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TWI294032B - A parallel sampling method for soil gas - Google Patents

A parallel sampling method for soil gas Download PDF

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Publication number
TWI294032B
TWI294032B TW94109208A TW94109208A TWI294032B TW I294032 B TWI294032 B TW I294032B TW 94109208 A TW94109208 A TW 94109208A TW 94109208 A TW94109208 A TW 94109208A TW I294032 B TWI294032 B TW I294032B
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Taiwan
Prior art keywords
soil gas
soil
parallel
pipe
sampling method
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TW94109208A
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Chinese (zh)
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TW200634295A (en
Inventor
M C Kuo
K F Liang
K C Fan
Y L Hang
L T Lin
S F Chu
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M C Kuo
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Description

1294032 九、發明說明: 【發明所屬之技術領域】 本發明係有關於一種並聯式土壤氣體採樣方法,尤其 是指一種應用於類似石油化學工業之長途管線及大型儲 槽或斷層之定期監測,同時具有較目前習用土壤氣體採樣 方法增加數倍有效監測距離之效能的並聯式土壤氣體採 樣方法。 【先前技術】 習用土壤氣體監測方法〔請參閱第五圖〕,係沿長途 管線、斷層或環繞在大型儲槽週邊裝置垂直土壤氣體採樣 管(6),並將該土壤氣體採樣管(6)連結一土壤氣體抽氣設 備(7)與土壤氣體分析設備(8)。當進行土壤氣體調查時, 藉由土壤氣體抽氣設備(7)抽取土壤氣體採樣管(6)中之 «* * 氣體樣品,並經由土壤氣體分析設備(8)分析所抽取之氣 體樣品中之揮發性有機物或其他氣體成分。 然而,習用之土壤氣體監測方法其土壤氣體採樣管(6) 與汽油露源距離越遠其監測到土壤氣體總揮發性有機物 濃度越少,由表一可得知習用土壤氣體採樣管(6)之有效 監測半徑僅約5公尺;所以,應用習用土壤氣體採樣方法 在地下長途管線、斷層及大型儲槽之定期監測時,由於管 線、斷層之長距離及大型儲槽之長圓周,需要設立大量的 土壤氣體採樣點及分析數量。 表一 垂直土壤氣體採樣管與汽 油漏源距離(米) 土壤氣體總揮發性有機物 濃度(ppmv) 2 2000 .12940321294032 IX. Description of the invention: [Technical field to which the invention pertains] The present invention relates to a parallel method for sampling soil gas, in particular to a periodic monitoring of long-distance pipelines and large storage tanks or faults similar to the petrochemical industry, A parallel soil gas sampling method having an effect of increasing the effective monitoring distance by several times compared to the current conventional soil gas sampling method. [Prior Art] The conventional soil gas monitoring method (please refer to the fifth figure) is a vertical soil gas sampling pipe (6) along a long-distance pipeline, a fault or a device surrounding the large storage tank, and the soil gas sampling pipe (6) Connect a soil gas extraction device (7) with a soil gas analysis device (8). When conducting a soil gas survey, the «** gas sample in the soil gas sampling tube (6) is withdrawn by the soil gas extraction device (7) and analyzed in the extracted gas sample via the soil gas analysis device (8). Volatile organic compounds or other gaseous components. However, in the conventional soil gas monitoring method, the farther the soil gas sampling pipe (6) is from the gasoline source, the less the total volatile organic matter concentration of the soil gas is monitored. The soil gas sampling pipe (6) can be known from Table 1. The effective monitoring radius is only about 5 meters; therefore, the application of the conventional soil gas sampling method in the regular monitoring of underground long-distance pipelines, faults and large storage tanks, due to the long distance of pipelines, faults and the long circumference of large storage tanks, needs to be established. A large number of soil gas sampling points and the number of analyses. Table 1 Vertical soil gas sampling pipe and gasoline oil leakage source distance (m) Total gas volatile organic matter concentration (ppmv) 2 2000 .1294032

