpose, the present invention provides a biological intelligent monitoring and development system, including: an Internet of Things cloud platform and an Internet of Things device. The Internet of Things platform includes a server, the Internet of Things platform is connected to an Internet of Things device and more than one Internet device through an Internet, the Internet of Things platform stores more than one sensing data, and the more than one sensing data is passed through the The Internet of Things device is uploaded to the Internet of Things platform for storage; one or more audio and video data are uploaded to the Internet of Things platform via the Internet of Things device for storage; and an analysis system includes: more than one operation logic, The arithmetic logic analyzes the sensing data and the audio-visual data, the Internet of Things platform determines an environmental condition of a biological breeding area and a biological characteristic of a cultivating creature according to the arithmetic logic; and a monitoring cultivating instruction, the Internet of Things platform according to The environmental conditions and the biological characteristics generate the monitoring breeding instruction, and automatically transmit the monitoring breeding instruction to the Internet of Things device. The Internet of Things platform transmits the biological characteristics to more than one online device and accepts the operation of the Internet device.

The Internet of Things device includes: an Internet of Things gateway, the Internet of Things gateway is connected to the Internet of Things cloud platform through the Internet, and the Internet of Things gateway is connected to more than one biological monitoring device by wireless connection. And one or more Internet of Things node connections; one or more biological monitoring devices; the biological monitoring device includes: one or more sensing units, the sensing unit records the environmental conditions and the biological characteristics of the cultivated organisms, and forms more than one sensor And one or more audio-visual capture units record the environmental conditions and the biological characteristics of the breeding organisms, and form more than one audio-visual data, the biological monitoring device transmits more than one of the sensed data and one or more audio-visual data through the The IoT gateway is uploaded to the IoT platform; and more than one IoT node, the IoT node is installed One or more control agencies installed in the biological breeding area, the IoT node receives the monitoring and breeding instructions transmitted through the IoT gateway to regulate each of the control agencies; and one or more of the Internet devices include an IoT program, The Internet device executes the Internet of Things program and connects to the Internet of Things cloud platform through the Internet.

Wherein, the IoT gateway uses a communication protocol (Low Power Wide Area, LoRa) wireless connection to connect to more than one biological monitoring device and more than one IoT node.

Wherein, the biological intelligent monitoring and development system includes a solar cell, which receives light to generate electricity and store, and power the Internet of Things device.

Wherein, the biological characteristics include the growth cycle of the cultured organism and the growth characteristics of the cultured organism.

Wherein, the audiovisual data includes an image record and/or a voiceprint feature.

Further, when the biological intelligent monitoring and growing system is used in an agricultural product, the agricultural product includes more than one irrigation pipe, and the irrigation pipe includes: one or more irrigation holes, and the more than one irrigation holes are arranged on the irrigation pipe along the line; And more than one return channel, the return channel is a plurality of back and forth concave channels, each end of the return channel has an opening, one of the openings is connected to the irrigation hole, and the other is connected to the inside of the irrigation pipe.

Further, when the biological intelligent monitoring and growing system is used in the farming, the video and audio capture unit captures the image record of a crop with fruit, the analysis system evaluates the biological characteristics of the crop according to the calculation data, the The Internet of Things platform outputs the monitoring farming instruction to the Internet of Things device, and the Internet of Things device transmits the monitoring farming instruction to the Internet of Things electric control valve to adjust the liquid fertilizer suitable for the crop's fruiting period.

Further, when the biological intelligent monitoring and growing system is used in aquaculture, the audio-visual capture unit periodically captures the growth status of the aquatic organisms and forms the audio-visual data, and the analysis system analyzes the organisms of the aquatic organisms according to the calculation logic According to the characteristics, such as pregnancy, activity, and growth rate, the Internet of Things outputs the monitoring and breeding instruction to the Internet of Things feeder based on the biological characteristics.

Further, when the biological intelligent monitoring and growing system is used in a livestock breeding, the Internet of Things platform analyzes the biological characteristics of the cow during delivery by using the voiceprint characteristics of the audio-visual data and the image records to determine the cow Whether it encounters a difficult birth situation, according to the biological characteristics, the Internet of Things outputs the monitoring and breeding instruction to the Internet of Things device and the Internet device.

