TWM442565U - Geology monitoring system - Google Patents

Geology monitoring system Download PDF

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Publication number
TWM442565U
TWM442565U TW101210110U TW101210110U TWM442565U TW M442565 U TWM442565 U TW M442565U TW 101210110 U TW101210110 U TW 101210110U TW 101210110 U TW101210110 U TW 101210110U TW M442565 U TWM442565 U TW M442565U
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Taiwan
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communication device
monitoring system
displacement
geological monitoring
geological
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TW101210110U
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Chinese (zh)
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Wen-Ji Su
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Wu jun dai
Wang hao zheng
Lin jing yi
Wen-Ji Su
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Priority to TW101210110U priority Critical patent/TWM442565U/en
Publication of TWM442565U publication Critical patent/TWM442565U/en

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  • Emergency Alarm Devices (AREA)
  • Testing Or Calibration Of Command Recording Devices (AREA)
  • Pit Excavations, Shoring, Fill Or Stabilisation Of Slopes (AREA)

Description

M442565 五、新型說明: 【新型所屬之技術領域】 [0001] 本新型係有關於一種地質監測系統,尤指一種結合 壓力偵測與環境偵測之地質監測預警系統。 [先前技術] [0002] 台灣位處歐亞大陸板塊與菲律賓海洋板塊的碰撞帶M442565 V. New description: [New technical field] [0001] This new type relates to a geological monitoring system, especially a geological monitoring and early warning system combining pressure detection and environmental detection. [Prior Art] [0002] Taiwan is in the collision zone between the Eurasia plate and the Philippine ocean plate

,地震頻繁、地形陡峭、地質構造複雜;人口稠密的台 灣,山坡地面積佔全島三分之二以上,南北狹長、東西 窄短,河川湍急,如坡地開發利用不當,每遇颱風或梅 雨季節所挾帶的大量雨水,造成山崩、地滑、土石流等 泥砂災害頻仍,其中有關土石流之災害,由於發生時間 短、規模大且再發性高,加上破壞力強,往往造成人民 生命財產的損失。 [0003] 921大地震造成了全臺地形景觀上的巨變,特別是中The earthquakes are frequent, the terrain is steep, and the geological structure is complex. The densely populated Taiwan has more than two-thirds of the island's hillside area. It is narrow in the north and south, narrow in the east and west, and has a rush of rivers. If the slopes are not properly developed and utilized, every typhoon or rainy season will occur. The large amount of rainwater in the belts causes frequent mudslides such as landslides, ground landslides and earth-rock flows. Among them, the disasters related to earth-rock flows are caused by short-term occurrence, large scale and high recurrence, and strong destructive power, which often causes loss of people's lives and property. . [0003] The 921 earthquake caused great changes in the landscape of the whole Taiwan, especially in the middle

