Science Student BOOKS

Structural Bioinformatics 2E by Jenny Gu, and Philip E. Bourne Hardcover - 1,035 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# JW-SST3 $140.00 ADD TO CART Published:  2009   ISBN:  9780470181058

Computation is now an everyday tool used by life scientists to process and make sense of an ever increasing amount of data being accumulated on living systems. These data include the 3-dimensional structures of proteins, DNA, RNA and their complexes. Structural Bioinformatics is the field of study which attempts to make sense of how these complex molecules collectively operate to control all of life’s processes.

The second edition of this successful text expands on the depth and scope of the topic by bringing together many of the world’s experts to provide a view of the current state of the field suitable for advanced undergraduate students, graduate students and beyond.

The book begins with a description of the principles of protein, DNA and RNA structure, the methods used to collect the data, and how the data are represented, visualized and stored. With these prerequisites the comparative analysis of structure reveals classification schemes and how they are used in studies ranging from evolution to structure prediction. The physical properties of structure are explored to understand, for example, how macromolecules move and interact with each other and with ligands, offering insights into how drug discovery is undertaken and how structure can provide the details needed to understand complex molecular interactions important in fields such as immunology and systems biology. Finally, structural genomics reveals insight into the future role of structural bioinformatics where features, including function, are systematically assigned and the structural basis of complete organisms begin to emerge.

Praise for the first edition:

"This book is a gold mine of fundamental and practical information in an area not previously well represented in book form.” Biochemistry and Molecular Education
“... destined to become a classic reference work for workers at all levels in structural bioinformatics....recommended with great enthusiasm for educators, researchers, and graduate students.”
"…a useful and timely summary of a rapidly expanding field." Nature Structural Biology
"...a terrific job in this timely creation of a compilation of articles that appropriately addresses this issue." Briefings in Bioinformatics

Dendrimer Chemistry: Concepts, Syntheses, Properties, Applications by Fritz Vögtle, Gabriele Richardt, Nicole Werner, and A. J. Rackstraw Softcover - 354 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# JW-SST4 $146.35 ADD TO CART Published:  2009   ISBN:  9783527320660

Written by internationally acclaimed authors, this textbook contains everything you need to know about this versatile class of compounds. Starting with a historical overview, definitions and other fundamentals, it goes on to look at characterization, analysis and properties of dendrimers. While the focus is on synthesis and applications, it also contains chapters on analytics and other applications.

Essential reading for organic and polymer chemists, undergraduate and graduate students, students and lecturers in chemistry.

Table of Contents:

HISTORICAL OVERVIEW
DEFINITIONS
SYNTHESIS
FUNCIONAL DENDRIMERS
PHOTOPHYSICS
CHARACTERIZATION AND ANALYSIS
PROPERTIES AND APPLICATIONS

Atmospheric Science for Environmental Scientists by C. Nick Hewitt, and Andrea V. Jackson Softcover - 320 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# JW-SST5 $ 79.95 ADD TO CART Published:  2009   ISBN:  9781405156905

Climate change and air quality are two of the most pressing issues facing Mankind. This book gives undergraduate and graduate students and professionals working in the science and policy of pollution, climate change and air quality a broad and up-to-date account of our understanding of the processes that occur in the atmosphere, how these are changing as Man’s relentless use of natural resources continues and what effects these changes are having on the Earth’s climate and the quality of the air we breath.

Written by an international team of experts, this text gives an excellent overview of our current understanding of the state of the Earth’s atmosphere and how it is changing. It is an invaluable resource for students, teachers and professionals.

Key features:

• End of chapter questions
• Each chapter includes both basic concepts and more in-depth material, allowing faculty to direct students accordingly
• Most up-to-date treatment of key issues such as stratospheric chemistry, urban air pollution, and climate change

Table of Contents:

List of abbreviations, constants and nomenclature

1. The climate of the Earth. John Lockwood
2. The evolution of the Earth’s atmosphere. Richard Wayne
3. Solar energy and atmospheric structure. Hugh Coe
4. Biogeochemical cycles. Dudley Shallcross
5. Tropospheric chemistry and air pollution. Paul Monks
6. Clouds: formation and chemistry. Peter Brimblecombe
7. Particulate matter in the atmosphere. Paul Williams
8. Stratospheric chemistry and ozone depletion. Rob Mackenzie
9. Boundary layer meteorology and atmospheric dispersion. Janet Barlow
10. Urban air pollution. Jes Fenger
11. Climate change and global air pollution. Atul Jain

Appendix: List of websites Index

Understanding Bioanalytical Chemistry: Principles and Applications by Victor Gault, and Neville McClenaghan Softcover - 304 pages Shipped in CLICK HERE  (STOCK LOW) Cat.# JW-SST6 $ 59.95 ADD TO CART Published:  2009   ISBN:  9780470029077

Although chemistry is core to the life and health sciences, it is often viewed as a challenging subject.

Conventional textbooks tend to present chemistry in a way that is not always easily accessible to students, particularly those coming from diverse educational backgrounds, who may not have formally studied chemistry before.

This prompted the authors to write this particular textbook, taking a new, fresh and innovative approach to teaching and learning of chemistry, focussing on bioanalysis to set knowledge in context. This textbook is primarily targeted to undergraduate life and health science students, but may be a useful resource for practising scientists in a range of disciplines.

In this textbook the authors have covered basic principles, terminology and core technologies, which include key modern experimental techniques and equipment used to analyse important biomolecules in diagnostic, industrial and research settings.

Written by two authors with a wealth of experience in teaching, research and academic enterprise, this textbook represents an invaluable tool for students and instructors across the diverse range of biological and health science courses.

Key Features:

• Innovative, stand alone teaching and learning resource to enhance delivery of undergraduate chemistry provision to life and health scientists.
• Develops student knowledge and understanding of core concepts with reference to relevant, real-life, examples.
• Clearly written and user-friendly, with numerous full colour illustrations, annotated images, diagrams and tables to enhance learning.
• Incorporates a modern approach to teaching and learning to motivate the reader and encourage student-centred learning.

Table of Contents:

Contents
Preface

1 Introduction to biomolecules
1.1 Overview of chemical and physical attributes of biomolecules
1.2 Classification of biomolecules
1.3 Features and characteristics of major biomolecules
1.4 Structure–function relationships
1.5 Significance of biomolecules in nature and science
2 Analysis and quantification of biomolecules
2.1 Importance of accurate determination of biomolecules
2.2 Major methods to detect and quantify biomolecules
2.3 Understanding mass, weight, volume and density
2.4 Understanding moles and molarity
2.5 Understanding solubility and dilutions
3 Transition metals in health and disease
3.1 Structure and characteristics of key transition metals
3.2 Importance of transition metals in physiological processes
3.3 Transition metals as mediators of disease processes
3.4 Therapeutic implications of transition metals
3.5 Determination of transition metals in nature
4 Ions, electrodes and biosensors
4.1 Impact of ions and oxidation–reduction reactions on physical and life processes
4.2 pH, biochemical buffers and physiological regulation
4.3 Chemical and physical sensors and biosensors
4.4 Important measurements using specific electrodes
4.5 Specific applications of biosensors in life and health sciences
5 Applications of spectroscopy
5.1 An introduction to spectroscopic techniques
5.2 Major types of spectroscopy
5.3 Principles and applications of ultraviolet/visible spectrophotometry
5.4 Principles and applications of infrared spectroscopy
5.5 Principles and applications of fluorescence spectrofluorimetry
6 Centrifugation and separation
6.1 Importance of separation methods to isolate biomolecules
6.2 Basic principles underlying centrifugation
6.3 Features and components of major types of centrifuge
6.4 Major centrifugation methods for bioanalysis
6.5 Flow cytometry: principles and applications of this core method of separation
7 Chromatography of biomolecules
7.1 Chromatography: a key method for separation and identification of biomolecules
7.2 Principles, types and modes of chromatography
7.3 Applications of chromatography in life and health sciences
7.4 High-performance liquid chromatography and advanced separation technologies
7.5 Additional state-of-the-art chromatography techniques
8 Principles and applications of electrophoresis
8.1 Principles and theory of electrophoretic separation
8.2 Major types of electrophoresis
8.3 Electrophoresis in practice
8.4 Applications of electrophoresis in life and health sciences
8.5 Advanced electrophoretic separation methodologies for genomics and proteomics
9 Applications of mass spectrometry
9.1 Major types of mass spectrometry
9.2 Understanding the core principles of mass spectrometry
9.3 Major types of mass spectrometry in practice
9.4 Mass spectrometry: a key tool for bioanalysis in life and health sciences
9.5 Mass spectrometry: future perspectives
10 Immunochemical techniques and biological tracers
10.1 Antibodies: the keys to immunochemical measurements
10.2 Analytical applications of biological tracers
10.3 Principles and applications of radioimmunoassay (RIA)
10.4 Principles and applications of enzyme-linked immunosorbent assay (ELISA)
10.5 Immunohistochemistry: an important diagnostic tool
11 Bioanalysis by magnetic resonance technologies: NMR and MRI
11.1 Nuclear magnetic resonance (NMR) and magnetic resonance imaging (MRI) technologies: key tools for the life and health sciences
11.2 Principles of NMR and the importance of this biomolecular analytical technique
11.3 Established and emerging applications of NMR
11.4 Principles and uses of MRI
11.5 MRI as a principal diagnostic and research tool
12 Bioanalytical approaches from diagnostic, research and pharmaceutical perspectives
12.1 Clinical genomics, proteomics and metabolomics
12.2 Clinical diagnosis and screening
12.3 Research and development
12.4 Emerging pharmaceutical products
12.5 Future perspectives
13 Self-Assessment

Appendix 1: International system of units (SI) and common prefixes
Appendix 2: The periodic table of the elements
Appendix 3: Common solvents and biological buffers
Appendix 4: Answers to self-assessment questions

Index

Structure and Function of Plants by Jennifer W. MacAdam Hardcover - 304 pages Shipped in CLICK HERE (IN STOCK) Cat.# JW-SST7 $ 82.70 ADD TO CART Published:  2009   ISBN:  9780813827186

Plant anatomy and physiology and a broad understanding of basic plant processes are of primary importance to a basic understanding of plant science. These areas serve as the first important building blocks in a variety of fields of study, including botany, plant biology, and horticulture. Structure and Function of Plants will serve as a text aimed at undergraduates in the plant sciences that will provide an accurate overview of complex plant processes as well as details essential to a basic understanding of plant anatomy and physiology. Presented in an engaging style with full-color illustrations, Structure and Function of Plants will appeal to undergraduates, faculty, extension faculty, and members of Master Gardener programs.

