TWI709938B - Internet of Things Interactive System for Agricultural Equipment - Google Patents

Internet of Things Interactive System for Agricultural Equipment Download PDF

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TWI709938B
TWI709938B TW108131726A TW108131726A TWI709938B TW I709938 B TWI709938 B TW I709938B TW 108131726 A TW108131726 A TW 108131726A TW 108131726 A TW108131726 A TW 108131726A TW I709938 B TWI709938 B TW I709938B
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TW202111653A (en
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許哲銓
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傑思國際股份有限公司
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Abstract

一種農業設備物聯網互動系統,所述智能控制裝置的通訊模組將事件資料經環境感測裝置的第一傳輸模組、終端裝置的第二傳輸模組傳輸儲存在第一記憶模組與第二記憶模組;所述環境感測裝置的第一感測模組、第二感測模組的第一感測訊號、第二感測訊號、第一記憶模組的事件資料傳輸到第一控制模組產生感測資料,經第一傳輸模組回傳到智能控制裝置的控管模組,依據感測資料與資料庫內的事件資料產生動作訊號,經通訊模組傳輸到終端裝置,第二控制模組依據第二記憶模組的事件資料與動作訊號控制終端裝置動作,達成智能控制裝置、環境感測裝置與終端裝置之間,具備獨立依據事件資料進行M2M(Machine to machine,機器對機器)的互動控制的結構。 An interactive system for the Internet of Things for agricultural equipment. The communication module of the intelligent control device transmits and stores event data in the first memory module and the first memory module through the first transmission module of the environment sensing device and the second transmission module of the terminal device. Two memory modules; the first sensing module of the environmental sensing device, the first sensing signal of the second sensing module, the second sensing signal, and the event data of the first memory module are transmitted to the first The control module generates sensing data, which is transmitted back to the control module of the intelligent control device via the first transmission module, generates action signals based on the sensing data and event data in the database, and transmits them to the terminal device via the communication module. The second control module controls the action of the terminal device according to the event data and the action signal of the second memory module, and achieves that the intelligent control device, the environmental sensing device and the terminal device are equipped with independent M2M (Machine to machine, machine to machine) based on event data. The structure of the interactive control of the machine.

Description

農業設備物聯網互動系統 Internet of Things Interactive System for Agricultural Equipment

本發明係有關於一種農業設備物系統,特別是指一種前端設備之間具獨立感測、相互溝通與控制,自主回應動作歷程的農業設備物聯網互動系統。 The present invention relates to an agricultural equipment and thing system, in particular to an agricultural equipment Internet of Things interactive system with independent sensing, mutual communication and control between front-end equipment, and autonomous response to action history.

智慧型農業是ICT(Information and Communication Technology,資訊和通訊科技)結合Equipment Automation(設備自動化)的技術,能夠改善當前農業種植生產的狀況及難題,並結合傳統農業技術模式及概念,以提高生產效率及生產高附加價值的農作物為目標。 Smart agriculture is the combination of ICT (Information and Communication Technology) and Equipment Automation (equipment automation) technology, which can improve the current situation and problems of agricultural planting and production, and combine traditional agricultural technology models and concepts to improve production efficiency And the goal is to produce high value-added crops.

如中華民國新型專利公告號第M577648號「智慧型植栽培育系統」、公告號第M575649號「智慧型無線灌溉控制系統」或發明公告號第I663517號「人工智能整合系統及其分析方法」等專利案,都是目前智慧型農業的應用,然而這類的專利前案,不論是系統架構,或是處理流程,都是利用設置在栽植地點的感測器產生感測訊號,感測訊號經有線或無線的網路傳輸到雲端伺服器,雲端伺服器再依據資料庫、決策系統等軟體或硬體的運算,產生適當的動作指令,動作指令一樣經過有線或無線的網路傳輸栽植地點的對應設備,例如灑水器、施肥裝置、農藥噴灑器、電動窗等設備,產生對應的動作,上述動作,換言之,即:前端感應,後端計算,裝置動作。 For example, the Republic of China New Patent Announcement No. M577648 "Intelligent Plant Cultivation System", Announcement No. M575649 "Intelligent Wireless Irrigation Control System" or Invention Announcement No. I663517 "Artificial Intelligence Integrated System and Its Analysis Method", etc. Patent cases are the current applications of smart agriculture. However, the previous patent cases of this type, no matter the system architecture or the processing flow, all use sensors installed at the planting site to generate sensing signals. The wired or wireless network is transmitted to the cloud server, and the cloud server generates appropriate action commands based on the calculations of software or hardware such as databases and decision-making systems. The action commands are also transmitted to the planting site via a wired or wireless network. Corresponding equipment, such as sprinklers, fertilization devices, pesticide sprayers, power windows, etc., produce corresponding actions. The above actions, in other words, are front-end induction, back-end calculation, and device actions.

但,這樣的架構與流程,對雲端伺服器而言,是相當龐大運算量,一個栽植地點的面積不僅相當龐大,且栽植地點同一時間,不同位置的溫度、濕度、風速等自然環境的變數也是不相同,此時,同一時間內產生不同變動量的感測訊號,雲端伺服器必須分別對應不同地點回傳的感測訊號來處理,導致雲端伺服器一直維持在高運算量狀態,這樣的電力消耗不僅相當可觀,也容易產生栽植地點的指令錯誤;例如,同一時間內,不同地點回傳相同溫度,不同濕度的感測訊號,雲端伺服器有可能對這些地點傳輸相同的動作指令,容易導致栽植地點的農作生長後,產生品質不同的狀況。 However, such an architecture and process is a huge amount of computing for the cloud server. Not only is the area of a planting site very large, but the planting site is at the same time, and the natural environment variables such as temperature, humidity, and wind speed at different locations are also It is not the same. At this time, when the sensing signals with different variations are generated at the same time, the cloud server must deal with the sensing signals returned from different locations. As a result, the cloud server has been maintained in a state of high computing power. Not only is the consumption considerable, but it is also prone to command errors in the planting location. For example, at the same time, different locations return the same temperature and different humidity sensing signals, and the cloud server may transmit the same action commands to these locations, which is easy to cause After the farming at the planting site grows, it produces different quality conditions.

又如中華民國發明專利公告號第I659325號「智慧型農業及環境管理系統」,專利說明書中僅提到:「當傳輸單元(25、35、35’)為有線通訊網路的情況下,控制單元(30)可為位於雲端(50)或非位於雲端(50)的處理器、或同時部分位於雲端(50)或部分位於非雲端的處理器、計算中心、超級電腦、運算資料庫等各種數據處理平台或數據處理裝置。」;這篇專利專利說明書與專利範圍的架構,還是與前述段落提到的一樣,前端感應,後端計算,裝置動作,所以,仍是會有前述提到缺失存在。 Another example is the Republic of China Invention Patent Announcement No. I659325 "Smart Agriculture and Environmental Management System". The patent specification only mentions: "When the transmission unit (25, 35, 35') is a wired communication network, the control unit (30) It can be a processor located in the cloud (50) or not in the cloud (50), or a processor, a computing center, a supercomputer, a computing database, etc., partially located in the cloud (50) or partially located in the cloud at the same time Processing platform or data processing device.”; The structure of this patent specification and the scope of the patent is still the same as mentioned in the previous paragraph, front-end sensing, back-end calculation, device action, so there will still be the aforementioned missing .