二t再主參要 法,該方法主要係於抽氣主管(9) (10),並將該抽氣主管(9)的另—诚斑+撞/夕孔隙吕 ⑺與土壌氣體分析設備(8)連結。〃 4體抽氣設備 據此,即可藉由土魏_氣設備 ⑽中二=,並經由土壤氣體分析設備= 抽取之:體樣抑中^揮發性有機物或其他氣體成分。 只,此種土壞氣體監測方法同樣具有多孔隙管⑽ 與汽油心祿賴料監咖土賴 物 第法;圏所顯示的圖表中,可丄聯 【二内容】 有效的監測距離約為9米。 今’發明人即是鐘於上述 ;二==及理念,研二= :主管有效取得多個抽氣:ί分析設備;據此,即可經抽 降低土壤氣體分析之數量/之塌_混樣,達到有效 L實施方式】 為使本發明使用之技街方法、創作特徵、達成目的及 .1294032 功效易於明白、了解,茲配合圖式及圖號詳細說明如下:The second main re-parameter method is mainly based on the pumping supervisor (9) (10), and the other pumping supervisor (9)'s other - Cheng spot + collision / eve pore Lu (7) and soil gas analysis equipment ( 8) Link. 〃 4 body pumping equipment According to this, it can be extracted by the soil Wei gas equipment (10) and the soil gas analysis equipment = the body sample suppresses the volatile organic compounds or other gas components. Only, this method of monitoring the earth's bad gas also has the method of multi-porous pipe (10) and the method of gasoline and oil-based materials; in the chart shown in 圏, it can be linked [two contents] effective monitoring distance is about 9 Meter. Today's inventor is the clock in the above; two == and concept, research two =: the supervisor effectively obtains multiple pumping: ί analysis equipment; accordingly, the amount of soil gas analysis can be reduced by pumping / collapse To achieve an effective L implementation method] In order to make the technical street method, the creation feature, the achievement goal and the .1294032 function of the invention are easy to understand and understand, the drawings and the figure number are described in detail as follows:

首先’請參照第一圖所示,本發明之並聯式土壤氣體 採樣方法係於埋設在地表下之抽氣主管(1)上連設多個土 瓖氣體抽氣支管(2),且使各土壤氣體抽氣支管(2)成並聯 設立,再於每一土壤氣體抽氣支管(2)的下方連結設立多 孔隙管(3),繼令抽氣主管(1)的另一端連結至地表上之土 瓖氣體抽氣設備(4)與土壤氣體分析設備(5);定期〔每 週、每月、每季或每半年〕以土壤氣體抽氣設備(4)將土 壤氣體經多孔隙管(3)及土壤氣體抽氣支管(2)導至地表 之土瓖氣體分析設備(5)。 以下茲配合圖式〔請參照第二圖及第三圖〕’列舉最 佳實旅例說明之: 請參第二圖所示,係將本發明之方法應用於定期監測 地下長途管線或斷層帶(A)之示意圖。該土壤氣體採樣支 管(2)及多孔隙管(3)每隔約1米沿管線或斷層帶W)設 1,且以抽氣主管(1)姐聯連結各土壤氣體抽氣支管(2)至 土壌氣體抽氣設備⑷及土壤氣體分析^備⑸’此外’多First, please refer to the first figure. The parallel soil gas sampling method of the present invention is to connect a plurality of soil gas exhausting branches (2) to the pumping main pipe (1) buried under the surface, and The soil gas pumping branch pipe (2) is set in parallel, and then a porous pipe (3) is connected under each soil gas pumping branch pipe (2), and the other end of the pumping gas pipe (1) is connected to the earth's surface. Soil gas extraction equipment (4) and soil gas analysis equipment (5); regular (weekly, monthly, quarterly or semi-annual) soil gas extraction equipment (4) through the porous pipe ( 3) And the soil gas pumping branch pipe (2) leads to the soil gas analysis equipment (5) on the surface. The following is a description of the best example of the travel case (please refer to the second and third figures): Please refer to the second figure, the method of the invention is applied to the regular monitoring of underground long-distance pipelines or fault zones. (A) Schematic diagram. The soil gas sampling branch pipe (2) and the porous pipe (3) are set along the pipeline or the fault zone W) every 1 m, and the soil gas exhaust pipe branch (1) is connected by the exhaust gas main pipe (1) To earthy gas extraction equipment (4) and soil gas analysis (5) 'More' more