20: Irrigation device

21: Detention pond

211: Pumping Pipe

212: Water Supply Pipe

22: sink

221: water supply pipe

23: Liquid fertilizer tank

231: Concentrated fertilizer tank

24: Fertilization irrigation pipeline

241: Irrigation Supervisor

242: Irrigation Pipe

243: Irrigation Hole

244: Reflux Channel

25: Spray pipe

251: Sprinkler

26: Pump

30: IoT devices

31: Internet of Things Gateway

32: Biological monitoring device

321: sensing unit

3211: IoT water level sensor

3212: IoT soil pH sensor

3213: IoT soil temperature and humidity sensor

3214: IoT soil conductivity sensor

3215: IoT humidity sensor

3216: IoT water temperature sensor

3217: IoT Dissolved Oxygen Rate Sensor

3218: IoT water pH sensor

3219: IoT temperature sensor

322: Audio and video capture unit

3221: IoT humidity sensor

3222: IoT drinking water monitoring device

3223: Internet of Things Food Monitoring Device

33: IoT node

331: IoT Controller

332: Internet of Things Electric Control Valve

333: Internet of Things three-way electric control valve

334: Internet of things spray electric control valve

335: Internet of things temperature control machine

336: IoT pump

337: Internet of Things Feed Valve

338: IoT feeder

340: IoT feed valve

341: Internet of Things Livestock Feeder

40: solar cell

41: Solar Panel

42: solar battery

50: Internet device

60: Farming device

61: breeding tank

611: Inlet Pipe

612: Drain Pipe

62: Feed trough

70: Cowshed

71: breeding area

711: water supply area

712: feed area

72: drinking trough

721: water supply pipeline

73: Livestock feed trough

731: Feed Pipeline

B: crops

D: Aquatic creatures

E: cattle

N: Internet

W: water flow

Fig. 1 is a schematic diagram of the system of the preferred embodiment of the present invention.

Fig. 2 is a schematic diagram of the application of the preferred embodiment of the present invention to farming.

Figure 3 is a schematic diagram of an irrigation pipe in a preferred embodiment of the present invention.

Figure 4 is a schematic diagram of a preferred embodiment of the present invention used in aquaculture.

Figure 5 is a schematic diagram of a preferred embodiment of the present invention used in livestock breeding.

In order to understand the technical features and practical effects of the present invention in detail, and implement it in accordance with the content of the specification, the preferred embodiment shown in the figure is further described in detail as follows.

Please refer to the preferred embodiment of the present invention shown in FIG. 1. The present invention provides a biological intelligent monitoring and development system. The biological monitoring system includes an IoT cloud platform 10, an IoT device 30, and One or more Internet-connected devices 50, the Internet of Things platform 10 includes a server, the Internet of Things platform 10 connects to the Internet of Things device 30 and one or more of the Internet devices 50 through an Internet N, and the Internet of Things platform 10 is used for receiving and storing The Internet of Things device 30 uploads more than one sensing data and more than one audiovisual data through the Internet. The Internet of Things platform 10 stores and includes an analysis system that includes more than one operation logic and more than one monitoring and breeding instructions. The system sets an arithmetic logic for the environment of a biological breeding area and the physiological conditions of a cultivated organism. The analysis system performs digital, visual, and audio-visual analysis of the sensing data and the audio-visual data according to the arithmetic logic. The analysis The system uses the arithmetic logic to determine the environmental conditions of the biological breeding area and a biological characteristic of the breeding organism. The biological characteristics include the growth cycle and growth characteristics of the breeding organism, etc., and automatically based on the environmental conditions of the biological breeding area and the biological characteristics. Send the monitoring and breeding instruction to each IoT device 30. For example, when the biological breeding area is an aquaculture, one of the arithmetic logics is to set a water temperature to A, if the analysis system analyzes the sensing data according to the arithmetic logic The result is that the water temperature is lower than the value A, the IoT platform 10 will automatically initiate the monitoring and breeding instruction to transmit instructions to the IoT device 30, so that the IoT device 30 will perform temperature-raising measures according to the monitoring and breeding instruction; or When the biological breeding area is a livestock breeding area, one of the arithmetic logics can use the audiovisual data to visually analyze the biological characteristics of a cow, including body size, pregnancy, and pregnancy cycle. The analysis system can further coordinate with the environmental conditions , Determine the appropriate feeding conditions for the cow, and transmit the monitoring and breeding instruction to the IoT device 30, so that the IoT device 30 can allocate and give feed according to the monitoring and breeding instruction, so that the IoT platform 10 can target The growth cycle and growth characteristics of the cultured organism give the cultured organism a suitable breeding environment.

