Verwandte Artikel zu Humic Substances: Structures, Models and Functions...

Humic Substances: Structures, Models and Functions (Special Publications) - Hardcover

 
9780854048113: Humic Substances: Structures, Models and Functions (Special Publications)

Inhaltsangabe

Humic substances, the remarkable brown biomaterials in animals, coals, plants, sediments, soils and waters, are crucial components of the carbon cycle and other life processes. Thus greater knowledge and understanding of these versatile materials is of great importance to the productivity, health and safety of the world's ecosystems, humans, land and water. Presenting the best and most recent research in this important area, this book focuses on the molecular and chemical aspects of humic substances, with sophisticated analytical, chemical and physical techniques providing vital information. Areas covered include spectroscopy, modelling, mobility, properties and analysis of humic substances. Humic Substances: Structures, Models and Functions will be welcomed by researchers and professionals in academia, industry and government agencies worldwide, particularly where the science of humic substances finds applications, such as environmental remediation and sustainable agriculture.

Die Inhaltsangabe kann sich auf eine andere Ausgabe dieses Titels beziehen.

Auszug. © Genehmigter Nachdruck. Alle Rechte vorbehalten.

Humic Substances

Structures, Models and Functions

By Elham A. Ghabbour, Geoffrey Davies

The Royal Society of Chemistry

Copyright © 2001 The Royal Society of Chemistry
All rights reserved.
ISBN: 978-0-85404-811-3

Contents

History, Philosophy and Spectroscopy,
An Organic Matter Trail: Polysaccharides to Waste Management to Nitrogen/Carbon to Humic Substances C. Edward Clapp, 3,
The Principles of Humic Substances: An Introduction to the First Principle Patrick MacCarthy, 19,
NMR Characterisation of the Mobile Components in Intact Green and Senescent Leaves as a Means of Studying the Humification Process Robert Wershaw and Igor Goljer, 31,
Carbon Group Chemistry of Humic and Fulvic Acid: A Comparison of C-1s NEXAFS and 13C-NMR Spectroscopies A.C. Scheinost, R. Kretzschmar, I. Christl and Ch. Jacobsen, 39,
Data, Mobility and Stability,
Aspects of Measurement of the Hydrodynamic Size and Molecular Mass Distribution of Humic and Fulvic Acids Manfred Worf; Gunnar Buckau, Horst Gekeis, Ngo Man Thang, Enamul Hoque, Wilfried Szymczak and Jae-I1 Kim, 51,
Solid State NMR Evidence for Multiple Domains in Humic Substances Amrith S. Gunasekara, L. Charles Dickinson und Baoshan Xing, 63,
Investigation of Molecular Motion of Humic Acids with 1-D and 2-D Solution NMR Kaijun Wang, L. Charles Dickinson, Elham A. Ghabbour, Geoffrey Davies and Baoshan Xing, 73,
Variation of Free Radical Concentration of Peat Humic Acid by Methylations T. Shinozuka, Y. Enomoto, H. Hayashi, H. Andoh and T. Yamaguchi, 83,
Studies of the Structure of Humic Substances by Electrospray Ionization Coupled to a Quadrupole-Time of Flight (Qq-TOF) Mass Spectrometer Robert W. Kramer, Elizabeth B. Kujawinski, Xu Zang, Kari B. Green-Church, R. Benjamin Jones, Michael A. Freitas and Patrick G. Hatcher, 95,
Capillary Electrophoresis of Humic Substances in Physical Gels M De Nobili, G. Bragato and A. Mori, 109,
Are There Humic Acids in Antarctica? D. Gajdosová, L. Pokorná, P. Prosek, K. Láska and J. Havel, 121,
The Stability of Humic Acids in Alkaline Media L. Pokorná, D. Gajdosová, S. Mikeska, P. Homolác and J. Havel, 133,
Masses, Similarities and Properties,
Proton and Metal Cation Binding to Humic Substances in Relation to Chemical Composition and Molecular Size Ruben Kretzschmar and Iso Christl, 153,
Characterization of Trace Metals Complexed to Humic Acids Derived from Agricultural Soils, Annelid Composts and Sediments by Flow Field-Flow Fractionation-Inductively Coupled Plasma-Mass Spectrometry (Flow FFF-ICP-MS) Thomas Anderson, Laura Shifley, Dula Amarasiriwardena, Atitaya Siripinyanond, Baoshan Xing and Ramon M. Barnes, 165,
Apparent Size Distribution and Spectral Properties of Natural Organic Matter Isolated from Six Rivers in Southeastern Georgia, USA J.J. Alberts, M. Takács, M McElvaine and K. Judge, 179,
Models and Theories,
Molecular Modeling of Humic Structures A. G. Bruccoleri, B. T. Sorenson and C.H. Langford, 193,
Modeling of Molecular Interactions of Soil Components with Organic Compounds G. Haberhauer, A.J.A. Aquino, D. Tunega, M.H. Gerzabeck and H. Lischka, 209,
Binding of Hydrophobic Organic Compounds to Dissolved Humic Substances: A Predictive Approach Based on Computer Assisted Structure Elucidation, Atomistic Simulations and Flory-Huggins Solution Theory Mamadou S. Diallo, Jean-Loup Faulon, William A. Goddard III and James H. Johnson, Jr., 221,
Images, Oxidation and Humification,
Atomic Force Microscopy (AFM) Study of the Adsorption of Soil HA and Soil FA at the Mica-Water Interface A.-M Tugulea, D.R. Oliver, D.J. Thompson and F.C. Hawthorne, 241,
The Influence of Catechol Humification on Surface Properties of Metal Oxides C. Liu and P.M. Huang, 253,
Spectroscopic Evaluation of Humin Changes in Response to Soil Managements Guangwei Ding, Jingdong Mao, Stephen Herbert, Dula Amarasiriwardena and Baoshan Xing, 271,
Effects of Clear Cutting on Structure and Chemistry of Soil Humic Substances of the Hubbard Brook Experimental Forest, New Hampshire, USA David A. Ussiri and Chris E. Johnson, 281,
Significance of Burning Vegetation on the Formation of Black Humic Acids in Japanese Volcanic Ash Soils H. Shindo and H. Honma, 297,
Organic Ores and Analysis of Commercial HSs,
Leonardite and Humified Organic Matter D.M. Ozdoba, J. C. Blyth, R.F. Engler, H. Dinel and M. Schnitzer, 309,
Some Chemical and Spectroscopic Characteristics of Six Organic Ores M Schnitzer, H. Dinel, T. Paré, H.-R. Schulten and D. Ozdoba, 315,
Interpretation by Principal Component Analysis of Pyrolysis-Field Ionization Mass Spectra of Lignite Ores H. Dinel, M Schnitzer, T. Paré, H.-R. Schulten, D. Ozdoba and T. Marche, 329,
A Comparative Evaluation of Known Liquid Humic Acid Analysis Methods A.K. Fataftah, D.S. Walia, B. Gains and S.I. Kotob, 337,
Plant Growth Stimulation and Antimutagenesis,
Response of Alfalfa to Calcium Lignite Fertilizer T. Paré, M. Saharinen, M.J. Tudoret, H. Dinel, M. Schnitzer and D. Ozdoba, 345,
Effects of Humic Acids and Nitrogen Mineralization on Crop Production in Field Trials Mir-M Seyedbagheri and James M. Torell, 355,
Antimutagenic and Antitoxic Actions of Humic Substances on Seedlings of Monocotyledon and Dicotyledon Plants Guiseppe Ferrara, Elisabetta Loffredo and Nicola Senesi, 361,
Subject Index, 373,


