ดาวน์โหลดงานนำเสนอ
งานนำเสนอกำลังจะดาวน์โหลด โปรดรอ
ได้พิมพ์โดยKaeo Traivut ได้เปลี่ยน 9 ปีที่แล้ว
1
Gas Hydrate The future energy ? By Supaporn Pisutha-Arnond
Present to Geology Dept Students, 28 Jan 2011 Supaporn Pisutha-Arnond June 11, 2010: PTTEP
2
Non-conventional energy
Gas hydrate Oil Sand/heavy oil/ tar sand Oil Shale Shale gas Coal bed Methane Geothermal Energy Water/Dam Uranium Supaporn Pisutha-Arnond June 11, 2010: PTTEP
3
Natural Gas Hydrate Occurrence
Marine env. Permafrost Env.
4
2007 เก็บตัวอย่างได้ ไม่ได้เก็บตัวอย่าง แต่คิดว่ามี
โปรดสังเกตว่า มี ก๊าซไฮเดรทที่ในมหาสมุทรอินเดีย 2007 เก็บตัวอย่างได้ ไม่ได้เก็บตัวอย่าง แต่คิดว่ามี
5
-The offshore region between New Jersey and Georgia. -The Blake Ridge.
6
พื้นที่เล็กๆ 3000 ตรกม เกิดจากการสะสมตะกอนอย่างรวดเร็วในบริเวณนี้ ประเมินว่า มี Gas Hydrate เท่ากับ 30 เท่าของปริมาณการใช้ก๊าซของอเมริกาในแต่ละปี Showing Blake Ridge
7
AAPG 1979 Fig. 3: Blake Ridge
9
Crest of Blake Ridge (Year 1979)
Reflectionsในช่วงนี้อ่อนเพราะตัว cementation ในตะกอนเป็นไฮเดรท พบในตะกอนที่อยู่ในระหว่าง reflectionนี้ กับ Sea Floor Bottom-Simulating Reflectors (BSRs) on stacked reflection seismic data ศัพท์ใหม่ที่ต้องจำ..... BSR
10
What is Gas Hydrate? Gas Hydrate is an Ice-liked crystalline solid formed from a mixture of water and natural gas, usually methane. They occur in the pore spaces of sediments, and may form cement nodes or layers. คือ ผลึกที่เหมือนกับน้ำแข็ง เกิดมาจากก๊าซธรรมชาติ (โดยมาก คือ มีเทน) ผลึกเหล่านี้เกิดอยู่ในช่องว่างในเนื้อหินตะกอน และ มันอาจทำตัวเป็น ตัวเชื่อมเกาะกันเป็นกลุ่ม หรือ เป็น ชั้น
11
(ดูภาพขยายถัดไป) ผิวน้ำ พื้นมหาสมุทร BSR Gas Hydrate stability
in ocean sediments. ผิวน้ำ Gas Hydrate Stability Curve In sea water. Gas พื้นมหาสมุทร solid BSR (ดูภาพขยายถัดไป) ต้องไม่ลืมว่า หากมีก๊าซไม่มาก ย่อมไม่มีก๊าซไฮเดรท
12
อุณหภูมิ และ ความดัน เป็น ปัจจัยหลัก
Gas Hydrate stability in ocean sediments. ผิวน้ำ Gas Hydrate Stability Curve In sea water. อุณหภูมิ และ ความดัน เป็น ปัจจัยหลัก Gas พื้นมหาสมุทร ต้องไม่ลืมว่า หากมีก๊าซไม่มาก ย่อมไม่มีก๊าซไฮเดรท
13
พื้นมหาสมุทร Gas Hydrate Stability Curve In sea water.
ต้องไม่ลืมว่า หากมีก๊าซไม่มาก ย่อมไม่มีก๊าซไฮเดรท
14
มาดู Fields ที่พบแล้ว
15
Figure 1:Index map of the Messoyakha Gas Field (after Krason and Finley, 1992). The products from Messoyakha is supplied to Norilsk through a pair of pipelines. The gas from super giant gas fields in the western part, such as Urengoy and Yamburg, is supplied to the west.