In addition, the Internet of Things platform 10 will also transmit the analysis result to the Internet device 50 and accept the operation of the Internet device 50 to control the operation of the Internet of Things device 30. Through this IoT platform 10 The function of automatically analyzing the sensing data and the audio-visual data and automatically transmitting the monitoring and breeding instructions. The biological intelligent monitoring and growing system can automatically and instantly provide real-time adjustment measures for the biological breeding area. The IoT platform 10 can also Using the Internet device 50 to control the Internet of Things device 30, so that a farmer can remotely operate to adjust the breeding conditions of the biological breeding area in real time. The sensing data and the audiovisual data stored by the Internet of Things platform 10 Both can be used as a production history of the breeding organism.

The Internet of Things device 30 is provided with an Internet of Things gateway 31, more than one biological monitoring device 32, and more than one Internet of Things nodes 33. The Internet of Things gateway 31 can utilize a fixed network, such as coaxial cable or ADSL (asymmetric Digital user loop), or mobile network (3G, 4G, 5G mobile Internet access) to connect to the Internet of Things cloud platform 10 through the Internet. For example, the preferred embodiment uses 4G mobile Internet access to connect to the Internet. Connect, even in remote places as long as it is still within the coverage of the mobile phone signal. The Internet of Things gateway 31 is connected to the biological monitoring device 32 and the Internet of Things node 33 respectively by means of wireless connection. The specific wireless connection technology can adopt WiFi, Bluetooth, Zigbee (Zigbee) or communication protocol (Low Power Wide Area (LoRa) and other wireless connection technologies, in this preferred embodiment, use LoRa wireless connection, which exhibits the characteristics of low power consumption, low cost, long distance, and high transmission capacity.

The biological monitoring device 32 records the environmental conditions of the biological breeding area and the biological characteristics of the cultivated creatures. The biological monitoring device 32 includes more than one sensing unit 321 and more than one audiovisual capturing unit 322. One or more of the sensing units 321 dynamically record and detect the environmental conditions and biological characteristics of the biological breeding area in real time or time, and form more than one sensing data from the detection results, and select a relatively suitable one or more of the biological characteristics according to the biological breeding area. The sensing unit 321, for example, when the biological breeding area is an agricultural breeding, the plurality of sensors include a soil temperature sensing unit, a soil moisture sensing unit, or a soil pH sensing unit, etc.; When the breeding area is the livestock breeding, the plural Each of the sensors can include an environmental temperature sensing unit, an environmental humidity sensing unit, or an illuminance sensing unit, etc. The audio-visual capture unit 322 dynamically records the environmental conditions of the biological breeding area and the biological characteristics of the cultivated organism in real time or at regular intervals. The audio-visual capture unit 322 can further record an image record and a voiceprint feature, and form For more than one piece of audiovisual data, the biological monitoring device 32 further uploads one or more pieces of the sensing data and one or more pieces of audiovisual data to the IoT platform 10 through the IoT gateway 31.

The one or more of the Internet of Things nodes 33 are installed in more than one control agency in the biological breeding area, and the Internet of Things node 33 receives instructions transmitted through the Internet of Things gateway 31 to regulate each of the control agencies, for example, for the agricultural During breeding, one of the IoT nodes 33 is an IoT spray electric control valve, and a sprinkling command issued by the IoT platform 10 transmitted by the IoT gateway 31 gives the IoT spray electric control valve , The Internet of Things spray electronic control valve can automatically start spraying water droplets after receiving instructions.