再如中華民國新型專利公告號第M553553號「遠距綠能澆灌教學系統」,其專利說明書提到:「處理裝置20係接收對應於植栽之供水參數41之控制指令以產生供水訊號42。上述之供水參數41可例如係包含單位時間的水流量以及供水持續時間」,以及,「遠距電子裝置40係依據種植參數資料庫30自動或手動傳輸控制指令以令處理裝置20產生對應於植栽之土壤濕度值111及環境濕度值121之供水訊號42。」;這篇專利有些類似前端處 理的概念,但是,供水訊號42產生方式,是遠距電子裝置40傳輸控制指令給處理裝置20,處理裝置20接收控制指令後產生,與前述各專利相比較,僅是把運算處理的部分移到前端來執行,而運算處理的各種參數,還是要透過遠端的種植參數資料庫30取得。 Another example is the Republic of China Patent Announcement No. M553553 "Remote Green Energy Irrigation Teaching System", its patent specification mentions: "The processing device 20 receives a control command corresponding to the water supply parameter 41 of the plant to generate a water supply signal 42. The above-mentioned water supply parameter 41 may, for example, include the water flow rate per unit time and the water supply duration", and "the remote electronic device 40 automatically or manually transmits control commands according to the planting parameter database 30 to make the processing device 20 generate the corresponding plant The water supply signal 42 with the soil moisture value of 111 and the environmental humidity value of 121.”; This patent is somewhat similar to the front end However, the way the water supply signal 42 is generated is that the remote electronic device 40 transmits a control command to the processing device 20, and the processing device 20 receives the control command and generates it. Compared with the aforementioned patents, it only shifts the arithmetic processing part. It is executed at the front end, and various parameters of the calculation process are still obtained through the remote planting parameter database 30.

綜上所述,現階段的智慧型農業還是維持前端感應,後端計算,前端裝置動作的架構,特別是採用雲端伺服器做為後端的智慧型農業系統,存在著雲端伺服器高運算量、前端裝置容易誤判等問題,同時,當網路無法連線的時候,雲端伺服器就無法控制前端裝置,也無法取得前端的狀態,導致整個智慧型農業系統中斷;雖然有將電腦主機等設置在栽植地點,但是,所有運算的參數,還是儲存在雲端伺服器或資料庫,前端感應、後端資料送前端運算,也存在著對於網路需求過重,導致網路中斷時,前端運算無法及時修正,前端裝置僅能維持網路中斷前的動作,導致系統異常,也會讓栽植地的農作物產生過度灌溉、或過度施肥的問題。 To sum up, the current stage of smart agriculture still maintains the architecture of front-end sensing, back-end computing, and front-end device actions. Especially the smart agriculture system that uses cloud servers as the back-end has high computing capacity and The front-end device is prone to misjudgment and other problems. At the same time, when the network cannot be connected, the cloud server cannot control the front-end device, and cannot obtain the front-end status, which causes the entire intelligent agricultural system to be interrupted; although there are computer hosts and other settings Planting location, however, all computing parameters are still stored in the cloud server or database. Front-end sensing and back-end data are sent to the front-end computing. There are also heavy demands on the network, and the front-end computing cannot be corrected in time when the network is interrupted. , The front-end device can only maintain the action before the network is interrupted, causing the system to be abnormal, and it will also cause the problems of over-irrigation or over-fertilization of the crops in the planting field.

有鑑於習用仍有上述缺點,發明人乃針對前述缺點研究改進之道,終於有本發明的產生。 In view of the above-mentioned shortcomings in conventional use, the inventors studied and improved ways to address the above-mentioned shortcomings, and finally came up with the present invention.

本發明主要目的在於,提供一種前端設備之間具獨立感測、相互溝通與控制的農業設備物聯網互動系統。 The main purpose of the present invention is to provide an Internet of Things interactive system for agricultural equipment with independent sensing, mutual communication and control between front-end equipment.

本發明次要目的在於,提供一種前端設備能自主回應動作歷程的農業設備物聯網互動系統。 The secondary objective of the present invention is to provide an interactive system of agricultural equipment Internet of Things with front-end equipment that can autonomously respond to the action history.

本發明再一目的在於,提供一種前端設備不需透過雲端運算與控制,即可自動進行符合雲端需求設定的農業設備物聯網互動系統。 Another object of the present invention is to provide an agricultural equipment Internet of Things interactive system that can automatically perform cloud-based requirements without cloud computing and control for front-end equipment.

本發明又一目的在於,提供一種前端設備能自動更新雲端需求設定的農業設備物聯網互動系統。 Another object of the present invention is to provide an IoT interactive system for agricultural equipment that can automatically update cloud demand settings for front-end equipment.

為達成上述目的及功效,本發明所採行的技術手段至少包括:一智能控制裝置、一環境感測裝置與一終端裝置,其中:所述智能控制裝置,至少包括:一資料庫、一控管模組、與一通訊模組,其中:資料庫儲存有複數的事件資料;控管模組與資料庫電性連接,接收一感測資料並依據事件資料產生一動作訊號;以及,通訊模組與前述資料庫、控管模組電性連接,對外傳輸事件資料與動作訊號,並接收感測資料。 In order to achieve the above objectives and effects, the technical means adopted by the present invention at least include: an intelligent control device, an environment sensing device, and a terminal device. The intelligent control device includes at least: a database and a control device. Management module, and a communication module, wherein: the database stores plural event data; the control module is electrically connected to the database, receives a sensed data and generates an action signal based on the event data; and, the communication module The group is electrically connected to the aforementioned database and control module, externally transmits event data and action signals, and receives sensing data.

所述環境感測裝置,至少包括;一第一感測模組、一第二感測模組、一第一控制模組、一第一傳輸模組、與一第一記憶模組,其中:第一感測模組、第二感測模組分別產生一第一感測訊號、一第二感測訊號;第一控制模組與前述第一感測模組、第二感測模組電性連接,依據第一感測訊號、第二感測訊號與事件資料進行運算分析產生感測資料;第一傳輸模組與第一控制模組電性連接,接收前述事件資料,並對外傳輸感測資料;以及,第一記憶模組與第一控制模組、第一傳輸模組電性連接,接收並儲存事件資料。 The environment sensing device at least includes; a first sensing module, a second sensing module, a first control module, a first transmission module, and a first memory module, wherein: The first sensing module and the second sensing module respectively generate a first sensing signal and a second sensing signal; the first control module and the aforementioned first sensing module and second sensing module are electrically connected The first sensing signal, the second sensing signal, and the event data are used to perform calculation analysis to generate sensing data; the first transmission module is electrically connected to the first control module, receives the aforementioned event data, and transmits the sensing data externally Test data; and, the first memory module is electrically connected with the first control module and the first transmission module to receive and store event data.

所述終端裝置,至少包括:一第二傳輸模組、一第二記憶模組、與一第二控制模組,其中:第二傳輸模組,分別接收前述事件資料與動作訊號;第二記憶模組與第二傳輸模組電性連接,接收並儲存事件資料;第二控制模組與前述第二傳輸模組、第二記憶模組電性連接,依據事件資料與動作訊號控制終端裝置動作。 The terminal device includes at least: a second transmission module, a second memory module, and a second control module, wherein: the second transmission module receives the aforementioned event data and action signals respectively; the second memory The module is electrically connected with the second transmission module to receive and store event data; the second control module is electrically connected with the aforementioned second transmission module and the second memory module, and controls the terminal device to operate according to the event data and the action signal .

