did-you-know? rent-now

Amazon no longer offers textbook rentals. We do!

did-you-know? rent-now

Amazon no longer offers textbook rentals. We do!

We're the #1 textbook rental company. Let us show you why.

9780444815460

Isotope Tracers in Catchment Hydrology

by ;
  • ISBN13:

    9780444815460

  • ISBN10:

    0444815465

  • Format: Hardcover
  • Copyright: 1998-11-01
  • Publisher: Elsevier Science Ltd

Note: Supplemental materials are not guaranteed with Rental or Used book purchases.

Purchase Benefits

  • Free Shipping Icon Free Shipping On Orders Over $35!
    Your order must be $35 or more to qualify for free economy shipping. Bulk sales, PO's, Marketplace items, eBooks and apparel do not qualify for this offer.
  • eCampus.com Logo Get Rewarded for Ordering Your Textbooks! Enroll Now
  • Complimentary 7-Day eTextbook Access - Read more
    When you rent or buy this book, you will receive complimentary 7-day online access to the eTextbook version from your PC, Mac, tablet, or smartphone. Feature not included on Marketplace Items.
List Price: $277.95 Save up to $102.85
  • Rent Book $175.10
    Add to Cart Free Shipping Icon Free Shipping

    TERM
    PRICE
    DUE

    7-Day eTextbook Access 7-Day eTextbook Access

    USUALLY SHIPS IN 3-5 BUSINESS DAYS
    *This item is part of an exclusive publisher rental program and requires an additional convenience fee. This fee will be reflected in the shopping cart.

Supplemental Materials

What is included with this book?