部山區處處崩塌,產生高達數千萬立方公尺的鬆散土方 ,嚴重危及山區農業經濟發展、道路交通建設及民眾生 命財產安全;另外由於地震強烈的擠壓及錯動,也使原 來就已經不穩定的山坡地變得更加脆弱。事實證明在過 去幾年中,每遇豪雨,甚至一般性的降雨,都會引發規 模不一的土石崩塌和土石流災害,如此明顯不同於以往 的災害經驗,也使得防災工作更加艱鉅。 [0004] 人類無法控制天災不發生,而當土石流災害無可避 免、當我們無法阻止自然界這流動的殺手行兇時,「三 十六計,走為上策」是最好的選擇,但什麼時候該走卻 是一門很大的學問,「土石流預警系統」於是應運而生 表單编號A0101 第3頁/共13頁 101210110 10133357S4-0 M442565 [0005] [0006] [0007] 。「預警j 一詞顧名思義,目的在預先警告土石流危險 區内的居民災害可能要發生,好讓居民有較充裕的時間 進行疏散避難。但由於土石流的發生仍存在極高的不確 定性及未知性,因此目前仍常面臨無法有效預測土石流 » 發生時機及地點的窘境。因此如何提升土石流預警之準 確性為當務之急。 習知之「土石流預警系統」技術具有下列缺點:1、 測點不易具代表性;2、已知技術與產品未能反應真正現 場之現象;3、費用不低、成效卻沒把握;以及4、未見 成熟及專用之產品。在前述問題未突破前,『既發』之 警訊只能提供十餘分鐘之告警時間,因而以降雨量之積 算,即為能提早發出警訊、目前可行之惟一方法,即成 為主流說法。 土石流預警系統是否成功,取決於警報發布到民眾 開始進行避難的時間是否足夠,這段時間愈寬裕,那麼 成功避難的機會就愈大;反之,若時間過短,則會導致 避難行動措手不及。台灣地區會發生土石流的溪流長度 多介於五百至二千公尺之間,一旦土石流自源頭奔流而 出,經由現場監測儀器(如紅外線攝影機、鋼索檢知器 或地聲計等)的警報反應,可以讓居民應變的時間不會 超過十分鐘,因此現場監測預警的儀器都有反應時間過 短的缺點,較難有系統地進行疏散。 然而土石流的發生條件須是鬆散的土石、足夠的含 水量、適當的坡度。現有地質監測系統常使用雨量記錄 器、光纖監測、地下水監測、雷射位移監測、『崩離傳The mountainous area collapsed everywhere, producing tens of millions of cubic meters of loose earthwork, seriously endangering the development of mountainous agricultural economy, road traffic construction and the safety of people's lives and property; in addition, due to the strong squeeze and dislocation of the earthquake, it has not been Stable hillsides become more vulnerable. It turns out that in the past few years, every torrential rain, even general rainfall, has caused scales of earth and rock collapse and earth-rock flow disasters. This is obviously different from previous disaster experience, which makes disaster prevention work even more difficult. [0004] Human beings can't control natural disasters, and when earth and stone disasters are inevitable, when we can't stop the killing of the natural world, "Thirty-six, the best policy," is the best choice, but when should Walking is a very big study. The "earth flow warning system" came into being. Form No. A0101 Page 3 / 13 pages 101210110 10133357S4-0 M442565 [0005] [0006] [0007]. "The term "warning j", as its name suggests, aims to warn residents in the danger zone of earth-rock flow that disasters may occur, so that residents have more time to evacuate and evacuate. However, due to the occurrence of earth-rock flow, there is still a high degree of uncertainty and unknownness. Therefore, it is still often faced with the dilemma of not being able to effectively predict the timing and location of the earth-rock flow. Therefore, how to improve the accuracy of the earth-rock flow warning is a top priority. The “earth-rock flow warning system” technology has the following shortcomings: 1. The measuring points are not easy to be representative; 2, the known technology and products failed to reflect the real scene phenomenon; 3, the cost is not low, the effect is not sure; and 4, no mature and dedicated products. Before the above problems were breached, the warnings of “Calculation” could only provide more than ten minutes of warning time. Therefore, the accumulation of rainfall is the only way to provide early warning and is currently feasible. The success of the earth-rock flow warning system depends on whether the time for the alarm to be released to the public is sufficient. The more time there is, the greater the chance of successful asylum. Conversely, if the time is too short, the evacuation action will be caught off guard. The length of the stream that will occur in Taiwan will be between 500 and 2,000 meters. Once the earth and rock flow flows from the source, it will be alerted by on-site monitoring instruments (such as infrared cameras, cable detectors or geophones). The reaction can make the residents' response time no more than ten minutes. Therefore, the instruments for on-site monitoring and early warning have the shortcomings of short reaction time, and it is difficult to systematically evacuate. However, the occurrence of earth-rock flow must be loose earth and rock, sufficient water content, and appropriate slope. Existing geological monitoring systems often use rainfall recorders, fiber optic monitoring, groundwater monitoring, laser displacement monitoring, and "disintegration"

