WORLD MAP OF HYDROGEOLOGICAL CONDITIONS AND GROUNDWATER FLOW ROALD DZHAMALOV and IGOR ZEKTSER head of Labs, Water Problems Institute, Russian Academy Sciences,

Slides:



Advertisements
Similar presentations
Introduction to Environmental Engineering Lecture 15 Water Supply and Groundwater.
Advertisements

Introduction to Groundwater Flow Modeling Prof. Dr. Halil Önder Fall 2008.
Watershed Characteristics Approach for Ground Water Recharge Estimation John L. Nieber, Roman Kanivetsky, Bruce Wilson, Heidi Peterson, Francisco Lahoud,
Lecture 21 Runoff (1) Sources and Components
Hydrological Modelling of Small Scale Processes in a Wetland Habitat O. M. JOHANSEN, J.B. JENSEN & M.L. PEDERSEN Aalborg University, Department of Civil.
Groundwater The Unseen Part of the Water Cycle Salt Groundwater Ground Water Reservoir The present-day surface hydrologic cycle. The numbers in parentheses.
Chapter 6 Section 1 – Running Water
11: Ground Water Hydrogeology: The study of
Vasey’s Paradise Groundwater discharges from the wall of Marble Canyon to form a series of natural springs. (Grand Canyon)
Hydrologic Cycle Groundwater. Water, water everywhere Oceans – 97.2% Ice – 2.15% Fresh water – 0.65%
Wellhead Protection Strategies: Keys to Success Prepared by: Mr. Brian Oram, PG, Licensed Driller, PASEO B.F Environmental Consultants and Wilkes University.
An Analysis of the Pollutant Loads and Hydrological Condition for Water Quality Improvement for the Weihe River For implementing water resources management.
NGR: Postcode: © Crown Copyright All rights reserved. Image reproduced with permission of Ordnance Survey and Ordnance Survey of Northern Ireland.
The Islamic University of Gaza Faculty of Engineering Approaches to Groundwater Modeling Conceptual Model.
Conjunctive use and conjunctive management..  Physical / Chemical Interaction – water balance / quality implications  System Dimensions: time / flow.
Cross Section of Unconfined and Confined Aquifers
Characterization Report Module 2: Water Budget, Pressures and Impacts, Significant Water Management Issues, Monitoring, Characterization Report Characterization.
Part 1: Water Water is stored in “reservoirs” –Oceans –Lakes –Rivers –Atmosphere –biosphere.
Watershed Assessment and Diagnosis of Condition for August 20, 2007 Joe Magner and Greg Johnson MPCA.
Hydrology is the science of water occurrence, movement and transport. Hydrology? Hydrogeology (hydro- meaning water, and -geology meaning the study of.
Earth Structure and the Hydrologic Cycle. Earth Science Big Picture The basic four branches of earth science are –Geology - study of the earth –Meteorology.
The basic results and prospects of MEE algorithm for the medium-term forecast of earthquakes Alexey Zavyalov Schmidt Institute of Physics of the Earth.
U.S. Department of the Interior U.S. Geological Survey Water Resources Jack Eggleston and Verne Schneider June 22-23, 2013 Groundwater Science Potential.
Hydrologic Related Activities within the Joint Institute for Caribbean Climate Studies Eric Harmsen, Ph.D., P.E. Dept. of Agricultural and Biosystems Engineering.
Sedimentary Geology EPSC-455 Lab 9 Presentation Groundwater and Sedimentary Geology: What makes good aquifers, and what are the roles of sedimentary aquifers.
The impact of climate change on ground water recharge in karst and carbonate rocks: Task The following activities will be developed at selected case.
1 GROUNDWATER HYDROLOGY AND CONTAMINANT TRANSPORT CEVE 518 P.C. de Blanc C.J. Newell 1.Hydrologic Cycle and Water Distribution 2.Soil Horizons 3.Aquifers.
SOURCE WATER PROTECTION IN KARST SHENANDOAH VALLEY WATER CONFERENCE OCTOBER 28, 2008 WINCHESTER,VIRGINIA.
11-1 Water Resources Page 269. A. The Water Cycle 1. Water is a renewable resource. Why?
Introduction The hydrostratigraphy under complex geological control of the volcanic aquifer in the Bandung Area has not been completely understood. Therefore.
Classroom presentations to accompany Understanding Earth, 3rd edition prepared by Peter Copeland and William Dupré University of Houston Chapter 12 The.
AOM 4643 Principles and Issues in Environmental Hydrology.
CE 3354 Engineering Hydrology Lecture 21: Groundwater Hydrology Concepts – Part 1 1.
Hydro-Thermo Dynamic Model: HTDM-1.0
Surface Water Surface runoff - Precipitation or snowmelt which moves across the land surface ultimately channelizing into streams or rivers or discharging.
The Islamic University of Gaza Faculty of Engineering Civil Engineering Department EENV 5326 Groundwater Modeling.
Comparison of Estimated Areas Contributing Recharge to Selected Springs in North-Central Florida by Using Multiple Ground-Water Flow Models Prepared in.
Committee activities related to the GeoInforM. Development of the digital map of geological zoning of S.Petersburg. Generalization of the geological structure.
Groundwater. 1. Zone of Aeration 2. Water table.
Arc Hydro groundwater data model: a data model for groundwater systems within ArcGIS AWRA Specialty Conference Geographic Information Systems (GIS) and.
6. Drainage basins and runoff mechanisms Drainage basins Drainage basins The vegetation factor The vegetation factor Sources of runoff Sources of runoff.
Water In what ways have you used water today? How much water is used to make a 1KG burger?
Water Resources Assessment Main Resources – Surface water – Groundwater – Unconventional Tools – Flood routing/delineation models – Runoff models – GIS.
Label: 1.aquifer 2.water table 3.impermeable layer 4.zone of saturation 5.zone of aeration, 6.recharge area aquifer Water table Impermeable layer (bedrock)
Chapter 21 Water Supply, Use and Management. Groundwater and Streams Groundwater –Water found below the Earth’s surface, within the zone of saturation,
Transboundary Groundwater. The Hydrologic Cycle Surface and Groundwater interrelationship Groundwater is influenced by land- development patters Overexploitation.
CE 3354 Engineering Hydrology Lecture 2: Surface and Groundwater Hydrologic Systems.
NGR: Postcode: © Crown Copyright All rights reserved. Image reproduced with permission of Ordnance Survey and Ordnance Survey of Northern Ireland.
Hydrogeology Distribution of Earth’s Water Fresh Water Reservoirs Inputs and outputs for fresh water reservoirs Ogallala Aquifer Water quality and land.
“Integrated Natural Resource Management in the Baikal Basin Transboundary Ecosystem” Prepared by Tugarina M.A., Irkutsk State Technical University RUSSIA.
Willi Struckmeier President International Association of Hydrogeologists, The International Groundwater Association Bundesanstalt für Geowissenschaften.
Understanding Earth Chapter 17: The Hydrologic Cycle and Groundwater Copyright © 2007 by W. H. Freeman & Company Fifth Edition.
GROUND WATER Introduction Sources and Discharge of Ground Water
Groundwater Review Aquifers and Groundwater Porosity
Aquifers and Groundwater flow
WATER Humans can survive a month without food, but will only live a few days without water Fresh water ~ water that people can drink Salt water ~ water.
Test 1 Review Chapter 1, Hydrologic cycle and the water balance
The Hydrologic Cycle and Groundwater
The Hydrologic Cycle and Groundwater
The Hydrologic Cycle and Groundwater
Hydrogeology EEES 4410/5410 Jamie M. Martin-Hayden Associate Professor
The Islamic University of Gaza Faculty of Engineering Approaches to Groundwater Modeling Conceptual Model.
Warmup Which substance takes longer to heat up?
Hydrology CIVL341.
11: Ground Water Hydrogeology: The study of
Groundwater Where does the water go?.
Change in fresh water inflow from glaciers and rivers
Hydrology CIVL341 Introduction
The Hydrologic Cycle and Groundwater
Chapter Four RUNOFF When a storm occurs, a portion of rainfall infiltrates into the ground and some portion may evaporate. The rest flows as a thin sheet.
Presentation transcript:

WORLD MAP OF HYDROGEOLOGICAL CONDITIONS AND GROUNDWATER FLOW ROALD DZHAMALOV and IGOR ZEKTSER head of Labs, Water Problems Institute, Russian Academy Sciences, Moscow, Russia

World Map of Hydrogeological Conditions and Groundwater Flow Digital World Map of Hydrogeological Conditions and Groundwater Flow Version 2.0; Vertical Scale 1: Compiled by the Water Problems Institute of the Russian Academy of Sciences Under UNESCO Supervision EDITORS-IN-CHIEF Roald G. Dzhamalov and Igor S. Zektser EDITORIAL BOARD A. Aureli (Italy), H. Bitesnik (Argentina), N. da Franca (Brazil), I. V. Diordiev (Russia), L. G. Everett (USA), V Gilbrich (UNESCO), J. Jacobson (Australia), R. A. Kanivetsky (USA), M. G. Khublaryan (Russia), V. A. Kiryukhin (Russia), J. Margat (France), N. A. Marinov (Russia), A. Mente (Brazil), L. P. Novoselova (Russia), V. Ramnarong (Thailand), T. I. Safronova (Russia), B. B. S. Singhal (India), S. Soekiban (Indonesia), W. Struckmeier (Germany), A. Valdes (Cuba), V. A. Vsevolozhsky (Russia), S. Wongsawat (Thailand) AUTHORS R. G. Dzhamalov, I. V. Diordiev, I. S. Zektser, V. A. Ivanov, N. A. Lebedeva, V I. Nikonova, Yu. L. Obyedkov, T. I. Safronova, T.N.Sorokina. CARTHOGRAPHERS Z. G. Golubeva and L. Ya. Gervits CONSULTANTS S. C. Csallany, B. Magyar, J. Stickel, T. Toth

Particularities of mapping and presentation of main hydrogeological information and groundwater flow parameters on the Map. World Map of Hydrogeological Conditions and Groundwater Flow is a special, thematic hydrogeological map whose main content is information on the distribution of several quantitative characteristics of groundwater runoff as well as geological and hydrogeological conditions of groundwater generation. World Map of Hydrogeological Conditions and Groundwater Flow grants a possibility, on a quantitative basis, to solve important practical problems of integrated use and protection of water resources over all studied regions of the World.