Table of Contents

PART I. BASIC PRINCIPLES
Fundamentals of Small Catchment Hydrology
1(50)
J.M. Buttle
Introduction to Small Catchments
1(1)
The Catchment Water Balance
1(32)
General components of the water balance
1(1)
Precipitation, interception, net precipitation
2(8)
Snowmelt
10(1)
Infiltration and soil water storage
11(8)
Evaporation and evapotranspiration
19(5)
Storage in lakes, wetlands and stream channels
24(2)
Runoff outputs via streamflow
26(1)
Mechanisms of stormflow generation
27(5)
Groundwater flow
32(1)
Questions of Spatial and Temporal Scale in Catchment Hydrology
33(2)
Use of Isotopes in Catchment Research
35(7)
Evaporation, evapotranspiration, interception
36(1)
Pore-water mixing (the mobile-immobile water issue)
37(1)
Soil and groundwater recharge rates
38(1)
Soil water, groundwater and surface water residence times
39(1)
Storm runoff components
40(1)
Water sources versus water flowpaths
41(1)
Sources of solutes
42(1)
New Research Directions
42(1)
Summary
43(8)
Fundamentals of Isotope Geochemistry
51(36)
C. Kendall
E.A. Caldwell
Introduction
51(2)
Fundamentals of Isotope Geochemistry
53(4)
Definitions
53(2)
Terminology
55(1)
Standards
56(1)
Stable Isotope Fractionation
57(15)
Properties of isotopic molecules
57(1)
Fractionation accompanying chemical reactions and phase changes
57(4)
The Rayleigh equations
61(1)
Isotopic fractination in open and closed systems
61(9)
Biological fractionations
70(2)
Sample Collection, Analysis, and Quality Assurance
72(6)
Sampling guidelines
72(3)
Analytical methods and instrumentation
75(2)
Quality assurance of contract laboratories
77(1)
Applications of Isotope Tracers in Catchment Hydrology
78(6)
Water isotope hydrology
79(1)
Solute isotope biogeochemistry
79(1)
Mixing
80(2)
Isotopically labeled materials
82(1)
Stable isotopes in geochemical modeling
82(1)
Use of a multi-isotope approach for the determination of flowpaths
83(1)
Summary
84(3)
PART II. PROCESSES AFFECTING ISOTOPIC COMPOSITIONS
Isotopic Variations in Precipitation
87(32)
N.L. Ingraham
Introduction
87(4)
Global hydrologic cycle
88(3)
Natural Fractionation of Isotopes in Precipitation
91(3)
Co-variance of hydrogen and oxygen isotopes in precipitation
91(3)
Systematics of Isotope Variations in Precipitation
94(14)
System fractionation
94(2)
Unique types of precipitation
96(4)
Observed effects
100(3)
Temporal variation in precipitation
103(1)
Geographic variation in precipitation in convective systems
104(1)
Continental effect in precipitation
104(2)
Dependence of rain on ambient temperature
106(1)
Exchange with atmospheric vapor
106(2)
Evaporation on the canopy
108(1)
Mesoscale Circulation and Storm Trajectories
108(2)
Tritium
110(3)
Origin
110(1)
Recent elevated levels and decline
111(1)
Observed terrestrial and marine distributions
112(1)
Uses of tritium in catchment basin research
112(1)
Implications for Catchment Basin Research
113(2)
Scale issues
113(1)
Sample collection
113(2)
Summary
115(4)
Isotopic Fractionation in Snow Cover
119(18)
L.W. Cooper
Introduction
119(1)
Isotopic Changes to a Snowpack
120(11)
Changes during snow accumulation
120(3)
Changes during snowmelt
123(5)
Isotopic water balance and evaporation
128(1)
Catchment scale and runoff considerations
129(2)
Future Directions for Research
131(6)
Isotopic Exchange in Soil Water
137(28)
C.J. Barnes
J.V. Turner
Introduction
137(2)
General discussion of isotopes
137(1)
Analytical considerations
138(1)
Soil-water extraction techniques
139(1)
Processes Leading to Soil Water Concentration Variations: Meteorological Inputs
139(2)
Processes Leading to Soil Water Concentration Variations: Evaporation
141(20)
Introduction
141(1)
Saturated soils
142(5)
Unsaturated soils
147(3)
Unsteady evaporation
150(5)
Temperature effects
155(3)
Oxygen-18/deuterium relationship
158(3)
Further modifications due to salinity and transpiration
161(1)
New Research Directions
161(1)
Summary
162(3)
Plants, Isotopes and Water Use: A Catchment-Scale Perspective
165(38)
T.E. Dawson
J.R. Ehleringer
Introduction
165(2)
Plants and catchment-level processes
165(1)
Working premise concerning plants, isotopes and water use
166(1)