101210110 第4頁/共13頁 1013335784-0 M442565 訊器』···.等方式。這些方式是『既發』之警訊,卻是無 法精準預測,通常是已經發生土石崩落時才能夠告警, 雨量預測也只能提供參考並不一定會發生,如此也造成 預警系統的準確定性與喪失民眾對預警系統的信任度。 這樣的系統也就無法達到有效的災難預警效果了,誠屬 美中不足之處。 【新型内容】101210110 Page 4 of 13 1013335784-0 M442565 DEVICE 』···. These methods are the warnings of “sponsored”, but they cannot be accurately predicted. Usually, when the earth and stone collapse has occurred, the warning can be issued. The rainfall forecast can only provide reference and does not necessarily occur. This also leads to the quasi-determinism of the early warning system. Loss of public trust in the early warning system. Such a system will not be able to achieve effective disaster warning effects, and it is a flaw in the United States. [New content]

[0008] 本新型之一目的係提供一種地質監測系统,其結合 壓力偵測與環境偵測,以精確提供土石流的預警。 [0009] 本新型之另一目的係提供一種地質監測系統,其具 有一告警裝置,可於偵測到土石流時,發出警示燈光或 聲音,亦可透過伺服主機發送簡訊或是其他通知管道, 提醒下游居民趕快逃生,以降低生命財產之損失。 [0010] 為達上述之目的,本新型之地質監測系統,其包括[0008] One of the objects of the present invention is to provide a geological monitoring system that combines pressure detection and environmental detection to accurately provide an early warning of soil flow. [0009] Another object of the present invention is to provide a geological monitoring system having an alarm device for emitting warning light or sound when detecting a rock flow, or sending a short message or other notification pipeline through a server host to remind Downstream residents quickly escape to reduce the loss of life and property. [0010] For the above purposes, the geological monitoring system of the present invention includes