The Internet access device 50 such as the preferred embodiment is a smart phone. The Internet access device 50 of the present invention is not limited to one, and a tablet computer, a notebook computer, a desktop computer or a wearable device can be selected as the Internet access device 50. 50 Install an Internet of Things program. The Internet device 50 executes the Internet of Things program and connects to the Internet of Things cloud platform 10 through the Internet, and observes the status of multiple Internet of Things nodes 33 through a visual interface of the Internet of Things program. Manually control each IoT node 33 through the server 11.

Preferably, a solar cell 40 can be installed in the present invention. The solar cell includes a solar panel 41 and a solar battery 42. The solar cell 40 is arranged around the Internet of Things device 30 and receives light through the solar cell 40 to generate electricity and store. Powering the Internet of Things device 30 enables the operation of the Internet of Things device 30 of the present invention to selectively accept external power supply or to operate only with the power supply of the solar battery 40.

Please refer to Fig. 2 and Fig. 3, which is a preferred embodiment of the new type used in the farming, including the Internet of Things cloud platform 10, an irrigation device 20, the Internet of Things device 30, the solar cell 40, and the The Internet access device 50, wherein the solar cell 40 and the usage mode and feature description of the Internet access device 50 have been mentioned in this article, and will not be repeated here.

The irrigation device 20 includes a flood detention pond 21, a water tank 22, a liquid fertilizer tank 23, a fertilization irrigation pipeline 24, and a spray pipe 25. A pumping pipe 211 is respectively connected between the flood detention pond 21 and the water tank 22 And a water supply pipe 212, a water supply pipe 221 is connected between the liquid fertilizer tank 23 and the water tank 22, a concentrated fertilizer tank 231 is provided around the liquid fertilizer tank 23, and the fertilization irrigation pipeline 24 is provided with an irrigation main pipe 241 The front end of the irrigation main pipe 241 forms a bifurcated pipeline and is respectively connected to the water tank 22 and the liquid fertilizer tank 23, and at the end of the irrigation main pipe 241 is connected more than one irrigation pipe 242 respectively extending outwards, as this is preferred In an embodiment, an irrigation pipe 242 is provided, where the irrigation pipe 242 is a drip irrigation pipe buried in the soil. The irrigation pipe 242 is provided with a plurality of irrigation holes 243 along the line, and each irrigation hole 243 is connected to a return channel 244. The return channel 244 is a plurality of back and forth concave curved holes. The two ends of the return channel 244 each have an opening. One of the openings is connected to the irrigation hole 243, and the other opening is connected to the inside of the irrigation pipe 242. When the water flow W is introduced into the pipe 242, the water flow W needs to pass through the return channel 244 before it can be discharged from the irrigation hole 243. Because the return channel 244 causes greater resistance due to the characteristics of the plurality of concave curved channels, it is effective The flow rate, speed, and pressure of the water flow W discharged from the irrigation hole 243 are controlled so that the irrigation hole 243 at the relatively front end of the irrigation pipe 242 will not discharge too much water, resulting in the irrigation pipe 242 being relatively at the rear end of the irrigation hole 243 The water flow W is insufficient, so the multiple irrigation holes 243 arranged along the irrigation pipe 242 can supply the same amount of water to nearby crops B.

Plant crops B along the lines of each irrigation pipe 242. For example, the crop B planted in this preferred embodiment is coffee trees. The front end of the spray pipe 25 is connected to the water tank 22, and the end of the spray pipe 25 is combined There are more than one sprayer 251. In this preferred embodiment, two sprayers 251 are provided and are located around each crop B. The water droplets sprayed by each sprayer 251 are used to simulate rainfall spraying on each crop B to simulate Raindrops hitting the flowers of crop B to make them fall can increase the efficiency of crop growth. Between the two ends of the water pumping pipe 211, the water supply pipe 212, the water supply pipe 221, the front end of each irrigation pipe 242, and the middle of the spray pipe 25, a pump 26 is respectively provided.