CHAPTER 1

AN ORGANIC MATTER TRAIL: POLYSACCHARIDES TO WASTE MANAGEMENT TO NITROGEN/CARBON TO HUMIC SUBSTANCES


C. Edward Clapp

USDA-ARS, Department of Soil, Water & Climate, University of Minnesota, St. Paul, MN 55108


1 INTRODUCTION

A farm boy from Princeton, MA went to the University of Massachusetts to study chemistry and learn how to make dynamite. After 4 years with a chemistry major and agronomy minor he proceeded to Cornell University to become a soil biochemist. This paper represents a summary of the research and experiences initiated in 1952 under the guidance and direction of Professor Jeffrey Earl Dawson, who started me on the way along the Organic Matter Trail. Jeff was an outstanding teacher and researcher who thought thermodynamically and later became a true friend and colleague. His life and career were cut short due to health complications, and he passed away at age 49. This paper is dedicated to his memory. Along with the highlights of research on organic matter, many references will be made to the people, colleagues and friends who influenced the Trail throughout the years.


2 AN ORGANIC MATTER TRAIL

The Organic Matter Trail started for the author in the Organic Soils Laboratory of the Department of Agronomy at Cornell University in Ithaca, NY in June 1952. After M.S. and Ph.D. degrees were completed, the trail led to Beltsville, MD in October 1956 with the Soil and Water Conservation Research Division (SWCRD) of USDA-ARS. Work on soil and rhizobial polysaccharides was carried out to study aggregate stabilization. After 5 years, a transfer of the organic matter/soil structure project to the Cornbelt Branch of the SWCRD in the Department of Soil Science at the University of Minnesota was completed in May 1961. In August, a visiting scientist arrived from Australia to spend a year investigating organic matter and soil crumbs. This work continued with students and other support for 10 years. When funding for basic research became difficult to justify, a call was issued for more practical and field-oriented projects....

„Über diesen Titel“ kann sich auf eine andere Ausgabe dieses Titels beziehen.