:一環境偵測裝置,用以偵測環境之溫度、溼度、雨量 、曰照資訊;至少一土壤壓力偵測裝置,係置於易發生 土石流之處,用以偵測土壤壓力訊號;一位移偵測控制 主機,係以有線或無線方式耦接至該環境偵測裝置及土 壤壓力偵測裝置,可接收該環境偵測裝置所傳送之溫度 、溼度、雨量、日照資訊及該土壤壓力偵測裝置所傳送 之土壤壓力訊號,可偵測及回報該主機位置及位移資訊 ;一告警裝置,係以有線或無線方式耦接至該位移偵測 控制主機,可發出告警信號;一供電裝置,耦接至該環 境偵測裝置、土壌壓力偵測裝置、位移偵測控制主機及 該告警裝置,用以提供其所需之電源;一第一通信裝置 表單編號A0101 第5頁/共13頁 1013335784-0 101210110 M442565 [0011] -[0012] [0013] [0014] [0015] Ο ,耦接至該位移偵測控制主機;一第二通信裝置,可以 無線或有線方式與該第一通信裝置通信;以及一資料庫 伺服主機,耦接至該第二通信裝置,其具有一資料庫, 可接收該位移偵測控制主機回傳之環境偵測、土壤壓力 偵測、供電裝置資訊並儲存於該資料庫中,同時該資料 庫中建置有各式集水區形狀因子、溪床坡度及地質特性 ,透過統計分析可以精準達到預警效果。 【實施方式】 本創作結合壓力偵測與環境偵測之地質監測預警系 統克服了上述不確定性的問題,其原因是地質的改變、 雨量的多寡是否會造成土石滑落與災難,都會在地層產 生推擠壓力,依據推擠壓力結合地質型態便可準確預知 地層是否有不穩定的情況發生。 請參照圖1,其繪示本案一較佳實施例之地質監測系 統之方塊示意圖。 如圖所示,本案之地質監測系統,其包括:一環境 偵測裝置10 ;至少一土壤壓力偵測裝置20 ; —位移偵測 控制主機30 ; —告警裝置40 ; —供電裝置50 ; —第一通 信裝置60 ; —第二通信裝置70 ;以及一資料庫伺服主機 8 0所組合而成。 其中,該環境偵測裝置10用以偵測環境之溫度、溼 度、雨量、日照資訊,其例如但不限於為溫度計、濕度 計或雨量_。 該土壤壓力偵測裝置20係置於易發生土石流之處, 101210110 第6頁/共13頁 1013335784-0 j如ί_不限於山坡上或溪流中,用以制土壤屋力訊號 ’其數量可視需要而增減。通常,單位面積土壌所承受 之壓力愈大時,表示土壌之含水量很高較容易發生土 石流。 該位移偵測控制主機30係以有線或無線方式耦接至 該環境偵職置10及土雜力彳貞測裝置2G,可接收該環 境伯測裝置10所傳送之溫度、渔度、雨量、日照資訊及 該土壤壓力彳貞測裝置20所傳送之土壤壓力訊號,可偵測 及回報該主機3〇位置及位移資訊。 此外,該位移偵測控制主機30内部進一步具有一 Gps 模組及_3D陀螺儀(兩者皆圖未示),其巾,該GPS模組 可提供該位移偵測控制主機30所在位置之精確經緯度座 標資訊,該3D陀螺儀則可提供該位移偵測控制主機3〇之 3D位移偵測控制。 該告警裝置40係以有線或無線方式耦接至該位移偵 測控制主機3〇,可發出燈光或聲音告警信號,其例如但 不限於為—警示燈或揚聲器》 •該供電裝置50係耦接至該環境偵測裝置1〇、土壤壓 力偵測裝置20、位移偵測控制主機30及該告警裝置4〇, 用以提供其所需之電源’其例如但不限於為一太陽能發 電裝置或風能發電機,且進一步具有一蓄電池(圖未示 )乂供儲電,在本實施例中,係以太陽能發電裝置為例, 加以說明,但並不以此為限》 [0020] 、第通彳§裝置6 0係躺接至該位移偵測控制主機3 〇 表單編號A0101 101210110 第7頁/共]3頁 1013335784-0 M442565 ,其例如但不限於為一無線或有線通信裝置,其中該無 線通信裝置例如但不限於為RF'藍牙或GSM無線通信裝置 ,在本實施例中,係以Rf無線通信裝置為例加以說明, 但並不以此為限。 [0021] [0022] 該第二通信裝置70係以無線或有線方式與該第一通 信裝置60通信,其例如但不限於為一無線或有線通信裝 置’其中該無線通信裝置例如但不限於為RF、藍牙或GSM 無線通信裝置,在本實施例中,係以RF無線通信裝置為 例加以說明,但並不以此為限》 該資料庫伺服主機80係耦接至該第二通信裝置70, 其具有一資料庫(圖未示),可接收該位移偵測控制主 機30回傳之環境偵測、土壤壓力偵測、供電裝置資訊並 儲存於該資料庫中,同時該資料庫中建置有各式集水區 形狀因子 '溪床坡度及地質特性,透過統計分析可以精 準達到預警效果。: an environmental detection device for detecting the temperature, humidity, rainfall, and exposure information of the environment; at least one soil pressure detecting device is placed at a place where the earth and rock flow is easy to occur, for detecting the soil pressure signal; The detection control host is coupled to the environment detecting device and the soil pressure detecting device by wire or wirelessly, and can receive the temperature, humidity, rainfall, sunshine information and the soil pressure detection transmitted by the environment detecting device. The soil pressure signal transmitted by the device can detect and report the position and displacement information of the host; an alarm device is coupled to the displacement detection control host by wire or wirelessly, and can send an alarm signal; a power supply device, coupled Connected to the environment detecting device, the soil pressure detecting device, the displacement detecting control host and the alarm device for providing the required power supply; a first communication device form number A0101 page 5 / 13 pages 1013335784- [0012] [0015] [0015] [0015] Ο , coupled to the displacement detection control host; a second communication device, wireless or wired The first communication device communicates; and a database server is coupled to the second communication device, and has a database, which can receive the environment detection, soil pressure detection, and power supply of the displacement detection control host backhaul The device information is stored in the database. At the same time, various types of catchment area factors, river bed slope and geological characteristics are built in the database, and the early warning effect can be accurately achieved through statistical analysis. [Embodiment] This creation combines the geological monitoring and early warning system of pressure detection and environmental detection to overcome the above-mentioned uncertainty problem. The reason is that the change of geology, the amount of rainfall will cause the earth and rock to fall and the disaster will be generated in the stratum. Pushing the pressing force, according to the pushing force combined with the geological type, can