前述智能控制裝置的通訊模組將事件資料,分別傳輸到環境感測裝置的第一傳輸模組與終端裝置的第二傳輸模組,接收並儲存在第一記憶模組與第二記憶模組;第一感測模組、第二感測模組的第一感測訊號、第二感測訊號傳輸到第一控制模組,再依據第一記憶模組的事件資料進行運算分析產生感測資料,經第一傳輸模組回傳到智能控制裝置的控管模組,接收後依據感測資料與資料庫內的事件資料產生動作訊號,復經通訊模組傳輸到終端裝置,並使第二控制模組依據第二記憶模組的事件資料與動作訊號控制終端裝置動作,達成智能控制裝置、環境感測裝置與終端裝置之間,具備獨立依據事件資料進行M2M(Machine to machine,機器對機器)的互動控制的結構。 The communication module of the aforementioned intelligent control device transmits event data to the first transmission module of the environment sensing device and the second transmission module of the terminal device respectively, and receives and stores them in the first memory module and the second memory module ; The first sensing signal and the second sensing signal of the first sensing module and the second sensing module are transmitted to the first control module, and then based on the event data of the first memory module to perform calculation analysis to generate sensing The data is returned to the control module of the intelligent control device through the first transmission module. After receiving it, an action signal is generated based on the sensing data and the event data in the database, and then transmitted to the terminal device via the communication module, and the first The second control module controls the operation of the terminal device according to the event data and the action signal of the second memory module, and achieves the ability to perform M2M (Machine to machine) independently based on the event data between the intelligent control device, the environmental sensing device and the terminal device. (Machine) interactive control structure.

依上述結構,其中該智能控制裝置包括一事件管理模組,與通訊模組電性連接,接收一第一回授訊號與一第二回授訊號,並週期性的產生一檢測訊號;依上述結構,其中環境感測裝置的第一傳輸模組接收檢測訊號傳輸至第一控制模組,並依據動作狀態週期性的產生第一回授訊號回傳 到事件管理模組;終端裝置的第二傳輸模組接收檢測訊號傳輸至第二控制模組,並依據動作狀態週期性的產生第二回授訊號回傳到事件管理模組;以及,依上述結構,其中事件管理模組依據第一回授訊號、第二回授訊號統計分析環境感測裝置與終端裝置的動作狀態,並修改檢測訊號產生的週期。 According to the above structure, the intelligent control device includes an event management module, which is electrically connected to the communication module, receives a first feedback signal and a second feedback signal, and periodically generates a detection signal; according to the above Structure, wherein the first transmission module of the environmental sensing device receives the detection signal and transmits it to the first control module, and periodically generates the first feedback signal according to the action state. To the event management module; the second transmission module of the terminal device receives the detection signal and transmits it to the second control module, and periodically generates a second feedback signal according to the action state and sends it back to the event management module; and, according to the above Structure, wherein the event management module statistically analyzes the action status of the environmental sensing device and the terminal device based on the first feedback signal and the second feedback signal, and modifies the cycle of the detection signal generation.

依上述結構,其中該事件資料內具有一環境參數與一動作參數;環境感測裝置的第一記憶模組儲存事件資料與環境參數;以及,終端裝置的第二記憶模組儲存事件資料與動作參數。 According to the above structure, the event data has an environmental parameter and an action parameter; the first memory module of the environmental sensing device stores the event data and environmental parameters; and the second memory module of the terminal device stores the event data and actions parameter.

依上述結構,其中該第一控制模組依據第一記憶模組的事件資料與對應的環境參數,結合第一感測訊號、第二感測訊號進行運算分析產生感測資料;以及,第二控制模組依據第二記憶模組的事件資料與對應的動作參數,結合動作訊號控制終端裝置動作。 According to the above structure, the first control module generates sensing data by performing calculation analysis in combination with the first sensing signal and the second sensing signal according to the event data of the first memory module and the corresponding environmental parameters; and, the second The control module controls the action of the terminal device according to the event data of the second memory module and the corresponding action parameters in combination with the action signal.

依上述結構,其中該第一感測模組與第二感測模組分別是溫度感測器、濕度感測器、日照感測器、酸鹼感測器、化學成份感測器等環境狀態感測器。 According to the above structure, the first sensing module and the second sensing module are respectively a temperature sensor, a humidity sensor, a sunlight sensor, a pH sensor, a chemical composition sensor, etc. Sensor.

依上述結構,其中該終端裝置是灌溉裝置、施肥裝置、照明裝置或農業用的終端裝置。 According to the above structure, the terminal device is an irrigation device, a fertilizer application device, a lighting device, or an agricultural terminal device.

依上述結構,其中該通訊模組、第一傳輸模組、第二傳輸模組與第三傳輸模組之間,選自Cable網路、乙太網路、USB或IEEE1394所組成的有線通訊網路群組,或選自行動通訊網路(2G、3G、4G或5G)、WiMAX、WiFi、ZigBee、藍芽或紅外線所組成的無線通訊網路群組。 According to the above structure, the communication module, the first transmission module, the second transmission module and the third transmission module are selected from a wired communication network composed of Cable network, Ethernet network, USB or IEEE1394 Group, or selected from a wireless communication network group consisting of mobile communication network (2G, 3G, 4G or 5G), WiMAX, WiFi, ZigBee, Bluetooth or infrared.

依上述結構,其中該智能控制裝置連線到一雲端伺服器,資料庫接收並儲存雲端伺服器設定的事件資料,以及,事件管理模組整合第一回授訊號、第二回授訊號與檢測訊號回傳到雲端伺服器。 According to the above structure, the intelligent control device is connected to a cloud server, the database receives and stores the event data set by the cloud server, and the event management module integrates the first feedback signal, the second feedback signal and detection The signal is sent back to the cloud server.

依上述結構,其中該環境感測裝置包括:一座體、一電池座與一延伸柱,其中:所述座體頂部連接電池座,底部連接延伸柱,座體內部設置一電路板;電池座表面設有一連接埠,內部具有一電池,分別與電路板、連接埠電性連接;電路板上設置前述第一感測模組、第二感測模組、第一控制模組、第一傳輸模組與第一記憶模組,第一感測模組與第二感測模組分別電性連接一第一感測棒與一第二感測棒;延伸柱底端具有一刺入部,並設有穿孔,第一感測棒與第二感測棒設置在延伸柱內由穿孔穿出;藉此,環境感測裝置以延伸柱插入土壤中,第一感測棒與第二感測棒感測土壤的狀態產生前述第一感測訊號、第二感測訊號,以及,座體、電池座與延伸柱達成易於拆卸、組裝與維修的結構。 According to the above structure, the environment sensing device includes: a base, a battery holder, and an extension post, wherein: the top of the base is connected to the battery holder, the bottom is connected to the extension post, and a circuit board is arranged inside the base; the surface of the battery holder A connection port is provided with a battery inside, which are respectively electrically connected to the circuit board and the connection port; the circuit board is provided with the aforementioned first sensing module, second sensing module, first control module, and first transmission module Group and the first memory module, the first sensing module and the second sensing module are respectively electrically connected to a first sensing rod and a second sensing rod; the bottom end of the extension column has a piercing part, and There is a perforation, the first sensing rod and the second sensing rod are arranged in the extension column to penetrate through the perforation; thereby, the environment sensing device is inserted into the soil with the extension column, the first sensing rod and the second sensing rod Sensing the state of the soil generates the aforementioned first sensing signal and second sensing signal, and the base, the battery holder and the extension column achieve a structure that is easy to disassemble, assemble, and maintain.