21
USA
22
in-place gas hydrate resources in the Gulf of Mexico (GOM)
607 TCM or 21,444 TCF In addition, the assessment has determined that a mean of190 TCM or 6,710 TCF of this resource occurs as relatively high-concentration accumulations within sand reservoirs, with the remainder occurring within clay-dominated sediments. Ref: US Dept of Energy, Spring 2008
23
Results The volume of undiscovered in-place gas hydrate is expressed as a cumulative probability distribution. The total volume of in-place gas hydrate on the GOM OCS is projected to range from 314 TCM to 974 TCM (95% to 5%), with a mean of 607 TCM. As in most stochastic resource assessments, and certainly in one where a new methodology has been developed and deployed, the reader is encouraged to place considerable interpretative weight on the entire range of possible outcomes. Ref: US Dept of Energy, Spring 2008
24
the mean in-place resource in sandstone reservoirs equals 190 TCM
Updated releases of the MMS hydrate assessment will contain results from a stochastic technically recoverable model that will only consider sand-hosted resources as candidates for commercial production. the mean in-place resource in sandstone reservoirs equals 190 TCM Map of in-place gas hydrate resources - sand only. Values are trillion cubic meters per cell. Ref: US Dept of Energy, Spring 2008
25
INDIA
26
ใช้เวลา 114 วัน สำรวจ 4 พื้นที่ ในช่วงเวลา เมษายน – สิงหาคม 2006
รายงานนี้เปิดเผย เดือน กพ 2008 US-India study discovers large gas hydrate presence An international team นำโดย 1) the US Geological Survey (USGS) 2) India’s Directorate General of Hydrocarbons ได้เปิดเผย ผลงานที่เรียกได้ว่า the world’s most comprehensive gas hydrate field venture to date. National Gas Hydrate Program 01 (NGHP) ใช้เวลา 114 วัน สำรวจ 4 พื้นที่ ในช่วงเวลา เมษายน – สิงหาคม 2006
27
NGHP Expedition 01 to explore 10 sites in four areas:
(1) the Kerala-Konkan basin in the Arabian Sea on India’s western continental shelf; (2) the petroliferous Krishna-Godawari basin (3) Mahanadi basin in the Bay of Bengal; (4) An unexplored Andaman Islands.
28
Scientists conducted ocean drilling, coring, logging, and analytical activities to assess the geologic occurrence, regional context, and……
29
and characteristics of gas hydrate deposits along India.
30
ผลงาน National Gas Hydrate Program (NGHP) Expedition 01 เริ่มทำการสำรวจ ปี 2006 (1) the Krishna-Godavari basin, เก็บตัวอย่าง ได้ the richest marine gas hydrate accumulations ever discovered. (2) off the Andaman Islands, one of the thickest and deepest gas hydrate occurrences yet known, with gas hydrate-bearing volcanic ash layers as deep as 600 m below the seafloor. (3) the Mahanadi basin, “For the first time, a fully developed gas hydrate system was established in the Mahanadi basin.”
32
Hydrate Stability Zone Thickness Map
33
S. KOREA
34
Korean national Program expedition confirm Rich Gas Hydrate deposits in the Ulleung Basin, East Sea.
November 2007 marked the successful completion of South Korea’s first large-scale gas hydrate exploration and drilling expedition in the East Sea. Ulleung Basin Gas Hydrate Expedition 1 (UBGH1), explored and recovered gas-hydrate-bearing sediments at three different locations in the Ulleung Basin. The Korea National Oil Corporation (KNOC) and Korea Gas Corporation (KOGAS) contracted Fugro to supply drilling, wireline logging, coring and associated services for Expedition UBGH1, while other companies including Schlumberger and Geotek provided Logging While Drilling (LWD) and core analysis services respectively. Technical decisions directing the scientific aspects of the work were made by the Korea Gas Hydrate R&D Organization and the Korea Institute of Geoscience and Mineral Resources (KIGAM). Ref: US Dept of Energy, Spring 2008
35
Ref: US Dept of Energy, Summer 2008
Ulleung Basin Ref: US Dept of Energy, Summer 2008
36
significant gas-hydrate-bearing reservoirs were documented up to 150 m below the seafloor and at water depths between 1800 to 2100 m. Study sites in the Ulleung Basin, a back-arc basin off the east coast of South Korea. Ref: US Dept of Energy, Spring 2008
37
Huge Gas Hydrate was found in Ulleung Basin in 2007.
Becomes the 5th country to locate Gas Hydrate: USA, Japan, India, China. Huge Gas Hydrate structure 130 m thick and larger than ever found in Japan, India and China. Ulleung Basin Ref: IHS GEPS Report, 2010
38
Goal: to begin commercial use of gas hydrates from 2015.