accurately predict whether the ground layer is unstable or not. Please refer to FIG. 1, which is a block diagram of a geological monitoring system in accordance with a preferred embodiment of the present invention. As shown in the figure, the geological monitoring system of the present invention comprises: an environment detecting device 10; at least one soil pressure detecting device 20; - a displacement detecting control host 30; - an alarm device 40; - a power supply device 50; A communication device 60; a second communication device 70; and a database server host 80 are combined. The environment detecting device 10 is configured to detect ambient temperature, humidity, rainfall, and sunshine information, such as, but not limited to, a thermometer, a hygrometer, or a rain gauge. The soil pressure detecting device 20 is placed in a place where earth and rock flow is easy to occur, 101210110 Page 6 of 13 1013335784-0 j. If it is not limited to a hillside or a stream, it is used to make a soil house signal. Increase or decrease as needed. Generally, the greater the pressure per unit area of the soil, the higher the water content of the soil is more likely to occur. The motion detection control host 30 is coupled to the environmental locating device 10 and the soil interference measuring device 2G by wire or wirelessly, and can receive the temperature, the fishing degree, the rainfall, and the The Rizhao information and the soil pressure signal transmitted by the soil pressure measuring device 20 can detect and report the position and displacement information of the host. In addition, the displacement detection control host 30 further has a Gps module and a _3D gyroscope (both not shown), and the GPS module can provide the position of the displacement detection control host 30. The latitude and longitude coordinates information, the 3D gyroscope can provide the 3D displacement detection control of the displacement detection control host. The alarm device 40 is coupled to the motion detection control host 3 by wire or wirelessly, and can emit a light or sound alarm signal, such as but not limited to - a warning light or a speaker. The environment detecting device 1 , the soil pressure detecting device 20 , the displacement detecting control host 30 , and the alarm device 4 用以 are used to provide a power source required thereof, such as, but not limited to, a solar power generating device or a wind The generator can be further provided with a battery (not shown) for storing electricity. In the present embodiment, the solar power generating device is taken as an example, but is not limited thereto. [0020]彳 § device 60 is lie to the displacement detection control host 3 〇 form number A0101 101210110 page 7 / total] 3 pages 1013335784-0 M442565, such as but not limited to a wireless or wired communication device, where the wireless The communication device is, for example, but not limited to, an RF' Bluetooth or GSM wireless communication device. In the present embodiment, the Rf wireless communication device is taken as an example, but is not limited thereto. [0022] The second communication device 70 communicates with the first communication device 60 in a wireless or wired manner, such as but not limited to being a wireless or wired communication device, wherein the wireless communication device is, for example but not limited to, In the present embodiment, the RF, the Bluetooth, or the GSM wireless communication device is described by taking the RF wireless communication device as an example, but is not limited thereto. The database server 80 is coupled to the second communication device 70. The utility model has a database (not shown), which can receive the environment detection, the soil pressure detection, the power supply device information returned by the displacement detection control host 30, and store the information in the database, and the database is built in the database. There are various types of catchment area shape factor 'slope bed slope and geological characteristics, through statistical analysis can accurately reach the early warning effect.