In small-scale mapping of hydrogeological conditions and groundwater flow, distinguishing aquifers and aquifer systems is a severe problem. Therefore the authors of the Map, having extensive experience in mapping, have come to a conclusion that it is necessary to distinguish principal groundwater flow media-types of rocks with common conditions of generation and spatial distribution of water- conducting properties. A groundwater flow medium type is determined by the genesis of water-enclosing rocks or the genetic type of open space (pore, fracture, karst and other media); a groundwater flow medium subtype is determined by processes (generating conditions), controlling the character and extent of the non-uniformity of medium permeability. Four principal types of groundwater flow media are shown on the Map. a)sedimentogenic - pore, b)sedimentogenic - fracture, c)karst and d)magmatogenic – metamorphogenic

Groundwater flow or runoff is groundwater discharge provided by its replenishment (recharge) under natural conditions. In many cases for mean annual assessment groundwater flow (runoff) value equals so-called natural groundwater resources, namely that part of total groundwater resources which renews from year to year in result of natural recharge. Groundwater flow quantitatively may be expressed by several specific values or characteristics.  groundwater flow modules - average annual or minimal groundwater discharge in liters per second per square kilometer or in cubic meter per day per square kilometer, in /1/s km 2 or m/day km 2 ;  groundwater flow coefficient - ratio between groundwater flow and precipitation, in percentage;  coefficient of groundwater contribution to river runoff – ratio between groundwater flow to river to total river runoff, in percentage. It is important to emphasize that on the Map, represented special conditions of groundwater flow generation, affected by human activities, intensive karstification, sea water intrusion areas of surface runoff engulfing in river channels crossing rift zones and regional faults, occurrence of semipermeable rocks, etc.

Legend of World Map (part)

WORLD MAP OF HYDROGEOLOGICAL CONDITIONS AND GROUNDWATER FLOW (fragment) 1:

The Map makes it possible to assess: a)Groundwater runoff and natural fresh groundwater resources for characterization of water availability in individual regions of the World; b)Groundwater discharge to rivers for determining the subsurface component of river runoff (base flow) and prediction of its possible variation under the effect of groundwater development; c)Groundwater recharge values for regional evaluation of the safe yield and making water-resources balances of economic regions and the so-called natural-and- territorial complexes; d)Groundwater discharge amount as an element of the water balance of the country areas and its separate regions; and e)Direct groundwater discharge to seas and oceans.

Present-day Water Resources Availability of Continents КонтинентПлощадь, млн. км 2 Водные ресурсы, км3/годВодообес- печенность, тыс. м 3 на 1 км 2 Средне многоле тняя величин а (речной сток) подзем ные воды Отношение ресурсов подземных вод к речному стоку, % Европа Сев. Америка Юж. Америка Азия Африка Австралия и Океания Вся суша

Present-day and Modeling Runoff of Main Rivers in the World, 10 3 cub.m/s А. Высокие широтыРасходы в ХХ веке Прогнозные расходы для середины ХХI века Изменения, в % 1. Юкон % 2.Макензи % 3. Енисей % 4. Лена % 5. Обь % Б. Средние широты 6. Рейн % 7. Волга % 8. Дунай/Днепр % 9. Колумбия % 10. Св. Лаврентия % 11. Миссисипи % 12.Амур % 13. Хуан Хе % 14. Чанг Джиган % 15. Замбези % 16. Парана/Уругвай % В. Низкие широты 17. Амазонка % 18. Ориноко % 19. Ганг/Брахмапутра % 20. Конго % 21. Нил % 22. Меконг %

Water Resources Changes in Different Russian Regions in Экономические районы Средние многолет ние значения, км 3 Среднее за гг., км 3 Отклонение от среднего многолетнего, % Северный_ ,5 Северо-западный90,2_96,1_+6,3 Центральный Волго-Вятский153_174+12,1 Центрально- Черноземный 20,9_20,2-3,5 Поволжский ,7 Северо- Кавказский 71,073,0+2,7 Уральский ,5 Западно- Сибирский ,0 Восточно- Сибирский ,7 Дальневосточный ,2 Калининградская обл. 23,122,6-2,3 Россия в целом ,4

Река, створСредние многолет ние значения, км 3 Среднее за гг., км 3 Отклонение от среднего многолетнего, % Нева - устье74,377,4+4,2 Днепр - Смоленск 3,03,2+6,0 Дон - Раздорская 25,322,7-10,1 Кубань - устье13,012,4-4,8 Волга - Лебяжье ,9 Урал - Кушум9,712,4+27,5 Северная Двина - устье ,4 Печора - устье ,5 Обь - Салехард ,5 Енисей - Игарка ,8 Лена - устье ,9 Амур - Комсомольск ,2 Changes in Runoff of Main Russian Rivers in