Table of Contents:

Chapter 1. The Plant Cell
Chapter 2. Plant Meristems and Tissues
Chapter 3. Plant Roots
Chapter 4. Plant Stems
Chapter 5. Plant Leaves and Translocation
Chapter 6. Reproduction in Flowering Plants
Chapter 7. Plant Nutrition
Chapter 8. Plant Water Relations
Chapter 9. Macromolecules and Enzyme Activity
Chapter 10. Photosynthesis
Chapter 11. Respiration
Chapter 12. Environmental Regulation of Plant Development
Chapter 13. Hormonal Regulation of Plant Development
Chapter 14. Secondary Plant Products

Glossary
Reference Section

Biology of Sensory Systems 2E by Christopher Smith Softcover - 534 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST8 $ 88.20 ADD TO CART Published:  2009   ISBN:  9780470518632

Since publication of the first edition, huge developments have taken place in sensory biology research and new insights have been provided in particular by molecular biology. These show the similarities in the molecular architecture and in the physiology of sensory cells across species and across sensory modality and often indicate a common ancestry dating back over half a billion years.

Biology of Sensory Systems has thus been completely revised and takes a molecular, evolutionary and comparative approach, providing an overview of sensory systems in vertebrates, invertebrates and prokaryotes, with a strong focus on human senses.

Written by a renowned author with extensive teaching experience, the book covers, in six parts, the general features of sensory systems, the mechanosenses, the chemosenses, the senses which detect electromagnetic radiation, other sensory systems including pain, thermosensitivity and some of the minority senses and, finally, provides an outline and discussion of philosophical implications.

New in this edition:

• Greater emphasis on molecular biology and intracellular mechanisms
• New chapter on genomics and sensory systems
• Sections on TRP channels, synaptic transmission, evolution of nervous systems, arachnid mechanosensitive sensilla and photoreceptors, electroreception in the Monotremata, language and the FOXP2 gene, mirror neurons and the molecular biology of pain
• Updated passages on human olfaction and gustation.

Over four hundred illustrations, boxes containing supplementary material and self-assessment questions and a full bibliography at the end of each part make Biology of Sensory Systems essential reading for undergraduate students of biology, zoology, animal physiology, neuroscience, anatomy and physiological psychology. The book is also suitable for postgraduate students in more specialised courses such as vision sciences, optometry, neurophysiology, neuropathology, developmental biology.

Praise from the reviews of the first edition:

"An excellent advanced undergraduate/postgraduate textbook." ASLIB BOOK GUIDE

"The emphasis on comparative biology and evolution is one of the distinguishing features of this self-contained book. .... this is an informative and thought-provoking text..." TIMES HIGHER EDUCATIONAL SUPPLEMENT

Table of Contents:

Preface to Second Edition
Preface to First Edition

PART I: PRELIMINARIES

Chapter 1 Elements
1.1 Allosteric Effectors
1.2 Membranes
1.3 Membrane Signalling Systems
1.4 Channels and Gates
1.5 Concluding Remarks

Chapter 2 Membranes, Action Potentials, Synapses
2.1 The Measurement ofResting Potentials
2.2 The Ionic Bases of Resting Potentials
2.3 Electrotonic Potentials and Cable Conduction
2.4 Receptor and Generator Potentials
2.5 Sensory Adaptation
2.6 Action Potentials
2.7 Synapses and Synaptic Transmission
2.8 Concluding Remarks

Chapter 3 General Features of Sensory Systems
3.1 Classification of the Senses
3.2 Modality
3.3 Intensity
3.4 Adaptation
3.5 Receptive Fields
3.6 Maps of Sensory Surfaces
3.7 Hierarchical and Parallel Design
3.8 Feature Extraction and Trigger Stimuli
3.9 Concluding Remarks

Box 3.1 Hermann von Helmholtz

Chapter 4 Classification and Phylogeny
4.1 Systematics
4.2 Classification into Six Kingdoms
4.3 Unicellularity
4.4 Multicellularity
4.5 Protostomes and Deuterostomes
4.6 Classification of theMetazoa
4.7 Evolution of Nervous Systems
4.8 Concluding Remarks

Chapter 5 Genes, Genomics and Neurosensory Systems
5.1 Introduction
5.2 Comparative Genomics
5.3 Genomes and Neurosensory Systems
5.4 Concluding Remarks

Box 5.1 Nomenclature of Genes and Proteins
Part I: Self Assessment
Part I: Notes, References and Bibliography.

PART II: MECHANOSENSITIVITY

Chapter 6. Mechanosensitivity of Cell Membranes
6.1 Mechanosensitive Channels in E. coli
6.2 Detection of Osmotic Swelling by Hypothalamic Cells in Mammals
6.3 Concluding Remarks

Chapter 7 Kinaesthesia

7.1 Kinaesthetic Mechanisms in Arthropods
7.1.1 Stretch Receptors in Crustacean Muscle
7.2 Kinaesthetic Mechanisms in Mammals
7.3 Concluding Remarks

Chapter 8 Touch
8.1 Mechanoreception in Caenorhabditis Elegans
8.2 Spiders
8.3 Insects
8.4 Tactile Receptors in Mammalian Skin
8.5 Cerebral Analysis of Touch
8.6 Plasticity of the Somaesthetic Cortex
8.7 Concluding Remarks

Chapter 9 Equilibrium and Hearing: The Uses of Hair Cells
9.1 Anatomy and Physiology of Hair Cells
9.2 Lateral Line Canals
9.3 Evolution of the Vertebrate Ear
9.4 Concluding Remarks

Box 9.1 Biophysics of Outer Hair Cells
Box 9.2 Genetics and Deafness

Chapter 10 Cerebral Analysis
10.1 The Mammalian Vestibular Pathway and Reflexes
10.2 The Mammalian Auditory Pathway
10.3 The Avian Auditory Pathway and the Mapping of Auditory Space by the Barn Owl
10.4 The Mammalian Auditory Cortex
10.5 The Bat Auditory System and Echolocation
10.6 The Human Auditory Cortex and Language
10.7 Lateralization and the Neuroanatomy of Language
10.8 Language and the FOXP2 Gene
10.9 Callosectomy and After
10.10 Concluding Remarks

Box 10.1 Broca andWernicke
Part II: Self Assessment
Part II: Notes, References and Bibliography

PART III: CHEMOSENSITIVITY

Chapter 11 Chemosensitivity in Prokaryocytes
11.1 Chemosentivity in E. coli.
11.2 Concluding Remarks

Chapter 12 Mammalian Chemo- Enteroreceptors
12.1 Location of Mammalian Chemoreceptors for PaO2 and PaCO2
12.2 Structure
12.3 Physiology
12.4 Biochemistry
12.5 Concluding Remarks

Chapter 13 Gustation
13.1 Gustation in Insects
13.2 Gustation inMammals
13.3 Concluding Remarks

Chapter 14 Olfaction
14.1 Insect Olfactory Systems
14.2 Mammalian Olfactory Systems
14.3 The Vertebrate Vomeronasal Organ (VNO) and Pheromones
14.4 Concluding Remarks

Part III: Self Assessment
Part III: Notes, References and Bibliography

PART IV: PHOTOSENSITIVITY

Box I4.1 Bacteriorhodopsin

Chapter 15 Invertebrate Vision
15.1 Designs of Invertebrate Eyes
15.2 Examples of Invertebrate Eyes
15.3 Concluding Remarks

Box 15.1 The Evolution of Opsins
Box 15.2 Early Genetics of Eyes

Chapter 16 The Human Eye
16.1 Anatomy
16.2 Embryology
16.3 Detailed Anatomy and Physiology
16.4 Movements of the Eyeball
16.5 Concluding Remarks
Box 16.1 Genetics of Cataract

Chapter 17 The Retina
17.1 Retinal Pigment Epithelium (RPE)
17.2 Retina
17.3 Concluding Remarks

Chapter 18 Visual Pathways and Cortices
18.1 Visual Pathways into the Brain
18.2 Primary Visual Cortex
18.3 Extrastriate Cortices
18.4 Face Recognition
18.5 Prosopagnosia
18.6 Concluding Remarks