為使本發明的上述目的、功效及特徵可獲得更具體的瞭解,依各附圖說明如下: In order to obtain a more detailed understanding of the above-mentioned purposes, effects and features of the present invention, the descriptions are as follows according to the drawings:

1‧‧‧智能控制裝置 1‧‧‧Intelligent control device

11‧‧‧資料庫 11‧‧‧Database

12‧‧‧控管模組 12‧‧‧Control Module

13‧‧‧通訊模組 13‧‧‧Communication Module

14‧‧‧事件管理模組 14‧‧‧Event Management Module

2、2’‧‧‧環境感測裝置 2. 2’‧‧‧Environmental sensing device

21、21’‧‧‧第一感測模組 21, 21’‧‧‧First sensing module

211‧‧‧第一感測棒 211‧‧‧The first sensor rod

22、22’‧‧‧第二感測模組 22, 22’‧‧‧Second sensing module

221‧‧‧第二感測棒 221‧‧‧Second sensor rod

23、23’‧‧‧第一控制模組 23, 23’‧‧‧First control module

24、24’‧‧‧第一傳輸模組 24, 24’‧‧‧First transmission module

25、25’‧‧‧第一記憶模組 25, 25’‧‧‧First memory module

26‧‧‧座體 26‧‧‧Block

261‧‧‧電路板 261‧‧‧Circuit board

27‧‧‧電池座 27‧‧‧Battery holder

271‧‧‧連接埠 271‧‧‧Port

272‧‧‧電池 272‧‧‧Battery

28‧‧‧延伸柱 28‧‧‧Extension Column

281‧‧‧刺入部 281‧‧‧ Piercing Department

282‧‧‧穿孔 282‧‧‧ Piercing

3、3’‧‧‧終端裝置 3. 3’‧‧‧Terminal device

31、31’‧‧‧第二傳輸模組 31, 31’‧‧‧Second transmission module

32、32’‧‧‧第二記憶模組 32, 32’‧‧‧Second memory module

33、33’‧‧‧第二控制模組 33, 33’‧‧‧Second control module

4‧‧‧雲端伺服器 4‧‧‧Cloud Server

第1圖是本發明較佳實施例的方塊圖一。 Figure 1 is a block diagram of a preferred embodiment of the present invention.

第2圖是本發明較佳實施例的方塊圖二。 Figure 2 is a second block diagram of the preferred embodiment of the present invention.

第3圖是本發明較佳實施例的方塊圖三。 Figure 3 is the third block diagram of the preferred embodiment of the present invention.

第4圖是本發明較佳實施例的立體圖。 Figure 4 is a perspective view of a preferred embodiment of the present invention.

第5圖是本發明較佳實施例的立體分解圖。 Figure 5 is an exploded perspective view of a preferred embodiment of the present invention.

請參閱第1圖所示,可知本發明的結構主要包括:一智能控制裝置1、環境感測裝置2與終端裝置3,其中:所述智能控制裝置1至少包括:一資料庫11,儲存有複數的事件資料,事件資料內具有一環境參數與一動作參數;事件資料指的是對不同的農作物(例如:大田作物、園藝作物、林木等類別,包括但不限定如大田作物,果樹,蔬菜,觀賞、藥用植物,林木等栽培植物),依照其生長週期、季節與環境,設定對應的環境控制的資料,例如:灌溉或施肥的週期,灌溉或施肥的量,不同種溫度或濕度下對應的灌溉動作,或著,事件資料可以直接對應不同的農作物,各自設定完整的生長控制參數;而環境參數是針對事件資料內的不同狀態,提供前述環境感測裝置2感測環境狀態並運算差異時的基礎數據,以及,動作參數是提供終端裝置3動作時計算動作狀態的基礎數據;應注意的是,農作物的生長週期、施肥或灌溉等農作物生長技術,並非本案技術特徵,在此僅是說明事件資料與設定參數包括、但不限定上述的農作物生長技術;應注意的是,智能控制裝置1連線到一雲端伺服器4,資料庫11接收並儲存雲端伺服器4設定的事件資料,在後敘的動作過程中,本發明不須再連線到雲端伺服器4,而能夠在前端(即農作物栽植地)進行獨立的生長控管;當環境感測裝置2或終端裝置3出現異常時,智能控制裝置1主動通報異常的狀態到雲端伺服器4,以及,雲端伺服器4有修改、補充或新增 事件資料時,主動傳輸事件資料到智能控制裝置1。 Referring to Figure 1, it can be seen that the structure of the present invention mainly includes: an intelligent control device 1, an environment sensing device 2 and a terminal device 3. The intelligent control device 1 at least includes: a database 11 storing Plural event data, the event data contains an environmental parameter and an action parameter; the event data refers to different crops (for example: field crops, garden crops, forest trees, etc., including but not limited to field crops, fruit trees, vegetables, etc.) , Ornamental, medicinal plants, forest trees and other cultivated plants), according to its growth cycle, season and environment, set the corresponding environmental control data, such as: irrigation or fertilization cycle, irrigation or fertilization amount, different kinds of temperature or humidity Corresponding irrigation actions, or, the event data can directly correspond to different crops, and complete growth control parameters can be set for each; and the environmental parameters are for different states in the event data, and the aforementioned environmental sensing device 2 is provided to sense the environmental state and calculate The basic data at the time of the difference and the action parameters are the basic data for calculating the action state when the terminal device 3 is operating; it should be noted that the growth cycle of crops, fertilization or irrigation and other crop growth techniques are not technical features of this case. It shows that the event data and setting parameters include, but are not limited to, the above-mentioned crop growth technology; it should be noted that the intelligent control device 1 is connected to a cloud server 4, and the database 11 receives and stores the event data set by the cloud server 4 In the course of the action described later, the present invention does not need to be connected to the cloud server 4, but can perform independent growth control at the front end (that is, the crop planting field); when the environment sensing device 2 or the terminal device 3 appears When abnormal, the intelligent control device 1 actively reports the abnormal state to the cloud server 4, and the cloud server 4 is modified, supplemented or added When event data, the event data is actively transmitted to the intelligent control device 1.

一控管模組12,與前述資料庫11電性連接,接收一感測資料並依據事件資料產生一動作訊號;以及,一通訊模組13,與前述資料庫11、控管模組12電性連接,對外傳輸事件資料與動作訊號,並接收感測資料;事件管理模組14,與前述通訊模組13電性連接,接收一第一回授訊號與一第二回授訊號,並週期性的產生一檢測訊號。 A control module 12 is electrically connected to the aforementioned database 11, receives a sensed data and generates an action signal according to the event data; and, a communication module 13 is electrically connected to the aforementioned database 11 and control module 12 The event management module 14 is electrically connected to the aforementioned communication module 13 to receive a first feedback signal and a second feedback signal, and periodically transmit event data and motion signals, and receive sensing data. Sexually produces a detection signal.

所述環境感測裝置2至少包括:一第一感測模組21,產生一第一感測訊號;一第二感測模組22,產生一第二感測訊號;第一感測模組21與第二感測模組22分別是溫度感測器、濕度感測器、日照感測器、酸鹼感測器、化學成份感測器等環境狀態感測器;一第一控制模組23,與前述第一感測模組21、第二感測模組22、第一傳輸模組24電性連接,依據第一記憶模組25的事件資料與對應的環境參數,結合第一感測訊號、第二感測訊號進行運算分析產生感測資料;一第一傳輸模組24,與第一控制模組23電性連接,接收前述事件資料,並對外傳輸感測資料;以及,一第一記憶模組25,與前述第一控制模組23、第一傳輸模組24電性連接,接收並儲存事件資料與環境參數。 The environment sensing device 2 at least includes: a first sensing module 21, which generates a first sensing signal; a second sensing module 22, which generates a second sensing signal; and a first sensing module 21 and the second sensing module 22 are environmental state sensors such as temperature sensor, humidity sensor, sunlight sensor, acid-base sensor, chemical composition sensor, etc.; a first control module 23. Electrically connect with the aforementioned first sensing module 21, second sensing module 22, and first transmission module 24, and combine the first sensing module with the event data of the first memory module 25 and corresponding environmental parameters. The sensing signal and the second sensing signal are calculated and analyzed to generate sensing data; a first transmission module 24, electrically connected to the first control module 23, receives the aforementioned event data, and transmits the sensing data to the outside; and, The first memory module 25 is electrically connected to the aforementioned first control module 23 and the first transmission module 24, and receives and stores event data and environmental parameters.