Water Uptake and Water Transport in Plants
167(6)
Background
167(2)
Measurements of water uptake and transport by plants
169(4)
Stomatal Regulation of Water Movement in the Soil-Plant-Atmosphere Continuum
173(4)
Water movement and the regulatory role of plants: the leaf-level
173(2)
Water movement and the regulatory role of plants: the stand-level
175(2)
Water Sources and Water Use by Plants: Case Studies Using Stable Isotopes
177(11)
Riparian forest communities
178(1)
Arid and semi-arid plant communities
179(1)
Temperate forest communities
180(6)
Coastal plant communities
186(2)
Current Issues Involving Plants and Catchment-Scale Hydrologic Processes
188(4)
Invasive plants and site water balance
188(1)
Stream diversions and riparian manipulations
189(1)
Deforestation, reforestation and desertification
190(2)
Long-term Record of Water Use by Plants
192(2)
Merging the Study of Stable Isotopes in Water with Studies of Water Uptake and Water Use in Plants and the Hydrology of Catchments
194(9)
Isotopes in Groundwater Hydrology
203(44)
R. Gonfiantini
K. Frohlich
L. Araguas-Araguas
K. Rozanski
Introduction
203(1)
Isotopic Variations in Waters Recharging the Aquifers
204(3)
The isotopic composition of precipitation
204(2)
The isotopic composition of surface waters
206(1)
Isotopic Effects in the Unsaturated Zone
207(4)
Mechanisms of infiltration
207(1)
Water movement in the unsaturated zone
207(2)
Dissolution processes
209(2)
Shallow Aquifers
211(14)
Recharge by precipitation
211(3)
Recharge from surface waters
214(3)
Hydrodynamical models of shallow groundwater systems based on isotopic data
217(8)
Deep Groundwater
225(9)
Groundwater movement in confined aquifers
225(1)
Groundwater age
225(8)
Interconnections between aquifers
233(1)
Geothermal groundwaters
234(1)
Groundwater Studies in Catchments
234(13)
Present situation and case study examples
234(4)
Research trends and needs
238(9)
Lithogenic and Cosmogenic Tracers in Catchment Hydrology
247(44)
G.J. Nimz
Introduction
247(1)
Processes that Affect Lithogenic and Cosmogenic Isotopic Compositions in Hydrologic Systems
248(14)
Lithogenic and cosmogenic solutes used in hydrologic analysis
248(1)
Origin of lithogenic nuclides in natural waters: mineral reactions
248(1)
Origin of lithogenic nuclides in natural waters: trace element exchange
249(2)
Origin of isotopic variations: radiogenic nuclides
251(2)
Origin of isotopic variations: the mineral weathering sequence
253(2)
Origin of isotopic variations: uranium isotopes and alpha recoil
255(2)
Origin of isotopic variations: cosmogenic nuclides
257(1)
Origin of isotopic variations: fission products
258(1)
Hydrologic application of cosmogenic nuclides
259(3)
The Application of Lithogenic and Cosmogenic Nuclides to Catchment Hydrology
262(15)
Input: precipitation, dry deposition, and throughfall
263(3)
The shallow system: hydrograph separation, weathering, and arid-region infiltration
266(6)
Evaporation/transpiration
272(1)
The deep system: groundwater flow
272(2)
System (basin) closure: mixing of water masses
274(2)
Streamflow: mass balance within the catchment
276(1)
Lithogenic and cosmogenic nuclides: summary
276(1)
New Directions in Lithogenic and Cosmogenic Nuclides
277(4)
The other geologic giant: neodymium
277(1)
Lithogenic elements with fractionating isotopes
278(2)
New directions in catchment hydrology for cosmogenic nuclides
280(1)
Lithogenic and Cosmogenic Tracers in Catchment Hydrology: Concluding Remarks
281(10)
Dissolved Gases in Subsurface Hydrology
291(28)
D.K. Solomon
P.G. Cook
W.E. Sanford
Introduction
291(1)
Occurrence and Transport of Dissolved Gases
291(3)
Shallow Groundwater Dating
294(14)
3H/3He
297(2)
Chlorofluorocarbons
299(3)
85Kr
302(1)
Radiogenic 4He
303(2)
Field examples of groundwater dating
305(3)
Groundwater Surface-Water Interactions
308(1)
4He
308(1)
222Rn
309(1)
Injected Dissolved Gas Tracers
309(4)
Field example: noble gas tracer experiment
311(2)
Future Directions
313(6)
PART III. CASE STUDIES IN ISOTOPE HYDROLOGY
Oxygen and Hydrogen Isotopes in Rainfall-Runoff Studies
319(28)
D.P. Genereux
R.P. Hooper
Introduction
319(1)
Hydrograph Separation
320(19)
Terminology
320(1)