Box 18.1 The Reality of Cortical Columns
Box 18.2 Blindsight

Chapter 19 Other Vertebrate Visual Systems
19.1 Visual Pigments
19.2 Photoreceptors
19.3 Tapeta
19.4 Retinae
19.5 Dioptric Apparatus
19.6 Median Eyes
19.7 Visual Pathways
19.8 Visual Centres in the Brain
19.9 Concluding Remarks

Part IV: Self Assessment
Part IV: Notes, References and Bibliography

PART V: OTHER SENSES

Chapter 20 Thermosensitivity
20.1 Molecular Biology
20.2 Poikilotherms
20.3 Homeotherms
20.4 Concluding Remarks

Chapter 21 Minority Senses
21.1 Infrared Radiation
21.2 Polarized Light
21.3 Electric Fields
21.4 Magnetic Fields
21.5 Concluding Remarks

Chapter 22 Pain
22.1 The Biological Significance of Pain
22.2 Neurophysiology of Pain
22.3 Neuropharmacology of Pain Pathways
22.4 Referred Pain
22.5 Gate Theory
22.6 Concluding Remarks

Part V: Self Assessment
Part V: Notes, References and Bibliography
PART VI: CODA

Chapter 23 Summing Up
23.1 Molecular Themes
23.2 Cellular Themes
23.3 Sense Organs
23.4 Central Analysers
23.5 Homeostasis
23.6 Different Sensory Worlds
23.7 From Abiotic to Biotic: Communication
23.8 From Biotic to Social Communication: Mirror Neurons
23.9 Concluding Remarks

Chapter 24 Philosophical Postscript
24.1 Descartes
24.2 Qualia
24.3 Tabula Rasa?
24.4 Epigenetic Epistemology
24.5 Evolutionary Epistemology
24.6 Beyond Descartes
24.7 Concluding Remarks

Part VI: Self Assessment
Part VI: Notes, References and Bibliography

Appendix: Some Techniques
Acronyms and Abbreviations
Glossary
Index

Principles of Physical Chemistry 2E by Hans Kuhn, Horst-Dieter Försterling, and David H. Waldeck Hardcover - 1,032 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST9 $176.35 ADD TO CART Published:  2009   ISBN:  9780470089644

Principles of Physical Chemistry uniquely presents simple physical models for molecular and supramolecular systems and processes, rather than dwelling on mathematical formality. This new edition integrates experiments and real experimental data with theoretical developments, and uses many classical results in conjunction with modern results and methods. Including numerous problems and solutions, the presentation assists students in developing an intuitive understanding of the subjects as well as skill in quantitative manipulations.

Table of Contents:

List of Foundations
List of Justifications
Preface
Authors Biography
List of Symbols
Introduction

1. Wave–Particle Duality
2. Essential Aspects of Structure and Bonding
3. Schrödinger Equation
4. Hydrogen Atom
5. Atoms and the Variational Principle
6. A Quantitative View of Chemical Bonding
7. Bonding Described by Electron Pairs and Molecular Orbitals
8. Molecules with π-Electron Systems
9. Absorption of Light
10. Emission of Light
11. Nuclei: Particle and Wave Properties
12. Nuclear Spin
13. Solids and Intermolecular Forces
14. Thermal Motion of Molecules
15. Energy Distribution in Molecular Assemblies
16. Work w, Heat q, and Internal Energy U
17. Reversible Work wrev, Reversible Heat qrev, and Entropy S
18. General Conditions for Spontaneity and its Application to Equilibria of Ideal Gases and Dilute Solutions
19. Formal Thermodynamics and its Application to Phase Equilibria
20. Real Gases
21. Real Solutions
22. Reaction Equilibria in Aqueous Solutions and Biosystems
23. Chemical Reactions in Electrochemical Cells
24. Chemical Kinetics
25. Transition States and Chemical Reactions
26. Macromolecules
27. Organized Molecular Assemblies
28. Supramolecular Machines
29. Origin of Life: Matter Carrying Information

Index

Nuclear and Particle Physics: An Introduction 2E by Brian Martin Softcover - 454 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST10 $ 76.35 ADD TO CART Published:  2009   ISBN:  9780470742754

An accessible introduction to nuclear and particle physics with equal coverage of both topics, this text covers all the standard topics in particle and nuclear physics thoroughly and provides a few extras, including chapters on experimental methods; applications of nuclear physics including fission, fusion and biomedical applications; and unsolved problems for the future. It includes basic concepts and theory combined with current and future applications. An excellent resource for physics and astronomy undergraduates in higher-level courses, this text also serves well as a general reference for graduate studies.

Table of Contents:

Preface to Second Edition
Notes

1. Basic Concepts
1.1 History
1.2 Relativity and Antiparticles
1.3 Space-Time Symmetries and Conservation Laws
1.4 Interactions and Feynman Diagrams
1.5 Particle Exchange: Forces and Potentials
1.6 Observable Quantities: Cross-sections and Decay Rates
1.7 Units: Length, Mass and Energy
Problems

2. Nuclear Phenomenology
2.1 Mass Spectroscopy .
2.2 Nuclear Shapes and Sizes
2.3 Semi-Empirical Mass Formula: the Liquid Drop Model
2.4 Nuclear Instability
2.5 Radioactive Decay
2.6 βDecay Phenomenology
2.7 Fission
2.8 γDecays
2.9 Nuclear Reactions
Problems

3. Particle Phenomenology
3.1 Leptons
3.2 Quarks
3.3 Hadrons
Problems

4. Experimental Methods
4.1 Overview
4.2 Accelerators and Beams
4.3 Particle Interactions with Matter
4.4 Particle Detectors
4.5 Multi-Component Detector Systems
Problems

5. Quark Dynamics: The Strong Interaction
5.1 Colour
5.2 Quantum Chromodynamics (QCD).
5.3 Heavy Quark Bound States
5.4 The Strong Coupling Constant and Asymptotic Freedom
5.5 Quark-Gluon Plasma
5.6 Jets and Gluons
5.7 Colour Counting
5.8 Deep Inelastic Scattering and Nucleon Structure
Problems

6. Weak Interactions And Electroweak Unification
6.1 Charged and Neutral Currents
6.2 Symmetries of the Weak Interaction
6.3 Spin Structure of the Weak Interactions
6.4 W± and Z0 Bosons
6.5 Weak Interactions of Hadrons: Charged Currents
6.6 Meson Decays and CP Violation
6.7 Neutral Currents and the Unified Theory
Problems

7. Models And Theories Of Nuclear Physics
7.1 The Nucleon-Nucleon Potential
7.2 Fermi Gas Model
7.3 Shell Model
7.4 Non-Spherical Nuclei
7.5 Summary of Nuclear Structure Models
7.6 α-Decay
7.7 β-Decay
7.8 γ-Emission and Internal Conversion
Problems

8. Applications Of Nuclear Physics
8.1 Fission
8.2 Fusion
8.3 Nuclear Weapons
8.4 Biomedical applications
Problems

9. Outstanding Questions and Future Prospects
9.1 Overview
9.2 Hadrons and Nuclei
9.3 The Origin of Mass: the Higgs Boson
9.4 The Nature of the Neutrino
9.5 Beyond the Standard Model: Unification Schemes
9.6 Particle Astrophysics
9.7 Nuclear Medicine
9.8 Power Production and Nuclear Waste

Appendix A: Some Results In Quantum Mechanics
a1 Barrier Penetration
a2 Density of States
a3 Perturbation Theory and the Second Golden Rule
a4 Isospin Formalism
a4.1 Isospin operators and quark states
a4.2 Hadron states

Appendix B: Relativistic Kinematics
b1 Lorentz Transformations and Four-Vectors
b2 Frames of Reference
b3 Invariants
Problems b

Appendix C: Rutherford Scattering
c1 Classical Physics
c2 Quantum Mechanics
Problems c

Appendix D: Gauge Theories
d1 Gauge Invariance and the Standard Model
d1.1 Electromagnetism and the gauge principle
d1.2 The standard model
d2 Particle Masses and the Higgs Field

Appendix E: Data
e1 Physical Constants and Conversion Factors
e2 Tables of Particle Properties
d2.1 Gauge bosons
d2.2 Leptons
d2.3 Quarks
d2.4 Baryons
d2.5 Mesons
e3 Tables of Nuclear Properties
d3.1 Properties of naturally occurring isotopes
d3.2 The periodic table

Appendix F: Solutions To Problems
References
Bibliography
Index

Quantitative Conservation of Vertebrates by Michael J. Conroy, and John P. Carroll Softcover - 392 pages Shipped in CLICK HERE (IN STOCK) Cat.# JW-SST11 $ 76.35 ADD TO CART Published:  2009   ISBN:  9781405182287

This book provides a hands-on introduction to the construction and application of models to studies of vertebrate distribution, abundance, and habitat. The book is aimed at field biologists, conservation planners, and advanced undergraduate and postgraduate students who are involved with planning and analyzing conservation studies, and applying the results to conservation decisions. The book also acts as a bridge to more advanced and mathematically challenging coverage in the wider literature.