The biological monitoring device 32 includes more than one sensing unit 321 and the video and audio capture unit 322. As in the present preferred embodiment, one or more of the sensing units 321 are included in the flood detention pond 21, the water tank 22, and the liquid fertilizer tank 23, respectively, and an IoT water level sensor 3211 is installed in each sprinkler pipe 25 along the line. There are one or more IoT soil pH sensors 3212, one or more IoT soil temperature and humidity sensors 3213, and one or more IoT soil conductivity sensors 3214, respectively, on the crop B along each irrigation pipe 242 There is more than one IoT humidity sensor 3215, and each IoT humidity sensor 3215 is used to detect the humidity of leaves. The video and audio capture unit 322 is arranged on each crop B. The video and audio capture unit 322 is timed Shoot the growth status of each crop B.

More than one IoT node 33 is installed in more than one control agency in the farming area. According to the preferred implementation of the present invention, an IoT controller 331 is installed in each pump 26, and the concentrated fertilizer tank 231 and An Internet of Things electric control valve 332 is provided between the liquid fertilizer tank 23, and an Internet of Things three-way electronic control valve 333 is combined between the irrigation main pipe 241, the water tank 22 and the liquid fertilizer tank 23, and is located along the spray pipe 25 An Internet of Things spray electric control valve 334 is located in front of the water pump 26.

The IoT gateway 31 receives the sensing data of the aforementioned various IoT nodes 33 and the audio-visual data of the audio-visual capture unit 322, uploads the sensed data and the audio-visual data to the IoT cloud platform 10 for storage as The production history, the Internet of Things cloud platform 10 evaluates the biological characteristics of the crop B according to the calculation logic against the sensing data and the audio-visual data, such as whether it blooms and whether it bears fruit It is the ripe state of the fruit or the fruit, and the monitoring and breeding instruction suitable for the crop B is transmitted to the Internet of Things device 30. For example, according to the IoT humidity sensor 3215 to detect the humidity of each crop B leaf, the pH value of each IoT soil pH sensor 3212, the temperature and humidity of each IoT soil temperature and humidity sensor 3213, and each IoT According to the soil conductivity of the soil conductivity sensor 3214, the IoT cloud platform 10 outputs the monitoring aquaculture command and drives the pump 26 at the front end of each irrigation pipe 242 to irrigate fertilizer and the spray pipe according to the threshold set by the calculation logic The water pump 26 of 25 operates for irrigation or sprinkling.

Or for example, the water source of the detention pond 21 is supplemented by rainwater and tap water. When the IoT water level sensor 3211 installed in the detention pond 21 detects that the water level of the detention pond 21 is higher than a set threshold C, the object The networking platform 10 outputs the monitoring and breeding instruction to the IoT device 30, and the IoT device 30 further transmits the monitoring and breeding instruction, and controls the corresponding IoT controller 331 to activate the pump 26 provided in the pumping pipe 211, The water in the detention pond 21 is pumped to the water tank 22. If the water level sensor 3211 of the Internet of Things detects that the water level of the detention pond 21 is lower than the set threshold C, the pumping set in the water supply pipe 212 is activated. The water pump 26 pumps the water in the water tank 22 back to the flood detention basin 21 to prevent the water level from being too low.

For another example, when the video capture unit 322 captures the image record of crop B bearing fruit, the analysis system evaluates the biological characteristics of the crop according to the calculation data, and the Internet of Things platform 10 outputs the monitoring breeding instruction to the object The Internet of Things device 30 further transmits the monitoring and breeding instruction to the Internet of Things electronic control valve 332, and adjusts the liquid fertilizer suitable for the result period of the crop B, so that the crop B is more suitable according to different periods Take care of.

Please refer to Fig. 4, which is a preferred embodiment of the new type for the aquaculture, including the IoT cloud platform 10, a breeding device 60, the IoT device 30, the solar battery 40 and the Internet device 50, Wherein, the usage mode and feature description of the solar cell 40 and the Internet access device 50 have been mentioned in this article, and will not be repeated here.