所述終端裝置3,至少包括:一第二傳輸模組31,分別接收前述事件資料與動作訊號;一第二記憶模組32,與前述第二傳輸模組31電性連接,接收 並儲存事件資料與動作參數;以及,一第二控制模組33,與前述第二傳輸模組31、第二記憶模組32電性連接,依據第二記憶模組32的事件資料與對應的動作參數,結合動作訊號控制終端裝置3動作;在一個較佳的實施例中,終端裝置3是灌溉裝置時,第二控制模組33可以是電磁閥、電動水閥、電動球閥等裝置,並分別連接水源端與灌溉管路,第三傳輸模組31控制終端裝置3動作,讓水源端的水流入灌溉管路內,並依據事件資料與對應的動作參數修改水流的大小,或關閉水源端的水;應注意的是,終端裝置3所對應的農業用終端設備,並非本案技術特徵,在此僅概略說明終端裝置3利用本發明的系統,所達成的技術功效與結構,也不是限定終端裝置3僅為灌溉裝置,終端裝置3包括不限定是灌溉裝置、施肥裝置、照明裝置或農業用的終端裝置。 The terminal device 3 includes at least: a second transmission module 31, which receives the aforementioned event data and action signals, respectively; a second memory module 32, which is electrically connected to the aforementioned second transmission module 31, and receives And store event data and action parameters; and, a second control module 33 is electrically connected to the aforementioned second transmission module 31 and the second memory module 32, according to the event data of the second memory module 32 and the corresponding The action parameters are combined with action signals to control the action of the terminal device 3. In a preferred embodiment, when the terminal device 3 is an irrigation device, the second control module 33 can be a solenoid valve, an electric water valve, an electric ball valve, etc., and Connect the water source end and the irrigation pipeline respectively. The third transmission module 31 controls the action of the terminal device 3 to allow water from the water source end to flow into the irrigation pipeline, and modify the size of the water flow according to the event data and corresponding action parameters, or close the water source end. It should be noted that the agricultural terminal equipment corresponding to the terminal device 3 is not a technical feature of this case. This is only a brief description of the technical effect and structure achieved by the terminal device 3 using the system of the present invention, and it is not limited to the terminal device 3. It is only an irrigation device, and the terminal device 3 includes, but is not limited to, an irrigation device, a fertilizing device, a lighting device, or an agricultural terminal device.

前述智能控制裝置1的通訊模組13,將事件資料分別傳輸到環境感測裝置2的第一傳輸模組24、與終端裝置3的第二傳輸模組31,接收並儲存在第一記憶模組25與第二記憶模組32;第一感測模組21、第二感測模組22的第一感測訊號、第二感測訊號傳輸到第一控制模組23,而依據第一記憶模組25的事件資料進行運算分析產生感測資料,經第一傳輸模組24回傳到智能控制裝置的控管模組12,接收後依據感測資料與資料庫11內的事件資料產生動作訊號,經通訊模組13傳輸到終端裝置3,第二控制模組33依據第二記憶模組32的事件資料、與動作訊號控制終端裝置3動作,達成智能控制裝置1、環境感測裝置2與終端裝置3之間,具備獨立依據事件資料進行M2M(Machine to machine,機器對機器)的互動控制的結構。 The communication module 13 of the aforementioned intelligent control device 1 transmits event data to the first transmission module 24 of the environmental sensing device 2 and the second transmission module 31 of the terminal device 3 respectively, and receives and stores it in the first memory module. The group 25 and the second memory module 32; the first sensing signal and the second sensing signal of the first sensing module 21 and the second sensing module 22 are transmitted to the first control module 23, and according to the first The event data of the memory module 25 is calculated and analyzed to generate sensing data, which is transmitted back to the control module 12 of the intelligent control device via the first transmission module 24, and then generated based on the sensing data and the event data in the database 11 after receiving The action signal is transmitted to the terminal device 3 via the communication module 13, and the second control module 33 controls the action of the terminal device 3 according to the event data of the second memory module 32 and the action signal to achieve an intelligent control device 1, an environmental sensing device Between 2 and the terminal device 3, there is a structure that independently performs M2M (Machine to machine) interactive control based on event data.

上述動作時,事件管理模組14會週期性的與環境感測裝置2、終端裝置3進行動作狀態的資歷蒐集;事件管理模組14週期性的產生檢測訊號經通訊模組13傳輸到環境感測裝置2、終端裝置3,環境感測裝置2的第一傳輸模組24接收檢測訊號傳輸至第一控制模組23,並依據動作狀態週期性的產生第一回授訊號回傳到事件管理模組14,同時,終端裝置3的第二傳輸模組31接收檢測訊號傳輸至第二控制模組33,並依據動作狀態週期性的產生第二回授訊號回傳到事件檢測模組,藉此,事件管理模組14依據第一回授訊號、第二回授訊號統計分析環境感測裝置2與終端裝置3的動作狀態,並修改檢測訊號產生的週期;事件管理模組14同步整合第一回授訊號、第二回授訊號與檢測訊號回傳到雲端伺服器4。 During the above actions, the event management module 14 will periodically collect the operating status of the environmental sensing device 2 and the terminal device 3; the event management module 14 periodically generates a detection signal and transmits it to the environmental sensing device via the communication module 13. The detection device 2, the terminal device 3, and the first transmission module 24 of the environmental sensing device 2 receive the detection signal and transmit it to the first control module 23, and periodically generate a first feedback signal according to the action state and return it to the event management At the same time, the second transmission module 31 of the terminal device 3 receives the detection signal and transmits it to the second control module 33, and periodically generates a second feedback signal according to the action state and transmits it back to the event detection module. Therefore, the event management module 14 statistically analyzes the operation status of the environmental sensing device 2 and the terminal device 3 based on the first feedback signal and the second feedback signal, and modifies the period of the detection signal generation; the event management module 14 synchronizes and integrates the first The first feedback signal, the second feedback signal, and the detection signal are returned to the cloud server 4.