Requirements and assumptions in hydrograph separation
321(1)
Findings and examples
321(9)
Scale dependence of ƒpe values
330(2)
Intra-component variability in tracer concentrations
332(6)
Recommendations for field studies
338(1)
New Directions
339(4)
Subsurface mixing and residence time
339(2)
Use of isotopes in model calibration
341(2)
Conclusions
343(4)
High Rainfall, Response-Dominated Catchments: A Comparative Study of Experiments in Tropical Northeast Queensland with Temperate New Zealand
347(44)
M. Bonell
C.J. Barnes
C.R. Grant
A. Howard
J. Burns
Introduction
347(1)
Previous Studies in High Rainfall, Response-Dominated Catchments
348(1)
The Maimai catchments
348(1)
Linkages between the Maimai and Babinda studies
349(1)
Physical Background
349(4)
Experimental Methods
353(2)
Precipitation
353(1)
Streamflow
353(1)
Hillslope instrumentation
354(1)
Results: Event of February 16, 1991
355(13)
Antecedent catchment storage and rainfall-runoff of sample storm
355(5)
Matric and hydraulic potential changes on sample slope transects
360(6)
Hydrograph analysis
366(2)
Stream Hydrograph Analysis and Isotopic Response
368(11)
Event analysis-general considerations
368(2)
Soil and groundwater isotopic changes
370(9)
How High Rainfall Catchments Work
379(6)
The Babinda model
379(3)
The secondary store issue
382(1)
New water dominance at Babinda vs old water dominance at Maimai
383(2)
Future Research Directions
385(6)
Snowmelt-Dominated Systems
391(44)
A. Rodhe
Introduction
391(8)
Basic hydrological processes
392(5)
Global geographical distribution
397(1)
Isotopic characteristics of snowmelt
397(2)
Hydrograph Separation Studies
399(19)
Historical studies
399(2)
Recent studies with more complete characterization
401(17)
Vertical Unsaturated Flow
418(11)
Estimates of groundwater recharge and particle velocity
419(1)
Piston flow versus macropore flow
420(2)
Transit times and flow pattern from lysimeter studies
422(4)
Flow pattern in two and three dimensions
426(3)
Implications for catchment flow studies
429(1)
Conclusions and Future Research Directions
429(6)
Arid Catchments
435(32)
N.L. Ingraham
E.A. Caldwell
B.Th. Verhagen
Introduction
435(2)
The Use of Isotopes in Arid Catchment Studies
437(16)
Precipitation
437(3)
Lakes
440(1)
Rivers
441(2)
Rivers displaying isotopic enrichment
443(3)
Rivers without isotopic enrichment
446(1)
Soil water
446(1)
Infiltration and recharge in arid regions
447(4)
Groundwater
451(1)
The `d' value in arid groundwater
452(1)
Sampling
453(2)
Precipitation
454(1)
Surface water
454(1)
Soil water
455(1)
Non-Traditional Techniques
455(5)
Strontium
456(1)
3He/Tritium
457(1)
Chlorine-36
458(1)
Noble Gases
459(1)
Chlorofluorocarbons
460(1)
Future Directions
460(7)
Groundwater and Surface-Water Interactions in Riparian and Lake-Dominated Systems
467(22)
J.F. Walker
D.P. Krabbenhoft
Introduction
467(2)
Importance of lake-dominated systems
467(1)
Dominant hydrological processes
467(2)
Previous Studies in Lake Systems
469(1)
Estimating Groundwater Exchange with Lakes
470(8)
Stable-isotope mass-balance method
471(3)
Index-lake method
474(4)
Wisconsin WEBB Case Study
478(8)
Study area
478(2)
Study design
480(2)
Isotopic flow-system progression
482(2)
Isotopic complexity
484(2)
Concluding Remarks
486(3)
PART IV. CASE STUDIES IN ISOTOPE GEOCHEMISTRY
Use of Stable Isotopes in Evaluating Sulfur Biogeochemistry of Forest Ecosystems
489(30)
M.J. Mitchell
H.R. Krouse
B. Mayer
A.C. Stam
Y. Zhang
Introduction: Forest Ecosystem Sulfur Dynamics
489(2)
Controls on Sulfur Isotope Composition
491(9)
Isotope fractionation
492(3)
Atmospheric sources of sulfur
495(1)
Geological sources of sulfur
495(2)
Sulfur isotopes in the hydrosphere
497(2)
Sulfur isotopes in soil and terrestrial vegetation
499(1)
Natural Abundance Studies
500(8)
Hubbard Brook Experimental Forest, New Hampshire
500(2)
Bear Brook Watershed, Maine
502(3)
Experimental Lakes Area, Ontario, Canada
505(1)
Rocky Mountains, Colorado and Wyoming
505(2)
Black Forest, Germany
507(1)
Applied Tracer Studies
508(6)
Hubbard Brook Experimental Forest, New Hampshire
508(2)
Bear Brook Watershed, Maine
510(1)
West Whitecourt, Alberta, Canada