The culture device 60 includes a culture tank 61 and a feed tank 62. The culture tank 61 includes an inlet pipe 611 and a drain pipe 612. A pump 26 is provided between the inlet pipe 611 and the drain pipe 612.

The biological monitoring device 32 record includes one or more of the sensing unit 321 and the video capture unit 322. As in this preferred embodiment, one or more of the sensing units 321 include an IoT water level sensor 3211, an IoT water temperature sensor 3216, and an IoT dissolved oxygen rate sensor installed in the cultivation tank 61 The video and audio capture unit 322 is installed in the aquaculture tank 61, and the video capture unit 322 periodically captures the growth status of each aquatic organism D, and generates more than one video data. .

More than one IoT node 33 is installed in more than one control agency in the aquaculture area. According to the preferred implementation of the present invention, each of the pumps 26 is equipped with an IoT controller 331, and an object is installed in the aquaculture tank 61 An Internet of Things temperature control machine 335, an Internet of Things air compressor 336, an Internet of Things feed valve 337 is installed between the breeding tank 61 and the feed tank 62, and the Internet of Things feed valve 337 can be based on the Internet of Things cloud The platform 10 is set to place a fixed amount of feed into the breeding tank 61 at a fixed time, and the feed tank 62 is provided with an IoT feeder 338.

The IoT gateway 31 receives the sensing data of the aforementioned various IoT nodes 33 and the audio-visual data of the audio-visual capture unit 322, uploads the sensed data and the audio-visual data to the IoT cloud platform 10 for storage as Production history, the IoT cloud platform 10 evaluates the biological characteristics of one or more aquatic organisms D according to the arithmetic logic set for the sensing data and the audiovisual data, and transmits the monitoring and breeding instruction to perform the monitoring on the IoT device 30 Automatic control; for example, if the IoT water level sensor 3211 detects that the water level of the aquaculture tank 61 is lower than the set value, the IoT cloud platform 10 transmits the monitoring aquaculture instruction to start the pump on the water inlet pipe 611 The Internet of Things controller 331 of 26 will lead the water Enter the aquaculture tank 61; if the IoT water level sensor 3211 detects that the water level of the aquaculture tank 61 is too high, the IoT cloud platform 10 transmits the monitoring aquaculture instruction to start the pump on the drainage pipe 612 The Internet of Things controller 331 of 26 then leads the water out of the cultivation tank 61.

Or, for example, the Internet of Things water temperature sensor 3216, the Internet of Things dissolved oxygen rate sensor 3217, and the Internet of Things water pH sensor 3218 respectively detect the water temperature, the dissolved oxygen rate, and the pH of the water in the aquaculture tank 61 , The IoT cloud platform 10 judges the water quality status in the tank according to the threshold set by the analysis system, and takes the corresponding monitoring aquaculture instruction according to the analysis result, such as separately regulating the IoT temperature control machine 335 and the IoT The air pump 336 may determine whether the cultivation tank 61 needs to be changed water, and provide a better cultivation environment for the aquatic organism D.

For another example, the video and audio capture unit 322 periodically captures the growth status of the aquatic creature D and forms the image data. The analysis system analyzes the biological characteristics of the aquatic creature D according to the calculation logic, such as whether it is pregnant or the status of each aquatic creature D. Activity and growth rate, the Internet of Things platform 10 determines whether special care is needed or appropriate feed is required according to the biological characteristics, and the Internet of Things platform 10 further transmits the monitoring and breeding instructions to the Internet of Things feeder 338 to adjust The feed for aquatic organism D.

Please refer to FIG. 5, which is a preferred embodiment of the new type for the livestock breeding. The following takes cattle E breeding as the present embodiment, including the IoT cloud platform 10, a cow house 70, and the IoT device 30 , The solar cell 40 and the Internet access device 50, wherein the usage and feature description of the solar cell 40 and the Internet access device 50 are all mentioned in this article, and will not be repeated here.

The cow house 70 includes three breeding areas 71, a drinking trough 72, and a livestock feed trough 73. The breeding area 71 is provided with a water supply area 711 and a feeding area 712, the water supply area 711 and the drinking trough 72 A water supply pipeline 721 is connected between, and a feeding pipeline 731 is connected between the feeding area 712 and the livestock feed trough 73.