Part I provides a basic background in population and community modeling. It introduces statistical models, and familiarizes the reader with important concepts in the design of monitoring and research programs. These programs provide the essential data that guide conservation decision making. Part II covers the principal methods used to estimate abundance, occupancy, demographic parameters, and community parameters, including occupancy sampling, sample counts, distance sampling, and capture-mark-recapture (for both closed and open populations). Emphasis is placed on practical aspects of designing and implementing field studies, and the proper analysis of data. Part III introduces structured decision making and adaptive management, in which predictive models are used to inform conservation decision makers on appropriate decisions in the face of uncertainty—with the goal of reducing uncertainty through monitoring and research. A detailed case study is used to illustrate each of these themes.


Numerous worked examples and accompanying electronic material (on a website and accompanying CD) provide the details of model construction and application, and data analysis.

Table of Contents:

Preface
Acknowledgments
Companion website and CD-ROM

1. Introduction: The role of science in conservation

Part 1. Basic concepts in scientific investigations for conservation

2. Using models in conservation biology
3. Models of population dynamics
4. Applying population models to conservation
5. Basics of study design and analysis

Part 2. Conservation studies and monitoring programs

6. General principles of estimation
7. Occupancy (presence-absence) analysis
8. Sample counts for abundance estimation
9. Distance sampling for estimating density and abundance
10. Capture-mark-recapture studies for estimating abundance and density
11. Estimation of survival from radiotelemetry, nesting success studies, and age distributions
12. Mark-recapture for estimating survival, recruitment, abundance, and movement rates
13. Analysis of habitat
14. Estimation of species richness and other community parameters

Part 3. Integrating modeling and monitoring for conservation

15. Elements of conservation decision making
16. Accounting for uncertainty in conservation decisions
17. Learning and adaptive management
18. Case study: decision modeling and adaptive management for declining grassland birds in the southeastern USA
19. Summary and recommendations

Literature cited
Glossary

Appendix A. Statistical and modeling programs available on the worldwide web
Appendix B. Other internet resources
Appendix C. Modeling and statistical notation
Appendix D. Key to abundance and parameter estimation

Index

Principles of Surface-Enhanced Raman Spectroscopy: And Related Plasmon Effects by Eric Le Ru, and Pablo Etchegoin Hardcover - 688 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST10 $218.20 ADD TO CART Published:  2009   ISBN:  9780444527790

Surface-Enhanced Raman Scattering (SERS) was discovered in the 1970s and has since grown enormously in breadth, depth, and understanding. One of the major characteristics of SERS is its interdisciplinary nature: it lies at the boundary between physics, chemistry, colloid science, plasmonics, nanotechnology, and biology. By their very nature, it is impossible to find a textbook that will summarize the principles needed for SERS of these rather dissimilar and disconnected topics. Although a basic understanding of these topics is necessary for research projects in SERS with all its many aspects and applications, they are seldom touched upon as a coherent unit during most undergraduate studies in physics or chemistry. This book intends to fill this existing gap in the literature. It provides an overview of the underlying principles of SERS, from the fundamental understanding of the effect to its potential applications. It is aimed primarily at newcomers to the field, graduate student, researcher or scientist, attracted by the many applications of SERS and plasmonics or its basic science. The emphasis is on concepts and background material for SERS, such as Raman spectroscopy, the physics of plasmons, or colloid science, all of them introduced within the context of SERS, and from where the more specialised literature can be followed.

• Represents one of very few books fully dedicated to the topic of surface-enhanced Raman spectroscopy (SERS)
• Gives a comprehensive summary of the underlying physical concepts around SERS
• Provides a detailed analysis of plasmons and plasmonics

Table of Contents:

1. Raman spectroscopy and related optical techniques
2. Introduction to plasmons and plasmonics
3. SERS enhancement factors and related topics
4. Calculations of electromagnetic enhancements
5. examples - ES approximation, red-shifted, aspect ratio
6. Metallic colloids and other SERS substrates
7. Recent developments
8. A Density functional theory DFT calculations for Raman
9. Applications of DFT to Raman
10. 2 Common units and definitions in Raman calculations from DFT
11. Examples of DFT calculations for SERS applications
12. B The bondpolarizability model
13. 2 Raman polarizabilities
14. A brief overview of Maxwells equations in media
15. Lorentz model of the atomicmolecular polarizability
16. Remarks on the model dielectric functions
17. 2 Propagating plane waves
18. 3 Physical waves in a semiinfinite region
19. 6 Incident wave modes
20. 5 Special cases
21. Dipole emission close to a planar interface
22. 3 The electrostatic solution
23. H Mie theory and its implementation
24. 4 Expressions for the susceptibilities
25. Extensions of Mie theory

References
Index

Nuclear Energy: An Introduction to the Concepts, Systems, And Applications of Nuclear Processes by Raymond L. Murray Hardcover - 552 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST4 $104.55 ADD TO CART Published:  2009   ISBN:  9780123705471

Nuclear Energy is one of the most popular texts ever published on basic nuclear physics, systems, and applications of nuclear energy. This newest edition continues the tradition of offering a holistic treatment of everything the undergraduate engineering student needs to know in a clear and accessible way. Presented is a comprehensive overview of radioactivity, radiation protection, nuclear reactors, waste disposal, and nuclear medicine."--BOOK JACKET.

Table of Contents:

1. Chapter Energy - American Nuclear Society, La Grange Park, kinetic energy
2. Atoms and Nuclei - proton, nucleons, binding energy
3. Radioactivity - half-life, isotope, radionuclide
4. Nuclear Processes - mean free path, deuterium, elastic collision
5. Radiation and Materials - gamma ray, photon, alpha particles
6. Fission - fission product, Beta particles, uranium
7. Fusion - deuterium, Plasma Physics, deuterons
8. Particle Accelerators - Particle Accelerators, magnetic field, Tevatron
9. Isotope Separators - gaseous diffusion, isotope separation, calutron
10. Radiation Detectors - Poisson distribution, boron, beta particles
11. Neutron Chain Reactions - thermal reactor, zircaloy, boron
12. Nuclear Heat Energy - Cooling Towers, fuel pin, coolant
13. Breeder Reactors - fast breeder reactor, plutonium, Integral Fast Reactor
14. Fusion Reactors - tokamak, Lawson criterion, tritium
15. The History of Nuclear Energy - Manhattan Project, nuclear power, Robert Oppenheimer
16. Biological Effects of Radiation - hormesis, millirems, Dirty Bombs
17. Information from Isotopes - radioisotope, neutron activation analysis, radionuclide
18. Useful Radiation Effects - Food Irradiation, screwworm , IAEA
19. Reactor Safety and Security - delayed neutrons, Three Mile Island, Chernobyl accident
20. Nuclear Propulsion - Pioneer Anomaly, Kuiper Belt, Radioisotope Thermoelectric
21. Radiation Protection - radon, effective dose, Health Physics
22. Radioactive Waste Disposal - Radioactive Waste, Yucca Mountain, nuclear fuel cycle
23. Laws Regulations and Organizations - IAEA, radioactive waste, Atomic Energy Act
24. Energy Economics - ABWR, Boiling Water Reactor, Light Water Reactor
25. International Nuclear Power - Areva, European Pressurized Reactor, PWRs
26. Nuclear Explosions - enriched uranium, nuclear explosions, Megatons
27. The Future - desalination, light water reactors, global warming

Appendix - Qbasic, Atomic Weight, Joule
Index

Fuel Cell Fundamentals 2E by Ryan O'Hayre, Whitney Colella, Suk-Won Cha, and Fritz B. Prinz Hardcover - 576 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# JW-SST12 $176.35 ADD TO CART Published:  2008   ISBN:  9780470258439

As the search for alternative fuels heats up, no topic is hotter than fuel cells. Filling a glaring gap in the literature, Fuel Cell Fundamentals, Second Edition gives advanced undergraduate and beginning level graduate students an important introduction to the basic science and engineering behind fuel cell technology. Emphasizing the foundational scientific principles that apply to any fuel cell type or technology, the text provides straightforward descriptions of how fuel cells work, why they offer the potential for high efficiency, and how their unique advantages can best be used. Designed to be accessible to fuel cell beginners, the text is suitable for any engineering or science major with a background in calculus, basic physics, and elementary thermodynamics. This new edition provides updated and enhanced examples, problems, and pedagogy for classroom use and features a significantly enlarged section on the practical applications of fuel cell technology. A solutions manual will be developed.