環境感測裝置2、終端裝置3藉由第一回授訊號、第二回授訊號回傳動作的狀態,在農作物的生長週期中,除非遇到氣候變動劇烈,或是接近日夜交替的時間,大多數的狀態下,環境感測裝置2、終端裝置3在單位時間(例如1分鐘、5分鐘、15分鐘、30分鐘,乃至1小時等)內的動作大致上相同,所以,並不需要頻繁的回應動作狀態,事件管理模組14可以依據第一回授訊號、第二回授訊號的內容,修改檢測訊號產生的週期,例如,從5分鐘產生一次檢測訊號,修改成10分鐘至1小時產生一次,而當遇到氣候變動劇烈,或是接近日夜交替時,因為環境感測裝置2也會隨著環境變動,持續地進行動作,所以,事件管理模組14就會從1小時產生一次檢測訊號,修改成15分鐘至1分鐘產生一次,上述僅是為了利於說明事件管理模組14產生檢測訊號,以及環境感測裝置2、終端裝置3回傳第一回授訊號、第二回授訊號的週期變化,並不限定本發明週期變化的實際狀態。 The environmental sensing device 2 and the terminal device 3 use the first feedback signal and the second feedback signal to return the state of action. During the growth cycle of crops, unless the climate changes drastically or is close to the time of day and night, In most states, the environmental sensing device 2 and the terminal device 3 perform roughly the same actions in a unit of time (for example, 1 minute, 5 minutes, 15 minutes, 30 minutes, or even 1 hour, etc.), so it does not need to be frequent The event management module 14 can modify the detection signal generation cycle according to the content of the first feedback signal and the second feedback signal, for example, generate a detection signal from 5 minutes to 10 minutes to 1 hour Generated once, and when the climate changes drastically or is close to the day-night cycle, because the environmental sensing device 2 will continue to operate according to the environmental changes, the event management module 14 will generate once every 1 hour The detection signal is modified to be generated every 15 minutes to 1 minute. The above is only to help explain that the event management module 14 generates the detection signal, and the environment sensing device 2 and the terminal device 3 return the first feedback signal and the second feedback The periodic change of the signal does not limit the actual state of the periodic change of the present invention.

應注意的是,通訊模組13、第一傳輸模組24、第二傳輸模組31與第三傳輸模組之間,選自Cable網路、乙太網路、USB或IEEE1394所組成的有線通訊網路群組,或選自行動通訊網路(2G、3G、4G或5G)、WiMAX、WiFi、ZigBee、藍芽或紅外線所組成的無線通訊網路群組。 It should be noted that the communication module 13, the first transmission module 24, the second transmission module 31 and the third transmission module are selected from the cable network, Ethernet, USB or IEEE1394. Communication network group, or selected from mobile communication network (2G, 3G, 4G or 5G), WiMAX, WiFi, ZigBee, Bluetooth or infrared wireless communication network group.

應注意的是,智能控制裝置1、環境感測裝置2、終端裝置3在不同的實施狀態下,可以是整合式積體電路、設置各模組的電路板、或是各模組獨立設置後電性連接。 It should be noted that the intelligent control device 1, the environmental sensing device 2, and the terminal device 3 in different implementation states can be an integrated integrated circuit, a circuit board for each module, or after each module is installed independently Electrical connection.

請參閱第2圖所示,本實施例相較於前述實施例的特點在於:智能控制裝置1能夠同時連接多個終端裝置3、3’,其特徵與目的在於:農作物的生長過程中,許多參數是有關連性的,例如溫度與濕度;一個較佳的實施例中,環境感測裝置2的第一感測模組21是溫度感測器,第二感測模組12是濕度感測器,終端裝置3是灑水裝置、電動百葉窗、抽風機等具備溫度調整的裝置,終端裝置3’是灌溉裝置、灑水裝置等具備濕度調整的裝置,所以,第一控制模組23依據第一記憶模組25的事件資料與對應的環境參數,結合第一感測訊號、第二感測訊號進行運算分析產生感測資料,智能控制裝置1的控管模組12,接收後依據感測資料與資料庫11內的事件資料產生動作訊號,經通訊模組13分別傳輸到終端裝置3、3’;第二控制模組33、33’分別依據第二記憶模組32、32’的事件資料與對應的動作參數,結合動作訊號控制終端裝置3、3’動作,終端裝置3是灑水裝置進行灑水,終端裝置3’是灌溉裝置進行土壤灌溉,在各自動作的過程中,對應事件資料與動作參數讓終端裝置3、3’各自動作時,可以讓終端裝置3、3’任一個達成動作目標後,即停止動作,前述提到溫度與濕度是 有關連性的,灑水降溫時,有可能會導致土壤的濕度過高,經由上述的方式,智能控制裝置1能夠讓終端裝置3、3’動作產生降溫且穩定土壤濕度的動作,藉此,能夠在前端感測與動作時,避免終端裝置3、3’同時動作後,產生溫度、濕度調整過當的問題。 As shown in Figure 2, the feature of this embodiment compared to the previous embodiments is that the intelligent control device 1 can be connected to multiple terminal devices 3, 3'at the same time, and its feature and purpose is: during the growth of crops, many The parameters are related, such as temperature and humidity; in a preferred embodiment, the first sensing module 21 of the environmental sensing device 2 is a temperature sensor, and the second sensing module 12 is a humidity sensor The terminal device 3 is a sprinkler device, electric blinds, an exhaust fan and other devices equipped with temperature adjustment, and the terminal device 3'is an irrigation device, a sprinkler device, etc. equipped with humidity adjustment devices. Therefore, the first control module 23 is based on The event data of a memory module 25 and corresponding environmental parameters are combined with the first sensing signal and the second sensing signal to perform arithmetic analysis to generate sensing data. The control module 12 of the intelligent control device 1 receives it according to the sensing The data and the event data in the database 11 generate action signals, which are transmitted to the terminal devices 3, 3'through the communication module 13; the second control modules 33, 33' are based on the events of the second memory modules 32, 32', respectively The data and corresponding action parameters are combined with action signals to control the actions of the terminal devices 3 and 3'. The terminal device 3 is a sprinkler device for sprinkling water, and the terminal device 3'is an irrigation device for soil irrigation. During the respective actions, corresponding events When the data and action parameters make the terminal devices 3 and 3'operate separately, you can make any one of the terminal devices 3 and 3'reach the action goal and stop the action. The aforementioned temperature and humidity are Relatedly, when sprinkling water to cool down, it may cause the soil moisture to be too high. Through the above-mentioned method, the intelligent control device 1 can make the terminal devices 3, 3'operate to cool down and stabilize the soil humidity, thereby, It can avoid the problem of over-adjustment of temperature and humidity after the terminal devices 3 and 3'operate simultaneously when sensing and operating at the front end.

請參閱第3圖所示,本實施例相較於前述實施例的特點在於:智能控制裝置1能夠同時連接多個環境感測裝置2、2’、多個終端裝置3、3’,其特徵與目的在於:農作物通常是在大面積的栽植地生長,不同區域的溫度、濕度接不一定相同,所以,環境感測裝置2、2’會各自依據所在的地點不同,各自進行對應的環境感測後,產生感測訊號讓智能控制裝置1產生不同的動作訊號,使端裝置3、3’分別進行對應的動作,由於環境感測裝置2、智能控制裝置1與終端裝置3、3’之間的動作過程,與前述段落說明相同,在此不再贅述。 Please refer to Fig. 3, the feature of this embodiment compared with the previous embodiments is that the intelligent control device 1 can connect multiple environment sensing devices 2, 2', and multiple terminal devices 3, 3'at the same time. And the purpose is: crops are usually grown in large-area planting areas, and the temperature and humidity in different areas are not necessarily the same. Therefore, the environmental sensing devices 2, 2'will each perform corresponding environmental sensing based on different locations. After the measurement, a sensing signal is generated to allow the intelligent control device 1 to generate different action signals, so that the end devices 3 and 3'respectively perform corresponding actions. Because the environmental sensing device 2, the intelligent control device 1 and the terminal devices 3, 3' The operation process is the same as that described in the previous paragraph, so I will not repeat it here.