The biological monitoring device 32 record includes one or more of the sensing unit 321 and the video capture unit 322. As in this preferred embodiment, one or more of the sensing units 321 are included in the cowshed 70, an IoT temperature sensor 3219 and an IoT humidity sensor 3221 are provided, the IoT temperature sensor 3119 and The Internet of Things humidity sensor 3221 records the air quality of the cowshed 70, and transmits the sensing data to the Internet of Things platform 10. The Internet of Things platform 10 determines the sensing data and then gives the monitoring and breeding instructions, for example, the If the temperature of the cow house 70 is too high, the IoT platform 10 will give the monitoring and breeding instructions to turn on the fan and/or open the window. The water supply area 711 area is equipped with an IoT drinking water monitoring device 3222 to record the drinking water status of a cow E. The feeding area 712 is provided with an IoT diet monitoring device 3223, which records the diet status of the cow E.

The audio-visual capture unit 322 dynamically records the environmental conditions and more than one audio-visual data of the breeding organisms in real time or at regular intervals. In this embodiment, each breeding area 71 is provided with an audio-visual capture unit 322. The unit 322 can record the image according to the growth state of the cow E, and record the voiceprint characteristics of each cow E to generate more than one audio-visual data.

More than one IoT node 33 is installed in more than one control agency in the animal husbandry. According to the preferred embodiment of the present invention, an IoT water supply valve 339 is provided on the water supply pipeline 721, and the IoT water supply valve 339 has been separately ordered according to instructions. For each cattle E to provide drinking water, the feeding pipeline 731 is provided with an IoT feeding valve 340. The IoT feeding valve 340 has been given appropriate feed for each cattle according to the instructions. The livestock feed trough 73 is equipped with an IoT The animal husbandry feeder 341 is configured with suitable feed for the growth state of each cow E.

The IoT platform 10 receives the sensing data of each IoT node 33 and the audiovisual data of the audiovisual capture unit 322 transmitted by the IoT gateway 31, and uses the arithmetic logic to analyze the biological characteristics of the cow E , Such as body size, weight, body temperature, growth rate, growth status, walking trajectory, diet status, etc., and automatically give appropriate monitoring and breeding instructions for the growth status of the cow E to optimize the care conditions of the cow E.

For example, the Internet of Things platform 10 analyzes that one of the cows E is in a lactation state by using the image record of the audiovisual data, and the Internet of Things platform 10 sends the monitoring and breeding instruction to the Internet of Things via the Internet of Things gateway 31 The animal husbandry feeder 341, the Internet of Things animal husbandry feeder 341 adjusts a feed formula of the cow E in the lactation state according to the monitoring breeding instruction, so that the cow E can obtain a better growth state through diet.

For another example, the Internet of Things platform 10 analyzes the biological characteristics of the other cow E during delivery based on the voiceprint characteristics of the audio-visual data and the image records, and determines whether the cow is experiencing dystocia. In the case of dystocia, the online device 50 can be immediately notified to the animal husbandry to assist.

The above descriptions are only the preferred embodiments of the present model, and are not intended to limit the scope of rights claimed by the present model. All other equivalent changes or modifications completed without departing from the spirit disclosed in the present model shall be included in the present model Within the scope of patent application.

10: IoT cloud platform

30: IoT devices

31: Internet of Things Gateway

32: Biological monitoring device

33: IoT node

40: solar cell

41: Solar Panel

42: solar battery

Claims (10)