Table of Contents:

PREFACE
ACKNOWLEDGMENTS
NOMENCLATURE

I. FUEL CELL PRINCIPLES

1. INTRODUCTION
1.1 What is a Fuel Cell?
1.2 A Simple Fuel Cell
1.3 Fuel Cell Advantages
1.4 Fuel Cell Disadvantages
1.5 Fuel Cell Types
1.6 Basic Fuel Cell Operation
1.7 Fuel Cell Performance
1.8 Characterization and Modeling
1.9 Fuel Cell Technology
1.10 Fuel Cells and the Environment
Chapter Summary
Chapter Exercises

2. FUEL CELL THERMODYNAMICS
2.1 Thermodynamics Review
2.2 Heat Potential of a Fuel: Enthalpy of Reaction
2.3 Work Potential of a Fuel: Gibbs Free Energy
2.4 Predicting Reversible Voltage of a Fuel Cell Under Non-Standard-State Conditions
2.5 Fuel Cell Efficiency
2.6 Thermal and Mass Balances in Fuel Cells
Chapter Summary
Chapter Exercises

3 FUEL CELL REACTION KINETICS
3.1 Introduction to Electrode Kinetics
3.2 Why Charge Transfer Reactions Have an Activation Energy
3.3 Activation Energy Determines Reaction Rate
3.4 Calculating Net Rate of a Reaction
3.5 Rate of reaction at Equilibrium: Exchange current Density
3.6 Potential of a Reaction at Equilibrium: Galvani Potential
3.7 Potential and Rate: Butler–Volmer Equation
3.8 Exchange Currents and Electrocatalysis: How to Improve Kinetic Performance
3.9 Simplified Activation Kinetics: Tafel Equation
3.10 Different Fuel Cell Reactions Produce Different Kinetics
3.11 Catalyst-Electrode Design
3.12 Quantum Mechanics: Framework for Understanding Catalysis in Fuel Cells
3.13 Connecting the Butler–Volmer and Nernst Equations (Optional).
Chapter Summary
Chapter Exercises

4. FUEL CELL CHARGE TRANSPORT
4.1 Charges Move in Response to Forces
4.2 Charge Transport Results in a Voltage Loss
4.3 Characteristics of Fuel Cell Charge Transport Resistance
4.4 Physical Meaning of Conductivity
4.5 Review of Fuel Cell Electrolyte Classes
4.6 More on Diffusivity and Conductivity (Optional).
4.7 Why Electrical Driving Forces Dominate Charge Transport (Optional).
4.8 Quantum Mechanics–Based Simulaton of Ion Conduction in Oxide Electrolytes (Optional).
Chapter Summary
Chapter Exercises

5. FUEL CELL MASS TRANSPORT
5.1 Transport in Electrode Versus Flow Structure
5.2 Transport in Electrode: Diffusive Transport
5.3 Transport in Flow Structures: Convective Transport
Chapter Summary
Chapter Exercises

6. FUEL CELL MODELING
6.1 Putting It All Together: A Basic Fuel Cell Model
6.2 A 1D Fuel Cell Model
6.3 Fuel Cell Models Based on Computational Fluid Dynamics (Optional).
Chapter Summary
Chapter Exercises

7. FUEL CELL CHARACTERIZATION
7.1 What Do We Want to Characterize?
7.2 Overview of Characterization Techniques
7.3 In Situ Electrochemical Characterization Techniques
7.4 Ex Situ Characterization Techniques
Chapter Summary
Chapter Exercises

II. FUEL CELL TECHNOLOGY

8. OVERVIEW OF FUEL CELL TYPES
8.1 Introduction
8.2 Phosphoric Acid Fuel Cell
8.3 Polymer Electrolyte Membrane Fuel Cell
8.4 Alkaline Fuel Cell
8.5 Molten Carbonate Fuel Cell
8.6 Solid Oxide Fuel Cell
8.7 Other Fuel Cells
8.8 Summary Comparison
Chapter Summary
Chapter Exercises

9. PEMFC AND SOFC MATERIALS
9.1 PEMFC Electrolyte Materials
9.2 PEMFC Electrode/Catalyst Materials
9.3 SOFC Electrolyte Materials
9.4 SOFC Electrode/Catalyst Materials
9.5 Material Stability, Durability, And Lifetime
Chapter Summary
Chapter Exercises

10. OVERVIEW OF FUEL CELL SYSTEMS
10.1 Fuel Cell Stack (Fuel Cell Subsystem)
10.2 The Thermal Management Subsystem
10.3 Fuel Delivery/Processing Subsystem
10.4 Power Electronics Subsystem
10.5 Case Study of Fuel Cell System Design: Stationary Combined Heat and Power Systems
10.6 Case Study of Fuel Cell System Design: Sizing A Portable Fuel Cell
Chapter Summary
Chapter Exercises

11. FUEL PROCESSING SUBSYSTEM DESIGN
11.1 Fuel Reforming Overview
11.2 Water-Gas Shift Reactors
11.3 Carbon Monoxide Clean-Up
11.4 Reformer and Processor Efficiency Losses
11.5 Reactor Design for Fuel Reformers and Processors
Chapter Summary
Chapter Exercises

12. THERMAL MANAGEMENT SUBSYSTEM DESIGN
12.1 Overview of Pinch Point Analysis Steps
Chapter Summary
Chapter Exercises

13. FUEL CELL SYSTEM DESIGN
13.1 Fuel Cell Design Via Computational Fluid Dynamics
13.2 Fuel Cell System Design: a Case Study
Chapter Summary
Chapter Exercises

14. ENVIRONMENTAL IMPACT OF FUEL CELLS
14.1 Life Cycle Assessment
14.2 Important Emissions For LCA
14.3 Emissions Related to Global Warming
14.4 Emissions Related to Air Pollution
14.5 Analyzing Entire Scenarios with LCA
Chapter Summary
Chapter Exercises

APPENDIXES
A CONSTANTS AND CONVERSIONS
B THERMODYNAMIC DATa
C STANDARD ELECTRODE POTENTIALS AT 25 ◦C
D QUANTUM MECHANICS
d1 Atomic Orbitals
d2 Postulates of Quantum Mechanics
d3 One-Dimensional Electron Gas
d4 Analogy to Column Buckling
d5 Hydrogen Atom
E PERIODIC TABLE OF THE ELEMENTS

F SUGGESTED FURTHER READING
G IMPORTANT EQUATIONS
BIBLIOGRAPHY
INDEX

Introduction to Plant Physiology 4E by William C. Hopkins, and Norman A. Huner Hardcover - 592 pages Shipped in CLICK HERE (IN STOCK) Cat.# JW-SST13 $128.15 ADD TO CART Published:  2008   ISBN:  9780470247662

Introduction to Plant Physiology became the best-selling first edition plant physiology text of the 1990's! Now, we're building on the success of prior editions to provide an even more effective fourth edition. Plant Physiology has been praised for its excellent balance of traditional and modern topics, presented in a straightforward style, without overwhelming undergraduates with excessive detail. Its focus is on the ideas and experimental approaches in plant physiology. This is a one-semester course. It assumes that the student has had introductory biology or botany as a pre-requisite.

Table of Contents:

Chapter 1: Plant Cells and Water
1.1 Water has Unique Physical and Chemical Properties
1.2 The Thermal Properties of Water are Biologically Important
1.3 Water is the Universal Solvent
1.4 Polarity of Water Molecules Results in Cohesion and Adhesion
1.5 Water Movement may be Governed by Diffusion or by Bulk Flow
1.6 Osmosis is the Diffusion of Water Across a Selectively Permeable Membrane
1.7 Hydrostatic Pressure and Osmotic Pressure are Two Components of Water Potential
1.8 Water Potential is the Sum of its Component Potentials
1.9 Dynamic Flux of H2O is Associated with Changes in Water Potential
1.10 Aquaporins Facilitate the Cellular Movement of Water
1.11 Two-Component Sensing/Signalling Systems are Involved in Osmoregulation
Summary
Chapter Review
Further Reading

Chapter 2: Whole Plant Water Relations
2.1 Transpiration is Driven by Differences in Vapor Pressure
2.2 The Driving Force of Transpiration is Differences in Vapor Pressure
2.3 The Rate of Transpiration is Influenced by Environmental Factors
2.4 Water Conduction Occurs via Tracheary Elements
2.5 The Ascent of Xylem SAP is Explained by Combining Transpiration with the Cohesive Forces of Water
2.6 Water Loss due to Transpiration must be Replenished
2.7 Roots Absorb and Transport Water
2.8 The Permeability of Roots to Water Varies
2.9 Radial Movement of Water Through the Root Involves Two Possible Pathways
Summary
Chapter Review
Further Reading

Chapter 3: Roots, Soils, and Nutrient Uptake
3.1 The Soil as a Nutrient Reservoir
3.2 Nutrient Uptake
3.3 Selective Accumulation of Ions by Roots
3.4 Electrochemical Gradients and Ion Movement
3.5 Electrogenic Pumps are Critical for Cellular Active Transport
3.6 Cellular Ion Uptake Processes are Interactive
3.7 Root Architecture is Important to Maximize Ion Uptake
3.8 The Radial Path of Ion Movement Through Roots
3.9 Root-Microbe Interactions
Summary
Chapter Review
Further Reading

Chapter 4: Plants and Inorganic Nutrients
4.1 Methods and Nutrient Solutions
4.2 The Essential Nutrient Elements
4.3 Beneficial Elements
4.4 Nutrient Functions and Deficiency Symptoms
4.5 Toxicity of Micronutrients
Summary
Chapter Review
Further Reading

Chapter 5: Bioenergetics and ATP Synthesis
5.1 Bioenergetics and Energy Transformations in Living Organisms
5.2 Energy Transformations and Coupled Reactions
5.3 Energy Transduction and the Chemiosmotic Synthesis of ATp
Summary
Chapter Review
Further Reading

Chapter 6: The Dual Role of Sunlight: Energy and Information
6.1 The Physical Nature of Light
6.2 The Natural Radiation Environment
6.3 Photoreceptors Absorb Light for use in a Physiological Process
Summary
Chapter Review
Further Reading