請參閱第4、5圖所示,本實施例相較於前述實施例的特點在於:環境感測裝置2至少包括:一座體26、一電池座27與一延伸柱28,其中:所述座體26內部設置一電路板261,電路板261上設置前述第一感測模組21、第二感測模組22、第一控制模組23、第一傳輸模組24與第一記憶模組25(請附參前第1圖所示),應注意的是,上述各模組可以是整合式積體電路的形式、各自獨立的積體電路焊接在電路板261、或主、被動電子元件組成的電路分別連接在電路板261,因此,在本實施例的圖示中,為了利於圖式的閱讀與表達,僅繪出第一感測模組21與第二感測模組22,第一感測模組21與第二感測模組22分別電性連接一第一感測棒211與一第二感測棒221; 所述電池座27連接在前述座體26頂部,表面設有一連接埠271,內部具有一電池272,分別與電路板261、連接埠271電性連接,連接埠271供外部電源(例如太陽能發電板、風力發電機、水力發電機等等)導入前述電池272;所述延伸柱28連接在前述座體26底部,底端具有一刺入部281,並設有穿孔282,第一感測棒211與第二感測棒221設置在延伸柱28內並由穿孔282穿出;藉此,環境感測裝置2以延伸柱28插入土壤中,第一感測棒211與第二感測棒221感測土壤的狀態產生前述第一感測訊號、第二感測訊號,以及,座體26、電池座27與延伸柱28達成易於拆卸、組裝與維修的結構。 Referring to Figures 4 and 5, the feature of this embodiment compared to the previous embodiments is that the environment sensing device 2 at least includes a base 26, a battery holder 27, and an extension column 28, wherein: the base A circuit board 261 is arranged inside the body 26, and the aforementioned first sensing module 21, second sensing module 22, first control module 23, first transmission module 24, and first memory module are arranged on the circuit board 261 25 (please refer to Figure 1 above). It should be noted that the above modules can be in the form of integrated integrated circuits, independent integrated circuits soldered on the circuit board 261, or active and passive electronic components The composed circuits are respectively connected to the circuit board 261. Therefore, in the illustration of this embodiment, in order to facilitate the reading and expression of the drawings, only the first sensing module 21 and the second sensing module 22 are drawn. A sensing module 21 and a second sensing module 22 are electrically connected to a first sensing rod 211 and a second sensing rod 221, respectively; The battery holder 27 is connected to the top of the aforementioned seat body 26, and a connection port 271 is provided on the surface, and a battery 272 is provided inside, which is electrically connected to the circuit board 261 and the connection port 271, respectively. , Wind generators, hydroelectric generators, etc.) to introduce the aforementioned battery 272; the extension column 28 is connected to the bottom of the aforementioned base 26, the bottom end has a piercing portion 281, and is provided with a perforation 282, a first sensing rod 211 And the second sensing rod 221 are arranged in the extension post 28 and penetrated by the perforation 282; thereby, the environment sensing device 2 is inserted into the soil with the extension post 28, and the first sensing rod 211 and the second sensing rod 221 sense The state of the soil is measured to generate the aforementioned first sensing signal and second sensing signal, and the base 26, the battery holder 27 and the extension column 28 achieve a structure that is easy to disassemble, assemble and maintain.

綜合以上所述,本發明的農業設備物聯網互動系統確可達成前端設備之間具獨立感測、相互溝通與控制,自主回應動作歷程,實為一具新穎性及進步性的發明,爰依法提出申請發明專利;惟上述說明的內容,僅為本發明的較佳實施例說明,舉凡依本發明的技術手段與範疇所延伸的變化、修飾、改變或等效置換者,亦皆應落入本發明的專利申請範圍內。 Based on the above, the agricultural equipment IoT interactive system of the present invention can indeed achieve independent sensing, mutual communication and control between front-end equipment, and autonomously respond to the action process. It is indeed a novel and progressive invention. Apply for a patent for invention; however, the content of the above description is only a description of the preferred embodiments of the present invention. Any change, modification, alteration or equivalent replacement based on the technical means and scope of the present invention shall also fall into Within the scope of the patent application of the present invention.

1‧‧‧智能控制裝置 1‧‧‧Intelligent control device

11‧‧‧資料庫 11‧‧‧Database

12‧‧‧控管模組 12‧‧‧Control Module

13‧‧‧通訊模組 13‧‧‧Communication Module

14‧‧‧事件管理模組 14‧‧‧Event Management Module

2‧‧‧環境感測裝置 2‧‧‧Environmental sensing device

21‧‧‧第一感測模組 21‧‧‧The first sensor module

22‧‧‧第二感測模組 22‧‧‧Second sensor module

23‧‧‧第一控制模組 23‧‧‧The first control module

24‧‧‧第一傳輸模組 24‧‧‧The first transmission module

25‧‧‧第一記憶模組 25‧‧‧First memory module

3‧‧‧終端裝置 3‧‧‧Terminal device

31‧‧‧第二傳輸模組 31‧‧‧Second transmission module

32‧‧‧第二記憶模組 32‧‧‧Second memory module

33‧‧‧第二控制模組 33‧‧‧Second control module

Claims (8)