[0023] [0024] 101210110[0024] 101210110

此外’本創作之地質監測系統進一步具有至少一電 腦終端機90連接至該資料庫飼服主機8〇.,且該電腦終端 _ 機90上具有一網頁(圖未示),讓遠端之使用者透過該 網頁瀏覽器查看該地質監測預警系統之即時資訊,其中 該電腦终端機90例如但不限於為一桌上型電腦或筆記型 電腦。 土石流的發生條件須是鬆散的土石、足夠的含水量 、適當的坡度。本創作之地質監測預警系統就是以地層 壓Λ變化為主要偵測,並結合溫溼度環境、雨量、衛星 定位、位㈣測’這些_資料透過無線通訊方式傳= 第8頁/共13頁 101333S784-O M442565 該資料.庫舰主細之資料庫t,並在該資料庫祠服主 細之資料庫中結合各式集錢形狀因子溪床坡度及 地質特性,透過统計分析便可精準達到預警效果。 [_ μ石流的發生條件,本案在該資料庫㈣主機80 之資料料建立台灣地區的土石轉性權值,土石流之 溪流,其集水區之形狀因子介於0 13~〇 34間屬於狭 長型集水區。危險溪流溪床坡度分佈介於财至35度間 ’尤其以20度至25度之機率最大。地質結構 ••隸屬函數In addition, the geological monitoring system of the present invention further has at least one computer terminal 90 connected to the database feeding host 8 〇., and the computer terminal _ machine 90 has a web page (not shown) for use by the remote end. The instant information of the geological monitoring and warning system is viewed through the web browser, wherein the computer terminal 90 is, for example but not limited to, a desktop computer or a notebook computer. The occurrence of earth and rock currents must be loose earth and stone, sufficient water content, and appropriate slope. The geological monitoring and early warning system of this creation is mainly based on the change of the ground lamination, combined with the temperature and humidity environment, rainfall, satellite positioning, and position (4) measurement. These data are transmitted by wireless communication = page 8 / total 13 pages 101333S784 -O M442565 This information. The database of the master ship of the library, and the combination of various types of money shape factor river bed slope and geological characteristics in the database of the database, can accurately reach the early warning through statistical analysis. effect. [_ μ The occurrence condition of the stone flow, the data in the database (4) host 80 of this case is to establish the turn-to-turn weight of the land in Taiwan, the stream of the earth-rock flow, the shape factor of the catchment area is between 0 13~〇34 Long and narrow catchment area. The slope of the dangerous stream stream bed is between 35 and 5%, especially at 20 to 25 degrees. Geological structure •• membership function

採用權值分級〔分為鬆散、_般、堅硬〕,隸屬函數= U.0/鬆散+0.8/—般+0.5/堅硬},加以修正地質特性 之隸屬權值,亦即地質若為鬆散如右列之一:地質為沙 質、溪床有堆積物、地質有崩塌、裸露或坡地經過開挖 無植生時等,地質特性之隸屬函數乘以1()。地質若為一 般地質結構如:一般黏性地質或坡地經過開挖有植生時 等’地質特性之隸屬函數乘以0. 8。地質結構若為堅硬地Use weight classification [divided into loose, _like, hard], membership function = U.0 / loose +0.8 / - general +0.5 / hard}, to modify the subordinate weight of geological characteristics, that is, if the geological is loose One of the right columns: the geological is sandy, the bed is stacked, the geological collapse, the bare or the slope is excavated without vegetation, and the membership function of the geological characteristics is multiplied by 1 (). If the geological structure is a general geological structure, such as: general viscous geological or sloping land through excavation, when planting, etc., the membership function of the geological property is multiplied by 0.8. If the geological structure is hard