Chapter 7: Energy Conservation in Photosynthesis: Harvesting Sunlight
7.1 Leaves are Photosynthetic Machines that Maximize the Absorption of Light
7.2 Photosynthesis is an Oxidation-Reduction Process
7.3 Photosynthetic Electron Transport
7.4 Photophosphorylation is the Light-Dependent Synthesis of ATp
7.5 Lateral Heterogeneity is the Unequal Distribution of Thylakoid Complexes
7.6 Cyanobacteria are Oxygenic
7.7 Inhibitors of Photosynthetic Electron Transport are Effective Herbicides
Summary
Chapter Review
Further Reading

Chapter 8: Energy Conservation in Photosynthesis: CO2 Assimilation
8.1 Stomatal Complex Controls Leaf Gas Exchange and Water Loss
8.2 CO2 Enters the Leaf by Diffusion
8.3 How Do Stomata Open and Close?
8.4 Stomatal Movements are Also Controlled by External Environmental Factors
8.5 The Photosynthetic Carbon Reduction (PCR) Cycle
8.6 The PCR Cycle is Highly Regulated
8.7 Chloroplasts of C3 Plants also Exhibit Competing Carbon Oxidation Processes
Summary
Chapter Review
Further Reading

Chapter 9: Allocation, Translocation, and Partitioning of Photoassimilates
9.1 Starch and Sucrose are Biosynthesized in Two Different Compartments
9.2 Starch and Sucrose Biosynthesis are Competitive Processes
9.3 Fructan Biosynthesis is An Alternative Pathway for Carbon Allocation
9.4 Photoassimilates are Translocated Over Long Distances
9.5 Sieve Elements are the Principal Cellular Constituents of the Phloem
9.6 Direction of Translocation is Determined by Source-Sink Relationships
9.7 Phloem Translocation Occurs by Mass Transfer
9.8 Phloem Loading and Unloading Regulate Translocation and Partitioning
9.9 Photoassimilate is Distributed Between Different Metabolic Pathways and Plant Organs
9.10 Xenobiotic Agrochemicals are Translocated in the Phloem
Summary
Chapter Review
Further Reading

Chapter 10: Cellular Respiration: Unlocking the Energy Stored in Photoassimilates
10.1 Cellular Respiration Consists of a Series of Pathways by Which Photoassimilates are Oxidized
10.2 Starch Mobilization
10.3 Fructan Mobilization is Constitutive
10.4 Glycolysis Converts Sugars to Pyruvic Acid
10.5 The Oxidative Pentose Phosphate Pathway is an Alternative Route for Glucose Metabolism
10.6 The Fate of Pyruvate Depends on the Availability of Molecular Oxygen
10.7 Oxidative Respiration is Carried out by the Mitochondrion
10.8 Energy is Conserved in the Form of ATP in Accordance with Chemiosmosis
10.9 Plants Contain Several Alternative Electron Transport Pathways
10.10 Many Seeds Store Carbon as Oils that are Converted to Sugar
10.11 Respiration Provides Carbon Skeletons for Biosynthesis
10.12 Respiratory Rate Varies with Development and Metabolic State
10.13 Respiration Rates Respond to Environmental Conditions
Summary
Chapter Review
Further Reading

Chapter 11: Nitrogen Assimilation
11.1 The Nitrogen Cycle: A Complex Pattern of Exchange
11.2 Biological Nitrogen Fixation is Exclusively Prokaryotic
11.3 Legumes Exhibit Symbiotic Nitrogen Fixation
11.4 The Biochemistry of Nitrogen Fixation
11.5 The Genetics of Nitrogen Fixation
11.6 NH3 Produced by Nitrogen Fixation is Converted to Organic Nitrogen
11.7 Plants Generally Take up Nitrogen in the Form of Nitrate
11.8 Nitrogen Cycling: Simultaneous Imports and Export
11.9 Agricultural and Ecosystem Productivity is Dependent on Nitrogen Supply
Summary
Chapter Review
Further Reading

Chapter 12: Carbon and Nitrogen Assimilation and Plant Productivity
12.1 Productivity Refers to an Increase in Biomass
12.2 Carbon Economy is Dependent on the Balance Between Photosynthesis and Respiration
12.3 Productivity is Influenced by a Variety of Environmental Factors
Summary
Chapter Review
Further Reading

Chapter 13: Responses of Plants to Environmental Stress
13.1 What is Plant Stress?
13.2 Plants Respond to Stress in Several Different Ways
13.3 Too Much Light Inhibits Photosynthesis
13.4 Water Stress is a Persistent Threat to Plant Survival
13.5 Plants are Sensitive to Fluctuations in Temperature
13.6 Insect Pests and Disease Represent Potential Biotic Stresses
13.7 There are Features Common to all Stresses
Summary
Chapter Review
Further Reading

Chapter 14: Acclimation to Environmental Stress
14.1 Plant Acclimation is a Time-Dependent Phenomenon
14.2 Acclimation is Initiated by Rapid, Short-Term Responses
14.3 Long-Term Acclimation Alters Phenotype
14.4 Freezing Tolerance in Herbaceous Species is a Complex Interaction Between Light and Low Temperature
14.5 Plants Adjust Photosynthetic Capacity in Response to High Temperature
14.6 Oxygen may Protect During Accimation to Various Stresses
Summary
Chapter Review
Further Reading

Chapter 15: Adaptations to the Environment
15.1 Sun and Shade Adapted Plants Respond Differentially to Irradiance
15.2 C4 Plants are Adapted to High Temperature and Drought
15.3 Crassulacean Acid Metabolism is an Adaptation to Desert Life
15.4 C4 and CAM Photosynthesis Require Precise Regulation and Temporal Integration
15.5 Plant Biomes Reflect Myriad Physiological Adaptations
Summary
Chapter Review
Further Reading

Chapter 16: Development: An Overview
16.1 Growth, Differentiation, and Development
16.2 Meristems are Centers of Plant Growth
16.3 Seed Development and Germination
16.4 From Embryo to Adult
16.5 Senescence and Programmed Cell Death are the Final Stages of Development
Summary
Chapter Review
Further Reading

Chapter 17: Growth and Development of Cells
17.1 Growth of Plant Cells is Complicated by the Presence of a Cell Wall
17.2 Cell Division
17.3 Cell Walls and Cell Growth
17.4 A Continuous Stream of Signals Provides Information that Plant Cells Use of Modify Development
17.5 Signal Transduction Includes a Diverse Array of Second Messengers
17.6 There is Extensive Crosstalk Among Signal Pathways
Summary
Chapter Review
Further Reading

Chapter 18: Hormones I: Auxins
18.1 The Hormone Concept in Plants
18.2 Auxin is Distributed Throughout the Plant
18.3 The Principal Auxin in Plants is Indole-3-Acetic Acid (IAA).
18.4 IAA is Synthesized from the Amino Acid I-Tryptophan
18.5 Some Plants do not Require Tryptophan for IAA Biosynthesis
18.6 IAA may be Stored as Inactive Conjugates
18.7 IAA is Deactivated by Oxidation and Conjugation with Amino Acids
18.8 Auxin is Involved in Virtually Every Stage of Plant Development
18.9 The Acid-Growth Hypothesis Explains Auxin Control of Cell Enlargement
18.10 Maintenance of Auxin-Induced Growth and Other Auxin Effects Requires Gene Activation
18.11 Many Aspects of Plant Development are Linked to the Polar Transport of Auxin
Summary
Chapter Review
Further Reading

Chapter 19: Hormones II: Gibberellins
19.1 There are a Large Number of Gibberellins
19.2 There are Three Principal Sites for Gibberellin Biosynthesis
19.3 Gibberellins are Terpenes, Sharing a Core Pathway with Several Other Hormones and a Wide Range of Secondary Products
19.4 Gibberellins are Synthesized from Geranylgeranyl Pyrophosphate (GGPP).
19.5 Gibberellins are Deactivated by 2 -Hydroxylation
19.6 Growth Retardants Block the Synthesis of Gibberellins
19.7 Gibberellin Transport is Poorly Understood
19.8 Gibberellins Affect Many Aspects of Plant Growth and Development
19.9 Gibberellins Act by Regulating Gene Expression
Summary
Chapter Review
Further Reading

Chapter 20: Hormones III: Cytokinins
20.1 Cytokinins are Adenine Derivatives
20.2 Cytokinins are Synthesized Primarily in the Root and Translocated in the Xylem
20.3 Cytokinins are Required for Cell Proliferation
20.4 Cytokinin Receptor and Signaling
Summary
Chapter Review
Further Reading

Chapter 21: Hormones IV: Abscisic Acid, Ethylene, and Brassinosteroids
21.1 Abscisic Acid
21.2 Ethylene
21.3 Brassinosteroids
Summary
Chapter Review
Further Reading

Chapter 22: Photomorphogenesis: Responding to Light
22.1 Photomorphogenesis is Initiated by Photoreceptors
22.2 Photochromes: Responding to Red and Far-Red Light
22.3 Cryptochrome: Responding to Blue and UV-A Light
22.4 Photochrome and Cryptochrome Mediate Numerous Developmental Responses
22.5 Chemistry and Mode of Action of Phytochrome and Cryptochrome
22.6 Some Plant Responses are Regulated by UV-B Light
22.7 De-Etiolation in Arabidopsis: A Case Study in Photoreceptor Interactions
Summary
Chapter Review
Further Reading

Chapter 23: Tropisms and Nastic Movements: Orienting Plants in Space
23.1 Phototropism: Reaching for the Sun
23.2 Gravitropism
23.3 Nastic Movements
Summary
Chapter Review
Further Reading