一種農業設備物聯網互動系統,至少包括:一智能控制裝置,至少包括:一資料庫,儲存有複數的事件資料;一控管模組,與前述資料庫電性連接,接收一感測資料並依據事件資料產生一動作訊號;一通訊模組,與前述資料庫、控管模組電性連接,對外傳輸事件資料與動作訊號,並接收感測資料;一事件管理模組,與前述通訊模組電性連接,接收一第一回授訊號與一第二回授訊號,並週期性的產生一檢測訊號;一環境感測裝置,至少包括;一第一感測模組,產生一第一感測訊號;一第二感測模組,產生一第二感測訊號;一第一控制模組,與前述第一感測模組、第二感測模組電性連接,依據第一感測訊號、第二感測訊號與事件資料進行運算分析產生感測資料,並依據動作狀態週期性的產生前述第一回授訊號回傳到事件管理模組;一第一傳輸模組,與第一控制模組電性連接,接收前述事件資料與檢測訊號,將檢測訊號傳輸至第一控制模組,並對外傳輸感測資料;一第一記憶模組,與前述第一控制模組、第一傳輸模組電性連接,接收並儲存事件資料;一終端裝置,至少包括: 一第二傳輸模組,分別接收前述事件資料、動作訊號、與檢測訊號;一第二記憶模組,與前述第二傳輸模組電性連接,接收並儲存事件資料;一第二控制模組,與前述第二傳輸模組、第二記憶模組電性連接,接收第二傳輸模組傳輸的檢測訊號,依據事件資料與動作訊號控制終端裝置動作,並依據動作狀態週期性的產生前述第二回授訊號回傳到事件管理模組;一雲端伺服器,前述資料庫接收並儲存雲端伺服器設定的事件資料,以及,前述事件管理模組整合第一回授訊號、第二回授訊號與檢測訊號回傳到雲端伺服器;前述智能控制裝置的通訊模組將事件資料分別傳輸到環境感測裝置的第一傳輸模組與終端裝置的第二傳輸模組,接收並儲存在第一記憶模組與第二記憶模組;第一感測模組、第二感測模組的第一感測訊號、第二感測訊號傳輸到第一控制模組,而依據第一記憶模組的事件資料進行運算分析產生感測資料,經第一傳輸模組回傳到智能控制裝置的控管模組,接收後依據感測資料與資料庫內的事件資料產生動作訊號,經通訊模組傳輸到終端裝置,第二控制模組依據第二記憶模組的事件資料與動作訊號控制終端裝置動作,以及事件管理模組依據第一回授訊號、第二回授訊號統計分析環境感測裝置與終端裝置的動作狀態,並修改檢測訊號產生的週期,達成智能控制裝置、環境感測裝置與終端裝置之間,具備獨立依據事件資料進行M2M(Machine to machine,機器對機器)的互動控制的結構。 An Internet of Things interactive system for agricultural equipment, including at least: an intelligent control device, at least including: a database storing plural event data; a control module, electrically connected to the foregoing database, receiving a sensing data and Generate an action signal based on the event data; a communication module electrically connected to the aforementioned database and control module, externally transmit event data and action signals, and receive sensing data; an event management module, and the aforementioned communication module Set electrical connections, receive a first feedback signal and a second feedback signal, and periodically generate a detection signal; an environment sensing device, including at least; a first sensing module, generating a first A sensing signal; a second sensing module, generating a second sensing signal; a first control module, electrically connected to the aforementioned first sensing module and second sensing module, according to the first sensing module The sensing signal, the second sensing signal and the event data are calculated and analyzed to generate sensing data, and the aforementioned first feedback signal is periodically generated according to the action state and sent back to the event management module; a first transmission module, and A control module is electrically connected, receives the aforementioned event data and detection signal, transmits the detection signal to the first control module, and transmits the sensing data to the outside; a first memory module is connected to the aforementioned first control module, A transmission module is electrically connected to receive and store event data; a terminal device at least includes: A second transmission module, which receives the aforementioned event data, action signal, and detection signal respectively; a second memory module, which is electrically connected to the aforementioned second transmission module, receives and stores event data; a second control module , Is electrically connected with the aforementioned second transmission module and the second memory module, receives the detection signal transmitted by the second transmission module, controls the operation of the terminal device according to the event data and the action signal, and periodically generates the aforementioned first according to the action state Two feedback signals are returned to the event management module; a cloud server, the aforementioned database receives and stores the event data set by the cloud server, and the aforementioned event management module integrates the first feedback signal and the second feedback signal And the detection signal is returned to the cloud server; the communication module of the aforementioned intelligent control device transmits the event data to the first transmission module of the environmental sensing device and the second transmission module of the terminal device respectively, and receives and stores it in the first transmission module. The memory module and the second memory module; the first sensing signal and the second sensing signal of the first sensing module and the second sensing module are transmitted to the first control module, and according to the first memory module The event data is calculated and analyzed to generate sensing data, which is returned to the control module of the intelligent control device through the first transmission module. After receiving it, an action signal is generated based on the sensing data and the event data in the database. Transmitted to the terminal device, the second control module controls the operation of the terminal device according to the event data and the action signal of the second memory module, and the event management module statistically analyzes the environmental sensing device according to the first feedback signal and the second feedback signal And the operating state of the terminal device, and modify the cycle of detection signal generation, to achieve an independent M2M (Machine to machine) interactive control based on event data between the intelligent control device, the environmental sensing device and the terminal device structure. 如申請專利範圍第1項所述之農業設備物聯網互動系統,其中該事件資料內具有一環境參數與一動作參數;環境感測裝置的第一記憶模組儲存事件資料與環境參數;以及,終端裝置的第二記憶模組儲存事件資料與動作參數。 For example, the agricultural equipment Internet of Things interactive system described in item 1 of the scope of patent application, wherein the event data has an environmental parameter and an action parameter; the first memory module of the environmental sensing device stores the event data and the environmental parameter; and, The second memory module of the terminal device stores event data and action parameters. 如申請專利範圍第2項所述之農業設備物聯網互動系統,其中該第一控制模組依據第一記憶模組的事件資料與對應的環境參數,結合第一感測訊號、第二感測訊號進行運算分析產生感測資料;以及,第二控制模組依據第二記憶模組的事件資料與對應的動作參數,結合動作訊號控制終端裝置動作。 For example, the agricultural equipment Internet of Things interactive system described in item 2 of the scope of patent application, wherein the first control module combines the first sensing signal and the second sensing based on the event data of the first memory module and corresponding environmental parameters The signal is calculated and analyzed to generate sensing data; and the second control module controls the operation of the terminal device according to the event data of the second memory module and corresponding action parameters in combination with the action signal. 如申請專利範圍第1項所述之農業設備物聯網互動系統,其中該第一感測模組與第二感測模組分別是溫度感測器、濕度感測器、日照感測器、酸鹼感測器、化學成份感測器等環境狀態感測器。 For example, the agricultural equipment Internet of Things interactive system described in item 1 of the scope of patent application, wherein the first sensing module and the second sensing module are respectively a temperature sensor, a humidity sensor, a sunlight sensor, and an acid sensor. Environmental status sensors such as alkali sensors and chemical composition sensors. 如申請專利範圍第1項所述之農業設備物聯網互動系統,其中該終端裝置是灌溉裝置、施肥裝置、照明裝置或農業用的終端裝置。 For the agricultural equipment IoT interactive system described in the first item of the scope of patent application, the terminal device is an irrigation device, a fertilization device, a lighting device, or an agricultural terminal device. 如申請專利範圍第1項所述之農業設備物聯網互動系統,其中該通訊模組、第一傳輸模組、第二傳輸模組與第三傳輸模組之間,選自Cable網路、乙太網路、USB或IEEE1394所組成的有線通訊網路群組,或選自行動通訊網路(2G、3G、4G或5G)、WiMAX、WiFi、ZigBee、藍芽或紅外線所組成的無線通訊網路群組。 Such as the agricultural equipment Internet of Things interactive system described in item 1 of the scope of patent application, wherein the communication module, the first transmission module, the second transmission module and the third transmission module are selected from Cable network, B A wired communication network group consisting of Ethernet, USB or IEEE1394, or a wireless communication network group consisting of mobile communication networks (2G, 3G, 4G or 5G), WiMAX, WiFi, ZigBee, Bluetooth or infrared . 如申請專利範圍第1項所述之農業設備物聯網互動系統,其中該環境感測裝置包括:一座體,內部設置一電路板,電路板上設置前述第一感測模組、第二 感測模組、第一控制模組、第一傳輸模組與第一記憶模組,第一感測模組與第二感測模組分別電性連接一第一感測棒與一第二感測棒;一電池座,連接在前述座體頂部,表面設有一連接埠,內部具有一電池,分別與電路板、連接埠電性連接;一延伸柱,連接在前述座體底部,底端具有一刺入部,並設有穿孔,第一感測棒與第二感測棒設置在延伸柱內由穿孔穿出;藉此,環境感測裝置以延伸柱插入土壤中,第一感測棒與第二感測棒感測土壤的狀態產生前述第一感測訊號、第二感測訊號,以及,座體、電池座與延伸柱達成易於拆卸、組裝與維修的結構。 According to the agricultural equipment Internet of Things interactive system described in the first item of the scope of patent application, the environmental sensing device includes: a body with a circuit board arranged inside, and the aforementioned first sensing module and second sensing module are arranged on the circuit board. The sensing module, the first control module, the first transmission module and the first memory module, the first sensing module and the second sensing module are electrically connected to a first sensing rod and a second Sensing rod; a battery holder connected to the top of the aforementioned seat body, a connection port is provided on the surface, and a battery inside is electrically connected to the circuit board and the connection port; an extension column is connected to the bottom of the aforementioned seat body, the bottom end It has a piercing part and is provided with a perforation. The first sensing rod and the second sensing rod are arranged in the extension post and penetrated through the perforation; thereby, the environment sensing device is inserted into the soil with the extension post, and the first sensing The rod and the second sensing rod sense the state of the soil to generate the aforementioned first sensing signal and second sensing signal, and the base body, battery holder, and extension column achieve a structure that is easy to disassemble, assemble, and maintain. 如申請專利範圍第7項所述之農業設備物聯網互動系統,其中該連接埠供外部電源導入前述電池。 For example, the agricultural equipment IoT interactive system described in item 7 of the scope of patent application, wherein the connection port is for the external power supply to introduce the aforementioned battery.
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