South Korea announced a plan to search for new energy resources in the continental shelf in (As of Feb 18, 2010) Goal: to begin commercial use of gas hydrates from 2015. Ref: IHS GEPS Report, 2010
39
JAPAN
41
Five years later, Japanese and Canadian researchers re-united Inuvik.
Aurora-JOGMEC-NRCan Mallik Gas Hydrate Research Project 2002, scientists and engineers from 5 countries celebrated the success of the world’s first gas production from a methane hydrate reservoir at the Mallik 5L-38 research well in the Mackenzie Delta, Canada. Five years later, Japanese and Canadian researchers re-united Inuvik. This time, the goal was to undertake a longer test and advance new research and development studies utilizing the simple depressurization technique. The research program was successfully completed in April 2008. Figure 1: Landscape of the Mallik site (April 2007). Ref: US Dept of Energy, Summer 2008
42
in the area between Tokai and the Sea of Kumano off central Japan.
43
Aurora-JOGMEC-NRCan Mallik 2006-2008 Gas Hydrate Research Project
After the first Mallik production test, the MH21 Gas Hydrate Research Consortium was formed. JOGMEC conducted a 3D seismic survey and an exploration drilling campaign in the eastern Nankai Trough area offshore Central Japan. The logging data and core samples taken in 16 locations revealed that the total gas in place in gas hydrate form in the 7000 km2 survey area is 40 TCF. Ulleung Basin drilling Ref: US Dept of Energy, Summer 2008
44
Aurora-JOGMEC-NRCan Mallik 2006-2008 Gas Hydrate Research Project
Winter 2007 Operations The production test operation started on April 2, 2007. The test zone, a 12 m-thick interval near the bottom of the gas hydrate occurrence zone (GHOZ), was selected based on the logging data. The world’s first gas production by the depressurization of natural gas hydrate in geological formation: During the most successful 12.5 hours of the test, at least 830 m3 of gas were produced and accumulated in the borehole. Cased-hole logging data taken before and after the test derived information about formation responses to depressurization. The test results verified the effectiveness of the depressurization method even for such a short duration. Ref: US Dept of Energy, Summer 2008
45
Aurora-JOGMEC-NRCan Mallik 2006-2008 Gas Hydrate Research Project
Winter 2008 Operations to undertake longer term gas hydrate production testing. The Mallik 2L-38 production test well was re-entered, and a modified pumping system was run into the hole with sand control devices (Figure 3). The pump operation started on March 10 and continued until the preset test termination time of 12 noon on March 16, 2008. Ref: US Dept of Energy, Summer 2008
46
Aurora-JOGMEC-NRCan Mallik 2006-2008 Gas Hydrate Research Project
Figure 4: World’s first sustainable gas flare of methane from a hydrate source (March 10, 2008). Figure 5: Methane hydrate gas still being flared six days later (March 16, 2008). Ref: US Dept of Energy, Summer 2008
47
Preliminary Results The 2008 testing program at Mallik confirmed that
Aurora-JOGMEC-NRCan Mallik Gas Hydrate Research Project Preliminary Results The 2008 testing program at Mallik confirmed that Continuous gas flow ranging from 2000 to 4000 m3/day was maintained throughout the course of the six-day (139-hour) test. Cumulative gas production volume was approximately 13,000 m3. Confirm the depressurization method is the correct approach. The gas rate prediction by the MH21-HYDRES gas hydrate reservoir simulation matches well with the observed values. Ref: US Dept of Energy, Summer 2008
48
Japan General Drilling MITI Gas hydrates
Japan govt body MITI plans to drill for gas hydrates exploration in 2H fiscal in the area between Tokai and the Sea of Kumano off central Japan. Goal: possible commercial production by 2018. IHS Energy: October 8, 2010
49
CHINA
50
บ้านเราไม่มี Gas Hydrate
52
Paleo Gas Hydrate
56
Please see Reliance strategy to keep concessions on gas hydrate possibility.
KG Basins One cubic meter of gas hydrate will become 60 times when deassociated to gas methane. This make a big field. RELIANCE BLOCKS
57
One cubic meter of gas hydrate will become 60 times when deassociated to gas methane. This make a big field. In this block, TCF of Pleistocene-Pliocene gas will be started to produce gas at 1,400 MMSCF/D in Q2 2009 RELIANCE BLOCKS
58
HIS news dated 21st April 2009 KG-DWN-98/3 KG-DWN-2003/1
59
Thank you for your attention !
งานนำเสนอที่คล้ายกัน
© 2024 SlidePlayer.in.th Inc.
All rights reserved.