Chapter 24: Measuring Time: Controlling Development by Photoperiod and Endogenous Clocks
24.1 Photoperiodism
24.2 The Biological Clock
24.3 Photoperiodism in Nature
Summary
Chapter Review
Further Reading

Chapter 25: Flowering and Fruit Development
25.1 Flower Initiation and Development Involves the Sequential Action of Three Sets of Genes
25.2 Temperature can Alter the Flowering Response to Photoperiod
25.3 Fruit Set and Development is Regulated by Hormones
Summary
Chapter Review
Further Reading

Chapter 26: Temperature: Plant Development and Distribution
26.1 Temperature in the Plant Environment
26.2 Bud Dormancy
26.3 Seed Dormancy
26.4 Thermoperiodism is a Response to Alternating Temperature
26.5 Temperature Influences Plant Distribution
Summary
Chapter Review
Further Reading

Chapter 27: Secondary Metabolites
27.1 Secondary Metabolites: akA Natural Products
27.2 Terpenes
27.3 Glycosides
27.4 Phenylpropanoids
27.5 Secondary Metabolites are Active Against Insects and Disease
27.6 Jasmonates are Linked to Ubiquitin-Related Protein Degradation
27.7 Alkaloids
Appendix: Building Blocks: Lipids, Proteins, and Carbohydrates
1.1 Lipids
1.2 Proteins
1.3 Carbohydrates

Index/Glossary

Plant Anatomy: An Applied Approach David F. Cutler, Ted Botha, and Dennis Wm. Stevenson Softcover - 312 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST14 $ 69.95 ADD TO CART Published:  2008   ISBN:  9781405126793

This indispensable textbook provides a comprehensive, up-to-date overview of all aspects of plant anatomy.

• Emphasizes the application of plant anatomy and its relevance to modern botanical research.
• Features expanded treatment on vegetative anatomy and additional material on functional anatomy.
• Includes a CD ROM of high quality photographs and scanning electron microscope images giving students access to the microscopic detail of plant structures essential to gaining a real understanding of the subject.
• Exercises for the laboratory are also included on the CD ROM making this work an indispensable resource for lectures and laboratory classes.

“The book is very attractively priced, benefits from many excellent colour images and extra material on the enclosed CD, and takes a practical hands-on approach that will win many friends. Plant anatomy: an applied approach deserves to do well!” (Annals of Botany, 2008)

A Network version of the Virtual Plant CD-ROM that accompanies the book is available for separate purchase.

Table of Contents:

Preface
Acknowledgements
Introduction

1. Morphology and Tissue Systems: the Integrated Plant Body
General background
Adaptation to aerial growth
The systems in detail

2. Meristems and Meristematic Growth
Introduction
Apical meristems
Lateral meristems
Practical applications and uses of meristems

3. The Structure of Xylem and Phloem
Introduction
The xylem
The phloem
Structure–function relationships in primary and
secondary vascular tissues

4. The Root
Introduction
Epidermis
Cortex
Endodermis
Pericycle
Vascular system
Lateral roots

5. The Stem
Introduction
Stems – cross-sectional appearance
Transport phloem within the axial system
Transport tissue – structural components
Concluding remarks

6. The Leaf
Introduction
Leaf structure
The epidermis
The mesophyll
Strengthening systems in the leaf
The vascular system
The phloem
Specifics of the monocotyledonous foliage leaf 111
Secretory structures
Concluding remarks

7. Flowers, Fruits and Seeds
Introduction
Vascularization
SEM studies
Palynology
Embryology
Seed and fruit histology

8. Adaptive Features
Introduction
Mechanical adaptations
Adaptations to habitat
Xerophytes
Mesophytes
Hydrophytes
Applications

9. Economic Aspects of Applied Plant Anatomy
Introduction
Identification and classification
Taxonomic application
Medicinal plants
Food adulterants and contaminants
Animal feeding habits
Wood: present day
Wood: in archaeology
Forensic applications
Palaeobotany
Postscript

10. Practical Microtechnique
Safety considerations
Materials and methods
Microscopy

Appendix 1 Selected study material
Appendix 2 Practical exercises
Glossary
Cited references
Further reading

Index

Statistics for Terrified Biologists by Helmut van Emden Softcover - 360 pages Shipped in CLICK HERE (IN STOCK) Cat.# JW-SST15 $ 49.95 ADD TO CART Published:  2008   ISBN:  9781405149563

"During the entire course of my Ph.D. I've been (embarrasingly) looking for a way to teach myself the fundamentals of statistical analysis. At this point in my education, I've come to realize that often times, simply knowing the basics is enough for you to properly apply even the most complex analytical methods. ‘Statistics for Terrified Biologists’ has been just such a book - it was more than worth the $40 I spent on it, and while my 'book clubs' aren't meant to be reviews, I highly recommend the book to anyone who's in a similar predicament to my own." –Carlo Artieri's Blog Book Club

“… provides a valuable guide to statistics in clear language, which makes it invaluable for pre-health and biology undergraduate students. Summing Up: Highly recommended” –CHOICE

Written in a lively and engaging style, this textbook makes basic statistical methods and applications accessible to undergraduate biology and environmental science students.

• A lively and engaging textbook that makes basic statistical methods and applications accessible to undergraduate biology and environmental science students
• Based on a course created by an internationally renowned professor with over 30 years teaching experience Straight forward, jargon-free language demystifies statistical formulas for the average student
• Includes additional activities that can be tackled with a basic pocket calculator at the end of each chapter
• Features simple illustrations and useful case studies to help illustrate key concepts

Table of Contents:

Preface

1. How to Use this Book
Introduction
The Text of the Chapters
What Should You Do if You Run into Trouble?
Elephants
The Numerical Examples in the Text
Boxes
Spare-time Activities
Executive Summaries
Why Go to All that Bother?
The Bibliography

2. Introduction
What are Statistics?
Notation
Notation for Calculating the Mean

3. Summarizing Variation
Introduction
Different Summaries of Variation
Why n – 1?
Why the Squared Deviations?
The Standard Deviation
The Next Chapter

4. When are Sums of Squares Not Sums of Squares?
Introduction
Calculating Machines Offer a Quicker Method of Calculating Sums of Squares
Avoid Being Confused by the Term “Sum of Squares”.
Summary of the Calculator Method of Calculating Down to Standard Deviation

5. The Normal Distribution
Introduction
Frequency Distributions
The Normal Distribution
What Per Cent is a Standard Deviation Worth?
Are the Percentages Always the Same as These?
Other Similar Scales in Everyday Life
The Standard Deviation as an Estimate of the Frequency of a Number Occurring in a Sample
From Per Cent to Probability
Executive Summary 1 –The Standard Deviation

6. The Relevance of the Normal Distribution to Biological Data
To Recap
Is Our Observed Distribution Normal?
What Can We Do about a Distribution that Clearly is not Normal?
How Many Samples are Needed?

7. Further Calculations from the Normal Distribution
Introduction
Is “A” Bigger than “B”?
The Yardstick for Deciding
Derivation of the Standard Error of a Difference Between Two Means
The Importance of the Standard Error of Differences Between Means
Summary of this Chapter
Executive Summary 2 – Standard Error of a Difference Between Two Means

8. The t-test
Introduction
The Principle of the t-test
The t-test in Statistical Terms
Why t?
Tables of the t-distribution
The Standard t-test
t-test for Means Associated with Unequal Variances
The Paired t-test
Executive Summary 3 – The t-test

9. One Tail or Two?
Introduction
Why is the Analysis of Variance F-test One-tailed?
The Two-tailed F-test
How Many Tails has the t-test?
The Final Conclusion on Number of Tails

10. Analysis of Variance – What is it? How Does it work?
Introduction
Sums of Squares in the Analysis of Variance
Some “Made-up” Variation to Analyze by Anova
The Sum of Squares Table
Using Anova to Sort Out the Variation in Table c
The Relationship Between “t” and “F”
Constraints on the Analysis of Variance
Comparison Between Treatment Means in the Analysis of Variance
The Least Significant Difference
A Caveat About Using the LSd
Executive Summary 4 – The Principle of the Analysis of Variance

11. Experimental Designs for Analysis of Variance
Introduction
Fully Randomized
Randomized Blocks
Incomplete Blocks
Latin Square
Split Plot
Executive Summary 5 – Analysis of a Randomized Block Experiment

12. Introduction to Factorial Experiments
What is a Factorial Experiment?
Interaction
How Does a Factorial Experiment Change the Form of the Analysis of Variance?
Sums of Squares for Interactions

13. 2-Factor Factorial Experiments
Introduction
An Example of a 2-Factor Experiment
Analysis of the 2-Factor Experiment
Two Important Things to Remember About Factorials Before Tackling the Next Chapter
Analysis of Factorial Experiments with Unequal Replication
Executive Summary 6 – Analysis of a 2-Factor Randomized Block Experiment

14. Factorial Experiments with More than Two Factors
Introduction
Different “Orders” of Interaction
Example of a 4-Factor Experiment
Addendum – Additional Working of Sum of Squares Calculations

15. Factorial Experiments with Split Plots
Introduction
Deriving the Split Plot Design from the Randomized Block Design
Degrees of Freedom in a Split Plot Analysis
Numerical Example of a Split Plot Experiment and its Analysis
Comparison of Split Plot and Randomized Block Experiment
Uses of Split Plot Designs