質結構如:一般堅硬、穩定地質等,地質特性之隸屬函 數乘以0. 5等。 因此’本創作之地質監測系統結合壓力偵測與環境 债測,並藉由上述之依權值分級之隸屬函數,即可精確 預測是否容易發生土石流;此外,本創作亦具有一告警 裝置’可於預測或偵測到土石流時,發出警示燈光或聲 音’亦可透過資料庫伺服主機發送簡訊或是其他通知管 道提醒河川下游居民趕快逃生,以降低居民生命財產之 損失,因此,本創作之地質監測系統確較習知土石流預 警系統具有進步性。 表單編號Α0101 101210110 第9頁/共13頁 1013335784-0 M442565 [0027] 本案所揭示者,乃較佳實施例,舉凡局部之變更或 修飾而源於本案之技術思想而為熟習該項技藝之人所易 於推知者,俱不脫本案之專利權範疇。 [0028] 综上所陳,本案無論就目的、手段與功效,在在顯 示其迥異於習知之技術特徵,且其首先創作合於實用, 亦在在符合新型之專利要件,懇請貴審查委員明察, 並祈早日賜予專利,俾嘉惠社會,實感德便。 【圖式簡單說明】 [0029] 圖1為一示意圖,其繪示本案一較佳實施例之地質監 測系統之方塊示意圖。 【主要元件符號說明】 [0030] 環境偵測裝置10 [0031] 土壤壓力偵測裝置20 [0032] 位移偵測控制主機30 [0033] 告警裝置40 [0034] 供電裝置50 [0035] 第一通信裝置60 [0036] 第二通信裝置70 [0037] 資料庫伺服主機80 [0038] 電腦終端機90 101210110 第10頁/共13頁 1013335784-0The mass structure is as follows: generally hard, stable geological, etc., the membership function of the geological characteristics is multiplied by 0.5 and so on. Therefore, the geological monitoring system of this creation combines pressure detection and environmental debt measurement, and by using the membership function of the above-mentioned weighting classification, it is possible to accurately predict whether or not the earth and rock flow is easy to occur; in addition, the creation also has an alarm device. When warning or detecting the earth-rock flow, warning lights or sounds can be sent out. The newsletter can also send a newsletter or other notification pipeline to remind the downstream residents of the river to escape quickly to reduce the loss of life and property of the residents. Therefore, the geology of the creation The monitoring system is more progressive than the conventional earth and rock flow warning system. Form No. 1010101 101210110 Page 9 / Total 13 Page 1013335784-0 M442565 [0027] The present disclosure, which is a preferred embodiment, is a person who is familiar with the skill of the present invention. It is easy to infer, and it does not deviate from the scope of patent rights in this case. [0028] In summary, this case, regardless of its purpose, means and efficacy, is showing its technical characteristics that are different from the conventional ones, and its first creation is practical, and it is also in line with the new patent requirements. And pray for an early patent, 俾嘉惠社会, really feel good. BRIEF DESCRIPTION OF THE DRAWINGS [0029] FIG. 1 is a schematic diagram showing a block diagram of a geological monitoring system in accordance with a preferred embodiment of the present invention. [Main component symbol description] [0030] Environment detecting device 10 [0031] Soil pressure detecting device 20 [0032] Displacement detecting control host 30 [0033] Alarm device 40 [0034] Power supply device 50 [0035] First communication Device 60 [0036] Second Communication Device 70 [0037] Database Servo Host 80 [0038] Computer Terminal 90 101210110 Page 10 / Total 13 Page 1013335784-0

Claims (1)