511(1)
Bavaria, Germany
512(1)
Hoglwald, Germany
512(1)
Black Forest, Germany
513(1)
Skjervatjern Catchment, Norway
514(1)
Lake Gardsjon Catchment, Sweden
514(1)
New Research Directions
514(1)
Summary
515(4)
Tracing Nitrogen Sources and Cycles in Catchments
519(58)
C. Kendall
Introduction
519(4)
Fundamentals of nitrogen isotopes
520(1)
Methods
520(3)
The Nitrogen Cycle
523(8)
Isotopic fractionations
523(3)
Processes affecting N isotopic compositions
526(5)
δ15N Values of Nitrogen Sources and Reservoirs
531(7)
Atmospheric sources
532(2)
Fertilizers
534(1)
Animal waste
534(1)
Plants
534(1)
Soils
535(2)
Groundwaters
537(1)
δ18O Values of Nitrate Sources and Reservoirs
538(7)
Atmospheric nitrate
539(3)
Synthetic fertilizers and reagents
542(1)
Microbial nitrate
542(3)
Other processes affecting nitrate δ18O values
545(1)
Tracing Sources and Cycling of Nitrate
545(7)
Mixing
547(1)
Denitrification
548(4)
Application Studies
552(11)
Agricultural and urban sources of nitrate
552(4)
Sources of N in acid-rain affected forested catchments
556(4)
Nitrogen-limited systems
560(1)
Labeled-tracer studies
560(2)
Food web studies
562(1)
New Frontiers
563(6)
Applications of the dual isotope method
564(1)
Tracing sources and sinks for DOM
564(1)
Applications of compound-specific isotope ratio mass spectrometry
565(1)
Use of isotopic techniques to assess impacts of changes in land-management practices and landuse on water quality
566(2)
Use of a multi-isotope or multi-tracer approach
568(1)
Development of linked hydrologic/geochemical models
568(1)
Summary
569(8)
Carbon Cycling in Terrestrial Environments
577(34)
Y. Wang
T.G. Huntington
L.J. Osher
L.I. Wassenaar
S.E. Trumbore
R.G. Amundson
J.W. Harden
D.M. McKnight
S.L. Schiff
G.R. Aiken
W.B. Lyons
R.O. Aravena
J.S. Baron
Introduction
577(1)
Carbon Isotopes and Terminology
578(2)
Carbon Dynamics in Soils
580(15)
14C age of soil organic matter
581(4)
Use of 14C to study C turnover in soils
585(5)
The use of 13C to study C turnover in soils
590(3)
Use of carbon isotopes in understanding carbon dynamics in peatlands
593(2)
Isotope Studies of Dissolved Organic Matter in Groundwater
595(5)
Stable carbon isotopes
598(1)
Nitrogen, sulfur and hydrogen isotopes
599(1)
Radiocarbon in DOC
599(1)
Isotope Study of DOC in Lacustrine Environments
600(2)
Isotope Studies and the Carbon Budget
602(9)
Tracing of Weathering Reactions and Water Flowpaths: A Multi-Isotope Approach
611(36)
T.D. Bullen
C. Kendall
Introduction
611(8)
Rationale for using water and solute isotopes as tracers in catchments
611(2)
Theoretical bases of the strontium, lead and carbon isotope systems
613(5)
Geological/environmental factors leading to successful tracing with solute isotopes
618(1)
Influences on Isotopic Composition of Sr, Pb and C in Catchment Waters
619(8)
Lithologic controls on the isotopic composition of strontium and lead
619(5)
Atmospheric/anthropogenic inputs of Sr, Pb, and C
624(1)
Effects of organic and inorganic cycling on isotopic composition of carbon
625(2)
Multi-Isotope Studies at Selected Watersheds
627(13)
The combined use of O, H and Sr isotopes to understand differences in chemical evolution along different flowpaths in a sandy aquifer in northern Wisconsin
627(3)
Sr, Pb and C isotopes as surrogate tracers of water movement at a catchment nested in calc-silicate rocks, Sleepers River, Vermont
630(5)
C and Sr isotopes as tracers of sources of carbonate alkalinity at Catoctin Mountain, Maryland
635(3)
Synthesis: an isotopic view of a catchment
638(2)
Additional Solute Isotope Tracers: Li, B, Fe
640(3)
Summary
643(4)
Erosion, Weathering, and Sedimentation
647(32)
P.R. Bierman
A. Albrecht
M.H. Bothner
E.T. Brown
T.D. Bullen
L.B. Gray
L. Turpin
Introduction
647(1)
In Situ Produced Cosmogenic Nuclides
648(7)
Cosmogenic nuclides in exposed outcrops
648(2)
Cosmogenic nuclides in sediments
650(2)
Case studies
652(3)
Atmospheric Nuclides: 210Pb
655(4)
Methods
656(2)
Interpretation
658(1)
Applications
659(1)
Combined Approaches To Catchment Landscape Analysis: 137Cs and 210Pb
659(7)
Lake sediments
660(1)
Soils
661(1)
Water Samples
662(1)
Case studies
662(4)
