APPLIED GEOLOGY RESEARCH DIVISION, FACULTY OF EARTH SCIENCES AND TECHNOLOGY INSTITUT TEKNOLOGI BANDUNG Characterization of Tropical Volcanic Hydrogeology.

Slides:



Advertisements
Similar presentations
Water Table and Aquifers
Advertisements

Application of the Continuous Slope-Area Method for Determining Stream Discharge and Development of Rating Curves in Ephemeral Channels Navajo Nation Hydroclimate.
Large Scale Mapping of Groundwater Resources Using a Highly Integrated Set of Tools Verner H. Søndergaard Geological Survey of Denmark and Greenland, Denmark.
BLM National Training Center SPRING DEVELOPMENTS.
The Hydrologic Cycle The hydrologic cycle is the movement, exchange, and storage of the Earth's free water.
GROUNDWATER RECHARGE AND FATE OF GROUNDWATER STORAGE OF
Runoff Processes Daene C. McKinney
The Caveat: Hydrology Complex Site specific Difficult to accurately quantify More questions than answers.
Groundwater The Unseen Part of the Water Cycle Salt Groundwater Ground Water Reservoir The present-day surface hydrologic cycle. The numbers in parentheses.
Construction And Analysis Of Hydrographs. Hydrograph Record of River Discharge over a period of time River Discharge = cross sectional area rivers mean.
Nidal Salim, Walter Wildi Institute F.-A. Forel, University of Geneva, Switzerland Impact of global climate change on water resources in the Israeli, Jordanian.
A Geochemical Survey of the Telese Hypothermal Spring, Southern Italy: Sulfate Anomalies Induced by Crustal Deformation (Harabaglia, et. al. 2002) Additional.
Water.
Construction Analysis Hydrographs
Engineering Hydrology (ECIV 4323)
Integrated Approach for Assessing the Characteristic of Groundwater Recharge in Basin Scale Hsin-Fu Yeh*, Cheng-Haw Lee, Kuo-Chin Hsu Department of Resources.
Hydrologic Cycle Groundwater. Water, water everywhere Oceans – 97.2% Ice – 2.15% Fresh water – 0.65%
Methods for the Estimation of Mine Infiltration Bruce Leavitt PE PG, Consulting Hydrogeologist Washington, Pennsylvania.
Vadose-zone Monitoring System
Dr. Muhammad Farooq Department of Earth Sciences COMSATS Institute of Information Technology Abbottabad Dr. Samgyu Park Mineral Resources Research Division,
Water availability and quality vulnerability after climate and land-cover changes in an Andean volcanic watershed in south central Chile José Luis Arumí.
CHAPTER 20: GROUNDWATER. Groundwater It is estimated that there is 3000 times more water stored as groundwater in the upper 800 meters of continental.
Dams and Water Supply The specification states that in relation to dams you need to be able to: Interpret the geological factors affecting the construction.
, CENTRAL ETHIOPIA Are these lakes connected? Shemelis Fikre Addis Ababa University,Department of Earth Sciences POBOX 1176, Addis Ababa, Ethiopia.
Garey A. Fox, Ph.D., P.E., Derek M. Heeren, Michael A. Kizer, Ph.D. Oklahoma State University Evaluation of Alluvial Well Depletion Analytical Solutions.
Hydrogeology of the Middle Sigatoka Valley and Human Impacts on Groundwater Systems – Preliminary Results Amini Loco Mineral Resources Department.
Conjunctive use and conjunctive management..  Physical / Chemical Interaction – water balance / quality implications  System Dimensions: time / flow.
Floodplain Management SESSION 4 Stream Systems on Dynamic Earth Hydrosphere Prepared By Donald R. Reichmuth, PhD.
Construction And Analysis Of Hydrographs Hours from start of rain storm Discharge (m 3 /s) Base flow Through flow Overland.
Hydrogeologic Data Collection for Water-Resources Evaluation in Bedford County, Virginia Brad White, Virginia Department of Environmental Quality, Ground.
ENVIRONMENTAL SCIENCE Chapter 3 The Dynamic Earth 3.1 The Geosphere.
“Soil Wetness Modeling Rules for Sewage Treatment and Disposal Systems in North Carolina” by Barrett L. Kays, Ph.D., NCCHS Steven Berkowitz, P.E., NCDENR.
An Application of Field Monitoring Data in Estimating Optimal Planting Dates of Cassava in Upper Paddy Field in Northeast Thailand Meeting Notes.
Chapter 2 Fresh Water Section 5 Water Underground
CE 424 HYDROLOGY 1 Instructor: Dr. Saleh A. AlHassoun.
Hays Trinity Groundwater Conservation District Education and Technology “a role for today, a goal for tomorrow” Commissioners Court Presentation.
1 Large-scale Geoelectrical Measurements to Investigate a Buried Valley and its Interaction to Deep Salt water Intrusion Andreas Junge 2, Jörn Schünemann.
U.S. Department of the Interior U.S. Geological Survey Groundwater Study For Malad and Bear Rivers Drainages, Box Elder County Bear River Water Conservancy.
 Draw a meander and label these locations: erosion, deposition, faster water, and slower water. Warm – Up 2/6.
Source waters and flow paths in an alpine catchment, Colorado, Front Range, United States Fengjing Liu, Mark W. Williams, and Nel Caine 2004.
SOURCE WATER PROTECTION IN KARST SHENANDOAH VALLEY WATER CONFERENCE OCTOBER 28, 2008 WINCHESTER,VIRGINIA.
Groundwater & Wetlands
Tracking Groundwater Contamination
WATER ON AND UNDER GROUND. Objectives Define and describe the hydrologic cycle. Identify the basic characteristics of streams. Define drainage basin.
*Minagawa M, Usui T, Miura Y, Nagao S, Irino T, Kudo I, and Suzuki K, Graduate School of Environmental Science, Hokkaido University, Sapporo ,
Introduction The hydrostratigraphy under complex geological control of the volcanic aquifer in the Bandung Area has not been completely understood. Therefore.
Seasonal variation in surface- groundwater exchanges in an urban floodplain with active gravel-bar formation Dorothea Lundberg Karen Prestegaard University.
Argentina,
Journal #13 What are 4 factors that affect the depth of a water table? What is the recharge zone of an aquifer?
Water In what ways have you used water today? How much water is used to make a 1KG burger?
Models of the Earth Section 3 Section 3: Types of Maps Preview Key Ideas Topographic Maps Topographic Maps and Contour Lines Index Contour, Contour Interval,
Groundwater Geol 1110 Newell guest lecture 3/28/16.
1 [1] Engineering Geology (EC 101) [1] Dr SaMeH Saadeldin Ahmed Associate Prof. of Environmental Engineering Civil and Environmental Engineering Department.
İs tanbul University Faculty of Engineering Hacer DÜZEN a, Halil Murat ÖZLER b a,b İstanbul University, Faculty of Engineering, Department of Geological.
Water Chapter 11. Water Resources Section 11.1 Water is essential to life on Earth. Humans can live for more than month without food, but we can live.
CPCRW Snowmelt 2000 Image Courtesy Bob Huebert / ARSC.
Construction Analysis Hydrographs
Technologies to model Ground water
in the Neversink River Basin, New York
March 18, 2016 Danielle Moss & Laura Foglia
Aquifers and Groundwater flow
Electrical Resistivity Survey of Yosemite Valley, CA
Analysis of Hydrographs
Using Geophysical Techniques in the Critical Zone to Determine the Presence of Permafrost, Boulder Creek, CO -Gabriel Lewis Williams College GSA Annual.
Integrated groundwater modeling study in Addis Ababa area: Towards developing decision support system for well head protection Tenalem Ayenew And Molla.
EC Workshop on European Water Scenarios Brussels 30 June 2003
The Movement and Storage of Groundwater
WRE-1 BY MOHD ABDUL AQUIL CIVIL ENGINEERING.
Department of Water and Sanitation
Presented in The 5th ITB International Geothermal Workshop Thursday, March 31, 2016 ON THE FEASIBILITY OF GEOTHERMAL HEAT PRODUCTION FROM A HOT SEDIMENTARY.
Presentation transcript:

APPLIED GEOLOGY RESEARCH DIVISION, FACULTY OF EARTH SCIENCES AND TECHNOLOGY INSTITUT TEKNOLOGI BANDUNG Characterization of Tropical Volcanic Hydrogeology based on Temperature and Electrical Conductivity Analysis: Mount Ciremai, West Java Province, Indonesia Irawan, DE., Puradimaja, DJ., Notosiswoyo, S., Sumintadireja, P. Presented in 2011 European Geosciences Union General Assembly, Vienna Austria, 3-8 April 2011

APPLIED GEOLOGY RESEARCH DIVISION, FACULTY OF EARTH SCIENCES AND TECHNOLOGY INSTITUT TEKNOLOGI BANDUNG For more discussions, today I will be at: Hall A Board #A

Introduction (Where’s Mount Ciremai) 3 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung

Just to give you an idea in term of size Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung 4 13,000 of islands Nearly 350 Million of population 130 of volcanoes km of coastline (  Coca Cola cans in line)

Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung 5

APPLIED GEOLOGY RESEARCH DIVISION, FACULTY OF EARTH SCIENCES AND TECHNOLOGY INSTITUT TEKNOLOGI BANDUNG Why Mount Ciremai, among other 129 volcanoes in Indonesia ?

5 seconds of your time = nearly 40,000 L/sec of fresh high quality groundwater Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung

Introduction (Mount Ciremai’s Profile) 8 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung Large number of springs, with no systematic catchment monitoring and management.