孔隙管⑶埋設深度約在地表1"1米。 請再參第三圖所禾,係將本發明之方法應用於定期監 測大“‘βΓ之承意圖。將土壌氣體抽氣支管⑵及多孔 隙管(3)以每隔約、米之距離環繞大型儲槽⑻’並以抽氣 主管(1)並聯連結各土壌氣體抽氣支管(2)至土壌氣體抽 氣設備⑷及土壌氟體分析設備(5); 管⑶ 埋設深度約在地表下1米 Λ 又,由第四圖本發明之並聯式土壤氣體採樣方法與習 用串聯式的土壌氣妙财法的對_表中,可知在相同 1294032 的汽油露源距離下,本發明之並聯式土壤氣 、 監測到的土壤氣體總揮發性有機物濃度較習方法所 土壤氣體監測方法多,同時本發明之並聯式土 ▲聯式的 方法可監測之距離亦較習料聯式的土心壤氣體採樣 遠。 '氣體監測方法 經由以上的實施說明,本發明與習用相 、 ▼匕I W钗,具以下優 1·本發明應用在地下長途管線、大型儲 測時,顯著降低習用土壤氣體採樣方=之定期監 量。 音所需之分析數 2·本發明之並聯式土壤氣體採樣方法可經抽古其 取得多個抽氣支管之土壤氣體混樣。 & , 3. ^明之並聯式土壤氣體採樣方法可監測之距離較習 用串聯式的土壤氣體監測方法遠且準確。 ,==述,本發明實施财能達到所預期之使用功 ^所揭露之具體構造,不僅未曾見諸於同類產品 亦切公開於中請前,誠已完全符合專利法之規定與 直^依法提出發明專利之中請,懇請惠予審查,並賜 准專利,則實感德便。 1294032 【圖式簡單說明】 第一圖:本發明並聯式土壤氣體採樣方法之示意圖 第二圖:本發明並聯式土壤氣體採樣方法定期監測地 下長途管線或斷層帶實施例之示意圖 第三圖:本發明並聯式土壤氣體採樣方法定期監測大 型儲槽實施例之示意圖The pore tube (3) is buried to a depth of about 1 metre on the surface. Please refer to the third figure, the method of the present invention is applied to regularly monitor the large "'βΓ's intention. The soil gas pumping branch pipe (2) and the porous pipe (3) are surrounded by about every meter and meter. The large storage tank (8)' is connected in parallel with the exhaust gas main pipe (1) to the soil gas exhaust pipe branch (2) to the soil gas pumping device (4) and the soil fluorochemical analysis device (5); the pipe (3) is buried at a depth of about 1 below the surface. In addition, from the fourth diagram of the parallel soil gas sampling method of the present invention and the conventional tandem gas smashing method, it can be seen that the parallel soil of the present invention is under the same gasoline source distance of 1294032 The total volatile organic matter concentration of the gas and the monitored soil gas is more than that of the conventional method. At the same time, the parallel type soil ▲ joint method of the present invention can monitor the distance and the sampled soil of the soil. The gas monitoring method is explained by the above implementation. The present invention and the conventional phase, ▼匕IW钗, have the following advantages. 1. The invention is applied to underground long-distance pipelines, large-scale storage and testing, and significantly reduces the conventional soil gas sampling method. Regular monitoring of the sound. The number of analyses required for the sound 2. The parallel soil gas sampling method of the present invention can obtain a mixture of soil gases of a plurality of pumping branches by extraction. & The gas sampling method can monitor the distance farther and more accurately than the conventional series of soil gas monitoring methods. ===================================================================================== It is also open to the public before the invitation, Cheng has fully complied with the provisions of the Patent Law and directly filed the invention patent in accordance with the law, please forgive the review, and grant the patent, it is really sensible. 1294032 [Simple diagram] Figure: Schematic diagram of the parallel soil gas sampling method of the present invention. Second drawing: Schematic diagram of the embodiment of the parallel soil gas sampling method of the present invention for regularly monitoring the underground long-distance pipeline or fault zone. The third diagram: the parallel soil gas sampling method of the present invention is periodically Schematic diagram of monitoring large storage tank embodiments