Tracing of Sediment Sources and Identification of Erosion Processes Using Natural and Anthropogenic Radionuclides
666(4)
Nuclides of importance
667(1)
Case studies
668(2)
Sr and Weathering
670(9)
Weathering and 87Sr/86Sr
670(2)
Typical 87Sr/86Sr ratios
672(1)
Sr isotopes as tracers of solute sources
672(7)
Applications of Uranium-and Thorium-Series Radionuclides in Catchment Hydrology Studies
679(44)
T.F. Kraemer
D.P. Genereux
Introduction
679(1)
Review of Fundamental Concepts
680(8)
Decay chains and radioactive equilibrium
680(1)
Physical and chemical processes that redistribute U and Th series radionuclides
681(7)
Radon Techniques in Catchment Hydrology
688(17)
General considerations, mixing models
688(1)
Mixing model without correction for volatilization
689(2)
Mixing model with degassing correction through stagnant film model
691(4)
Mixing model with degassing correction through an injected tracer
695(4)
Mixing model, with partitioning of water inflow into different sources
699(6)
Radium Isotopic Techniques in Catchment Hydrology
705(14)
General considerations
705(1)
Radium as a tracer for groundwater input to an estuary system
705(4)
Use of 228Ra and 226Ra in quantifying groundwater input to a stream: conservative mixing
709(4)
Use of 228Ra and 226Ra in quantifying groundwater input to a stream: non-conservative mixing
713(1)
Use of 228Ra and 226Ra in quantifying three end-member conservative mixing
714(2)
Using 224Ra and 228Ra to determine residence time of water in short-residence time reservoirs
716(2)
Using radium isotopes to identify the source of water issuing from springs
718(1)
New Research Directions
719(4)
PART V. SYNTHESIS
Modeling of Isotopes and Hydrogeochemical Responses in Catchment Hydrology
723(38)
J.V. Turner
C.J. Barnes
Introduction
723(4)
Some definitions and terms
726(1)
Limitations of the Mass Balance Hydrograph Separation Approach
727(5)
Mass balance hydrograph separation models
727(5)
Estimation of Transit Times-System Response Functions of Catchments
732(19)
System response functions
732(1)
System response functions based on the IUH
733(5)
Application of system response functions based on the Instantaneous Unit Hydrograph
738(3)
Identifying ``old'' and ``new'' water in terms of system response functions
741(1)
Time series approaches to system response functions
742(2)
Kalman filtering and residence times
744(7)
Comparisons of Models of Isotopic and Chemical Hydrograph Separation
751(6)
New Research Directions
757(4)
Isotopes as Indicators of Environmental Change
761
J.B. Shanley
E. Pendall
C. Kendall
L.R. Stevens
R.L. Michel
P.J. Phillips
R.M. Forester
D.L. Naftz
B. Liu
L. Stern
B.B. Wolfe
C.P. Chamberlain
S.W. Leavitt
T.H.E. Heaton
B. Mayer
L.D. Cecil
W.B. Lyons
B.G. Katz
J.L. Betancourt
D.M. McKnight
J.D. Blum
T.W.D. Edwards
H.R. House
E. Ito
R.O. Aravena
J.F. Whelan
Introduction
761
Direct and proxy records of environmental change
762
Recent Environmental Change Indicators
763
Groundwater dating
763
Direct use of water isotopes to infer recent global change
765
Changes in land use deduced from tracer studies
766
Isotope tracers for tracking migratory patterns of birds
768
Changes in atmospheric deposition
771
Paleo-Climatic Indicators
776
Groundwater as an archive of paleo-climatic information
776
Continental glaciers
778
Clay minerals, oxides, and hydroxides
780
Pedogenic carbonates
782
Paleoenvironmental reconstruction from stable isotopes in tree rings and plant fossils
785
Lacustrine environments: organics
792
Lacustrine environments: authigenic carbonates
795
Lacustrine environments: ostracodes
799
New Research Directions
802
Summary
803

Supplemental Materials

What is included with this book?

The New copy of this book will include any supplemental materials advertised. Please check the title of the book to determine if it should include any access cards, study guides, lab manuals, CDs, etc.

The Used, Rental and eBook copies of this book are not guaranteed to include any supplemental materials. Typically, only the book itself is included. This is true even if the title states it includes any access cards, study guides, lab manuals, CDs, etc.

Rewards Program