A biological intelligent monitoring and growing system, which includes: An Internet of Things cloud platform. The Internet of Things platform includes a server. The Internet of Things platform connects an Internet of Things device and more than one Internet device through an Internet. The Internet of Things platform stores: More than one sensing data, one or more of the sensing data is uploaded to the Internet of Things platform via the Internet of Things device for storage; One or more audiovisual data, and more than one audiovisual data is uploaded to the IoT platform via the IoT device for storage; and An analysis system, the analysis system includes: One or more arithmetic logics, the arithmetic logic analyzes the sensing data and the audio-visual data, and the IoT platform determines an environmental condition of a biological breeding area and a biological characteristic of a cultured organism according to the arithmetic logic; and A monitoring breeding instruction, the IoT platform generates the monitoring breeding instruction according to the environmental conditions and the biological characteristics, and automatically transmits the monitoring breeding instruction to the IoT device, and the IoT platform transmits the biological characteristics to more than one online Device and accept the operation of the Internet device; The IoT device includes: An Internet of Things gateway that uses the Internet to connect to the Internet of Things cloud platform, and the Internet of Things gateway uses wireless connections to connect to more than one biological monitoring device and more than one Internet of Things node respectively connection; More than one biological monitoring device; the biological monitoring device includes: One or more sensing units, the sensing unit records the environmental conditions and the biological characteristics of the cultured organisms, and forms more than one sensing data; and One or more audio-visual capture units record the environmental conditions and the biological characteristics of the cultured organisms, and form more than one audio-visual data. The biological monitoring device transmits more than one sensing data and one or more audio-visual data through the IoT gateway Upload to the IoT platform; and One or more IoT nodes, the IoT nodes are installed in more than one control agency in the biological breeding area, and the IoT nodes receive the monitoring farming instruction transmitted via the IoT gateway to regulate each of the control agencies; and One or more of the Internet-connected devices includes an Internet of Things program, and the Internet-connected device executes the Internet of Things program and connects with the Internet of Things cloud platform through the Internet. For the biological intelligent monitoring and development system described in claim 1, the IoT gateway uses a communication protocol (Low Power Wide Area, LoRa) wireless connection to connect to more than one biological monitoring device and more than one IoT node. . According to the bio-intelligent monitoring and development system of claim 1, the bio-intelligence monitoring and development system includes a solar battery that receives light to generate electricity and store, and power the Internet of Things device. According to the biological intelligent monitoring and growing system described in claim 1, the biological characteristics include the growth cycle of the cultivated organism and the growth characteristics of the cultivated organism. For the biological intelligent monitoring and development system described in claim 1, the audiovisual data includes an image record. For the biological intelligent monitoring and development system described in claim 1, the audio-visual data includes a voiceprint feature. The biological intelligent monitoring and growing system described in claim 1, when the biological intelligent monitoring and growing system is used in a farming, the farming includes more than one irrigation pipe, and the irrigation pipe includes: One or more irrigation holes, the one or more irrigation holes are arranged on the irrigation pipe along the line; and More than one return channel, the return channel is a plurality of back and forth concave channels, each end of the return channel has an opening, one of the openings is connected to the irrigation hole, and the other is connected to the inside of the irrigation pipe. Such as the biological intelligent monitoring and growing system described in claim 1, when the biological intelligent monitoring and growing system is used in the farming, the audio-visual capture unit captures the image record of a crop bearing fruit, and the analysis system is based on the calculation The data evaluates the biological characteristics of the crop, the IoT platform outputs the monitoring and breeding instruction to the IoT device, and the IoT device transmits the monitoring and breeding instruction to the IoT electronic control valve to adjust the crop suitable for the crop result period Liquid fertilizer. The biological intelligent monitoring and growing system described in claim 1, when the biological intelligent monitoring and growing system is used in aquaculture, the audio-visual capture unit periodically captures the growth status of the aquatic organisms and forms the audio-visual data, and the analysis system is in accordance with The arithmetic logic analyzes whether the aquatic creature is pregnant, activity, and growth rate, and according to the biological characteristics, the Internet of Things outputs the monitoring and breeding instruction to the Internet of Things feeder. Such as the biological intelligent monitoring and growing system described in claim 1, when the biological intelligent monitoring and growing system is used in a livestock breeding, the Internet of Things platform analyzes the delivery of the cow based on the voiceprint characteristics of the audiovisual data and the image record According to the biological characteristics at the time, it is judged whether the cow is in a difficult birth situation. Based on the biological characteristics, the Internet of Things outputs the monitoring and breeding instruction to the Internet of Things device and the Internet device.

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