第四圖:本發明並聯式土壤氣體採樣方法流量分布與 串聯式土壤氣體採樣方法之比較圖 第五圖:習用之垂直土壤氣體採樣管示意圖 第六圖:另一習用串聯式土壤氣體採樣方法之示意圖 【主要元件符號說明】 <本發明> (1)抽氣主管 (2) 土壤氣體抽氣支管 (3)多孔隙管 (4) 土壤氣體抽氣設備 (5) 土壤氣體分析設備(A)管線或斷層帶 (B)大型儲槽 <習用> (6) 土壤氣體採樣管 (7) 土壤氣體抽氣設備 (8) 土壤氣體分析設備(9)抽氣主管 (10)多孔隙管Figure 4: Comparison of Flow Distribution of Parallel Soil Gas Sampling Method and Series Soil Gas Sampling Method of the Invention Figure 5: Schematic diagram of conventional vertical soil gas sampling pipe: Figure 6: Another conventional tandem soil gas sampling method Schematic [Description of main component symbols] <Invention> (1) Exhaust main pipe (2) Soil gas exhaust pipe (3) Porous pipe (4) Soil gas pumping equipment (5) Soil gas analysis equipment (A) ) Pipeline or fault zone (B) Large storage tank < conventional > (6) Soil gas sampling pipe (7) Soil gas extraction equipment (8) Soil gas analysis equipment (9) Pumping main pipe (10) Porous pipe

Claims (1)

1294032 十、申請專利範圍: 1. 一種並聯式土壤氣體採樣方法,該方法包含抽氣主管並 聯多個土壤氣體抽氣支管及多孔隙管,並令其沿地下長 途管線或斷層帶或環繞大型儲槽周圍置,再以抽氣主管 連結至地表之土壤氣體抽氣及分析設備;據此,即成為 一種有效之土壤氣體混樣採樣方法,以顯著降低土壤氣 體分析數量。 2. 如申請專利範圍第1項述之並聯式土壤氣體採樣方法, 其中,該土壤氣體抽氣支管及多孔隙管係以每隔1米之 距離沿地下長途管線或斷層帶或環繞大型儲槽周圍設 置。 3. 如申請專利範圍第1項或第2項述之並聯式土壤氣體採 樣方法,其中,多孔隙管埋設深度係在地表下1米。1294032 X. Patent application scope: 1. A parallel soil gas sampling method, which comprises a plurality of soil gas extraction manifolds and porous tubes connected in parallel with the exhaust main pipe, and which are arranged along underground long-distance pipelines or fault zones or around large reservoirs. The soil gas extraction and analysis equipment is connected around the tank and connected to the surface by the pumping main pipe; accordingly, it becomes an effective method for sampling soil gas mixed samples to significantly reduce the amount of soil gas analysis. 2. The parallel soil gas sampling method described in claim 1 of the patent scope, wherein the soil gas pumping branch pipe and the porous pipe system are along the long-distance pipeline or the fault zone or around the large-scale storage tank at intervals of 1 meter. Set around. 3. For the parallel soil gas sampling method described in item 1 or 2 of the patent scope, the buried depth of the porous pipe is 1 m below the surface. 1010
TW94109208A 2005-03-25 2005-03-25 A parallel sampling method for soil gas TWI294032B (en)

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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI385373B (en) * 2008-12-17 2013-02-11 Univ Nat Pingtung Sci & Tech A porosity-measuring device
CN103941275A (en) * 2014-05-15 2014-07-23 长沙市宇驰检测技术有限公司 Method for detecting radon in soil through scintillation chamber method

Families Citing this family (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN111286442A (en) * 2018-12-07 2020-06-16 国投生物科技投资有限公司 Device for culturing microorganisms to obtain volatile products, method and application thereof

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI385373B (en) * 2008-12-17 2013-02-11 Univ Nat Pingtung Sci & Tech A porosity-measuring device
CN103941275A (en) * 2014-05-15 2014-07-23 长沙市宇驰检测技术有限公司 Method for detecting radon in soil through scintillation chamber method

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