六、申請專利範圍: .一種地質監測系統,其包括: /w年尹月f日 修正 一環境偵測裝置,用以偵測環境之溫度、溼度、雨量 、曰照等資訊; 至少一土壤壓力偵測裝置,係置於易發生土石流之處 ,用以偵測土壤壓力訊號; 位移该測控制主機,係以有線或無線方式麵接至該 環境领測裝置及土壤壓力制裝置,可接收該環境偵測裝 置所傳送之溫度、溼度、雨量、日照資訊及該土壤壓力偵 測裝置所傳送之土壤麼力訊號,可彳貞測及回報該位移積測 控制主機位置及位移資訊; 一供電裝置,耦接至該環境偵測裝置、土壤壓力偵測 裝置及該位移仙控制主機,用以提供其所需之電源; 第通信裝置,耦接至該位移偵測控制主機; 一第二通信裴置,可以無線或有線方式與該第一通信 裝置通信;以及 竹犀伺服主機,耦接至該第二通信裝 一 I口么且,六丹^ -資料庫’可純触㈣碰社細叙環境债測, 土壤I力偵測、供電裝置資訊並儲存於該資料庫中,同明 該資料庫中建置有各式集水區形狀S子、溪床坡度及地! 特性’透過統計分析可以精準達到預警效果。 如申咕專利範圍第】項所述之地質監測系統,其中該位移 摘測控制主機内部進一步具有一㈣模組及一抑陀螺儀, 以提供精準位置回報與位移债測控制。 3 如利範圍第1項所述之地質監測系統,其進一步具 表單编號It告购’係二線或躲__位移細 弟11頁/共]3苜 101210110 1013335784-0 M442565 /。丨年^月f曰修正 制主機,可發出告警信號。 4. 如申請專利範圍第3項所述之地質監測系統,其令該告警 裝置為一警示燈或揚聲器。 5. 如申請專利範圍第1項所述之地質監測系統,其中該供電 裝置為太陽能發電裝置或風能發電機,且進一步具有一蓄 電池以供儲電。Sixth, the scope of application for patents: A geological monitoring system, which includes: /w year Yin Yue f correction an environmental detection device to detect environmental temperature, humidity, rainfall, photos and other information; at least one soil pressure The detecting device is disposed at a place where the earth and rock flow is likely to occur to detect the soil pressure signal; and the displacement control unit is connected to the environment measuring device and the soil pressure device by wire or wirelessly, and can receive the The temperature, humidity, rainfall, sunshine information transmitted by the environmental detection device and the soil power signal transmitted by the soil pressure detecting device can detect and report the position and displacement information of the displacement integrated control host; And coupled to the environment detecting device, the soil pressure detecting device and the displacement control host to provide the required power; the communication device coupled to the displacement detecting control host; a second communication port The wireless communication device can communicate with the first communication device in a wireless or wired manner; and the bamboo rhinoceros servo host is coupled to the second communication device and has an I port. -Database 'can be touched (four) touched the community to describe the environmental debt test, soil I force detection, power supply device information and stored in the database, with the same type of watershed shape S , the slope of the river bed and the ground! The characteristic 'can achieve accurate warning results through statistical analysis. For example, in the geological monitoring system described in the scope of the patent application scope, the displacement extracting control host further has a (four) module and a gyroscopic device to provide precise position return and displacement debt measurement control. 3 The geological monitoring system described in item 1 of the profit range, further with the form number It is called 'second line or hide __ displacement fine 11 pages/total】3苜 101210110 1013335784-0 M442565 /. In the following year, the system can be issued with an alarm signal. 4. The geological monitoring system of claim 3, wherein the warning device is a warning light or a speaker. 5. The geological monitoring system of claim 1, wherein the power supply device is a solar power generation device or a wind energy generator, and further has a battery for storing electricity. 6. 如申請專利範圍第1項所述之地質監測系統,其中該第一 通信裝置為一無線或有線通信裝置,其中該無線通信裝置 為RF、藍牙或GSM。 7. 如申請專利範圍第6項所述之地質監測系統,其中該第二 通信裝置為一無線或有線通信裝置,其中該無線通信裝置 為RF、藍牙或GSM。 8 .如申請專利範圍第1項所述之地質監測系統,其進一步具 有至少一電腦終端機連接至該資料庫伺服主機,且該電腦 终端機上具有一網頁,讓遠端之使用者透過該網頁查看該 地質監測預警系統之即時資訊,亦可透過該資料庫伺服主 機發送簡訊或是其他通知管道發送預警資訊。 9 .如申請專利範圍第8項所述之地質監測系統,其中該電腦 终端機為一桌上型電腦或筆記型電腦。 101210110 第12頁/共13頁 1013335784-06. The geological monitoring system of claim 1, wherein the first communication device is a wireless or wired communication device, wherein the wireless communication device is RF, Bluetooth or GSM. 7. The geological monitoring system of claim 6, wherein the second communication device is a wireless or wired communication device, wherein the wireless communication device is RF, Bluetooth or GSM. 8. The geological monitoring system of claim 1, further comprising at least one computer terminal connected to the database server, wherein the computer terminal has a web page for the remote user to pass through The webpage can view the real-time information of the geological monitoring and early warning system, and the server can also send a short message or other notification pipeline to send the warning information through the database. 9. The geological monitoring system of claim 8, wherein the computer terminal is a desktop computer or a notebook computer. 101210110 Page 12 of 13 1013335784-0
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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI645380B (en) * 2017-11-07 2018-12-21 亞東技術學院 Earth and Rock Disaster Prevention Internet of Things
TWI646238B (en) * 2017-07-19 2019-01-01 國立屏東科技大學 Soil erosion measuring apparatus

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI646238B (en) * 2017-07-19 2019-01-01 國立屏東科技大學 Soil erosion measuring apparatus
TWI645380B (en) * 2017-11-07 2018-12-21 亞東技術學院 Earth and Rock Disaster Prevention Internet of Things

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