The Hydrogeological Features (Geology, from Situmorang, 1995)  Consists of old and young volcanic products of pyroclastics flow and intruded lava underlied by Oligocene-Miocene clastics sediment.  Main geological structure:  NW-SE fault at south from the peak  E-W fault at easter slope, resulting Sangkanhurip and Pejambon geothermal prospect. 9 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung Map and sections are on the poster location

Why are we doing this ?  To measure groundwater response: with relatively efficient and cheap method.  To explain groundwater infiltration processes: with the thickness variation of the soil and complex condition of the strato volcanic deposits. 10 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung

Why are the problems ?  Thick weathered soil and fractured rock  Complex volcanic geology  Outcrops of rock is hard to find  Unpredictable subsurface condition (buried faults, buried valley, etc from geophysical method) 11 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung

How do we approach the conditions ?  What if we can extract something (by any chance) from:  The hydrochemistry parameters  The hydrodynamic parameters 12 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung Lack of long continuous time series data

Methods (Field measurements)  24 hours measurements of:  Environmental temperature (measured at the surface)  Groundwater temperature (measure at spring site) 13 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung 24 hours measurements of: Environmental temperature (measured at the surface) Groundwater temperature (measure at spring site)  Daily measurements in time frame of:  Rainfall: using standard rain gauge, obtained at the nearest station:  The Susukan Station (309 masl)  The Mandirancan Station (293 masl)  Groundwater discharge at spring site: using channel measurement technique  Groundwater EC and TDS: using standard portable equipments.

What do we know so far ?  Irawan (2009, doi: /j.jhydrol ): There are 3 groundwater systems (based on the hydrochemistry)  Herdianita et al (2010): Isotopes confirm that the recharge area is at around masl (in regional scale of the volcano).  Sumintadireja et al (2011): confirm buried structures in the volcanic layers (MT and geoelectric) Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung 14

The Hydrogeological Features 15 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung Extracted from 140 spring site

Result (Cibulan Spring) 16 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung Air temp fluctuates AND Water temp fluctuates Open aquifersystem Interaction with surface Temperature profile Proportionally sketch (no scale) Thick permeable soil (5-10 m) Lava (unknown thickness) L/sec

Results (Cibulan Spring)  Response:  Highest discharge: three to four months from the peak of rainy season.  Lowering discharge: two months since the dry season begins.  Lowest discharge: six months since the dry season begins. 17 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung Spring discharge hydrograph

Results (Cibulan Spring) 18 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung TDS-EC hydrograph Dissolution Dilution Recovery Dissolution

Results (Telaga Remis Spring) 19 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung Water temp relatively constant VS Air/surface temp fluctuates Closed/deeper aquifer system No interaction with surface Thin-permeable soil (5-10m) Thick-fractured lava (unknown??) Water lake (1-5 m depth) Proportionally sketch (no scale) L/sec Temperature profile

Results (Telaga Remis Spring) 20 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung Spring discharge hydrograph  Response:  Highest discharge: three to five months from the peak of rainy season.  Lowering discharge: four months since the dry season begins.  Lowest discharge: seven months since the dry season begins.

Results (Telaga Remis Spring) 21 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung TDS-EC hydrograph TDS dry = 2 x TDS rainy EC dry = 1.7 x EC rainy 1 st cycle 2 nd cycle Dilution Dissolution Recovery Dilution Recovery Dissolution

Conclusion  With this methode, in my point of view we can interpret the subsurface condition.  We have to have enough geology observation and geophysical data to support that.  This convey our prediction that the aquifer is a combination of porous medium aquifer from weathered soil and fracture medium from fractured lava and breccias.  In volcanic system, the boundary is beyond the topographical catchment area. It’s controlled by the lobes of lava or volcanic breccias. 22 Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung

Conclusion (Proposed type curve) Model A  Quick rising period in the baseflow recession curve.  Relatively have better compliance to the dry season.  Relatively long storage period.  Combination porous-fractured medium. Model B  Slower period in the base flow recession curve.  More vulnerable to dry season.  Relatively short storage period.  Combination porous-fractured medium. Applied Geology Research Division, Faculty of Earth Sciences and Technology, Institut Teknologi Bandung 23

APPLIED GEOLOGY RESEARCH DIVISION, FACULTY OF EARTH SCIENCES AND TECHNOLOGY INSTITUT TEKNOLOGI BANDUNG The authors would like to thank: 1.Chevron Pacific Indonesia for funding the participation to EGU Mr. Wouter Buytaert (Convener) for contacting myself to fill in the free oral session 3.Ministry of National Education of Indonesia for funding the PhD research 4.Department of Water Supply Kuningan Regency for data and permission to visit spring site 5.Dr. Thom Bogaard (TU Delft) for the discussions Contact information or Website: blog.fitb.itb.ac.id/derwinirawan Tel: , Fax: Address: Faculty of Earth Sciences and Technology Jalan Ganesa No. 10, Bandung West Java, Indonesia