16. The t-test in the Analysis of Variance
Introduction
Brief Recap of Relevant Earlier Sections of this Book
Least Significant Difference Test
Multiple Range Tests
Testing Differences Between Means
Presentation of the Results of Tests of Differences Between Means
The Results of the Experiments Analyzed by Analysis of Variance in Chapters 11–15

17. Linear Regression and Correlation
Introduction
Cause and Effect
Other Traps Waiting for You to Fall Into
Regression
Independent and Dependent Variables
The Regression Coefficient (b).
Calculating the Regression Coefficient (b)
The Regression Equation
A Worked Example on Some Real Data
Correlation
Extensions of Regression Analysis
Executive Summary 7 – Linear Regression

18. Chi-square Tests
Introduction
When and Where Not to Use c2
The Problem of Low Frequencies
Yates' Correction for Continuity
The c 2 Test for “Goodness of Fit”
Association (or Contingency) c2

19. Nonparametric Methods (What are They?)
Disclaimer
Introduction
Advantages and Disadvantages of the Two Approaches
Some Ways Data are Organized for Nonparametric Tests
The Main Nonparametric Methods that are Available

Appendix
A1 How Many Replicates?
A2 Statistical Tables
A3 Solutions to “Spare-time Activities”
A4 Bibliography
Index
 

Introduction to Materials Chemistry by Harry R. Allcock Hardcover - 432 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST16 $140.00 ADD TO CART Published:  2008   ISBN:  9780470293331

Introduction to Materials Chemistry will appeal to advanced undergraduates and graduate students in chemistry, materials science, and chemical engineering by leading them stepwise from the elementary chemistry on which materials science depends, through a discussion of the different classes of materials, and ending with a description of how materials are used in devices and general technology.

Table of Contents:

Introduction to Materials Chemistry will appeal to advanced undergraduates and graduate students in chemistry, materials science, and chemical engineering by leading them stepwise from the elementary chemistry on which materials science depends, through a discussion of the different classes of materials, and ending with a description of how materials are used in devices and general technology.

Table of Contents:

PREFACE

PART I INTRODUCTION TO MATERIAL SCIENCE
1. What Is Materials Chemistry?
A. Different Types of Materials
B. Uses of Materials
C. Approaches to Producing New Materials, New Properties, and Uses
D. Devices and Machines
E. The Role of Chemistry in Materials Science
F. A Broader Perspective
G. Terminology
H. Example Journals Where Materials Science Publications Can be Found
I. Study Questions
2. Fundamental Principles that Underlie Materials Chemistry
A. Why Are Different Materials Different
B. The Role of Different Elements
C. Different Types of Chemical Bonds
D. Size of Molecular Units
E. Different Shapes of Component Molecules and Influence of Solid-State Structure
F. Suggestions for Further Reading
G. Study Questions
3. Basic Synthesis and Reaction Chemistry
A. Underlying Principles
B. Starting Points for Materials Synthesis—Isolation of Elements
C. Principles that Underlie Materials Synthesis
D. Illustrative Chemistry of Selected Nonmetallic Elements
E. Suggestions for Further Reading
F. Study Questions
4. Structure Determination and Special Techniques for Materials Characterization
A. Purpose
B. Analysis of Bulk Materials
C. Surface and Thin-Film Analysis Techniques
D. Solution Analysis Techniques
E. Suggestions for Further Reading
F. Study Questions

PART II DIFFERENT TYPES OF MATERIALS
5. Small Molecules in Solids
A. Importance of Small-Molecule Materials
B. Packing of Small Molecules in the Solid State
C. Self-Assembly by Crystallization
D. Spherical Molecules Such as Fullerenes in the Solid State
E. Disk-Shaped Molecules and Other Flat Structures
F. Rod-Shaped Molecules
G. Charge Transfer Complexes
H. Clathrates - Molecular Inclusion Adducts
I. Suggestions for Further Reading
J. Study Questions
6. Polymers
A. Overview
B. Synthesis of Polymers
C. Structure–Property Relationships and Polymer Design
D. Polymers in the Solid State
E. Fabrication of Polymers
F. Example Polymeric Materials
G. Future Challenges in Polymeric Materials Science
H. Suggestions for Further Reading
I. Study Questions
7. Glasses and Ceramics
A. Overview
B. Oxide Ceramics and Glasses Obtained or Produced Directly from Mineralogical Materials
C. Oxide Ceramics from Small-Molecule Inorganic and Organometallic Precursors
D. Nonoxide Ceramics
E. Fabrication of Ceramics and Glasses
F. Future Challenges in Ceramics and Glass Science
G. Suggestions for Further Reading
H. Study Questions
8. Metals
A. Important Aspects of Metal Science and Technology
B. Isolation of Specific Metals from Their Ores
C. Corrosion
D. Solid-State Structure of Metals and Alloys
E. Electrical Conductivity
F. The Color of Metals
G. Thermal Conductivity of Metals
H. Magnetic Properties of Metals
I. Mechanical Properties of Metals
J. Fabrication of Metals
K. Future Challenges in Metallic Materials
L. Suggestion for Further Reading
M. Study Questions
9. Alloys, Composites, and Defects
A. Overview
B. Pure Materials and Homogeneous Solid Solutions
C. Heterophase Materials
D. Suggestion for Further Reading
E. Study Questions

PART III MATERIALS IN ADVANCED TECHNOLOGY

10. Semiconductors and Related Materials
A. Importance of Semiconductors
B. Semiconductor Theory
C. Preparation of Semiconductor-Grade Silicon and Compound Semiconductors
D. Organic Polymer Semiconductors
E. Photolithography and Microlithography
F. Photoresists
G. Electron Beam Lithography
H. X-Ray Lithography
I. Circuit Wiring
J. Semiconductor Devices
K. Unsolved Problems in Semiconductor Materials Science
L. Suggestions for Further Reading
M. Study Questions

11. Superconductors
A. Overview
B. Nomenclature
C. Synthesis of High-Temperature Superconductors
D. Solid-State Structure
E. Theories of Superconduction
F. Other Superconducting Systems
G. Current and Proposed Uses for Superconductors
H. Challenges for the Future
I. Suggestions for Further Reading
J. Study Questions

12. Solid Ionic Conductors: Advanced Materials for Energy Generation and Energy Storage
A. General Observations
B. Fuel Cell Materials
C. Battery Electrolyte Materials
D. Capacitors and Supercapacitors
E. Challenges for the Future
F. Suggestions for Further Reading
G. Study Questions

13. Membranes
A. Background
B. Porous Membranes
C. Membranes that Function by a Chemical Reaction
D. Nonporous Membranes that Do Not React with Participating Molecules
E. Specific Examples of Materials Used in Solid Polymeric Membranes
F. Gel Membranes
G. Testing of Membranes
H. Sound Transducer Membranes
I. Challenges for the Future
J. Suggestions for Further Reading
K. Study Questions

14. Optical and Photonic Materials
A. Overview
B. Passive Optical Materials
C. Responsive Optical Materials
D. Challenges for the Future
E. Final Comments
F. Suggestions for Further Reading
G. Study Questions

15. Surface Science of Materials
A. Perspective
B. Summary of Characterization Methods
C. Surfaces of Metals
D. Ceramic Surfaces
E. Polymer Surfaces
F. Surfaces of Semiconductors
G. Assembly of Molecules on Surfaces
H. Adhesion and Surface Chemistry
I. Relationship to Other Materials Topics
J. Suggestions for Further Reading
K. Study Questions

16. Biomedical Materials
A. Special Requirements for Biomedical Materials
B. Traditional Biomedical Materials
C. Materials for Specific Medical Applications
E. Unsolved Problems in Biomedical Materials Science
F. Suggestions for Further Reading
G. Study Questions

17. Materials in Nanoscience and Nanotechnology
A. Background and Motivation
B. Synthesis and Fabrication of Nanostructures
C. Examples of Nanostructures
D. Major Challenges in Nanoscience and Technology
E. Suggestions for Further Reading
F. Study Questions

GLOSSARY
INDEX

An Atlas of Interpretative Radiographic Anatomy of the Dog and Cat 2E by Arlene Coulson, and Noreen Lewis Hardcover - 664 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST17 $238.20 ADD TO CART Published:  2008   ISBN:  9781405138994

This is the definitive reference for the small animal practitioner to normal radiographic anatomy of the cat and dog. With over forty years of experience between them, the authors have produced an invaluable reference atlas for the veterinary practitioner. The book is suitable for the general and referral based practitioner, undergraduate or postgraduate veterinary surgeon.

• Over 550 radiographic images analysed and explained
• More than 50 new figures added, with the quality of existing images enhanced
• Revised contents and page headers for easy-reference
• Clear informative line drawings to trace radiographic shadows and schematic drawings of underlying structures not seen in plain radiographs.

Table of Contents:

Preface
Acknowledgements
Introduction
I: Plain Radiography

1. DOG
1.1 Skeletal System
1.1.1 Appendicular Skeleton
Forelimb
Hindlimb
1.1.2 Axial Skeleton
Skull
Vertebrae, Ribs And Sternum
1.2 Soft Tissue
Pharynx And Larynx
Thorax
Abdomen

2. CAT
2.1 Skeletal System
2.1.1 Appendicular Skeleton
Forelimb
Hindlimb
2.1.2 Axial Skeleton
Skull
Vertebrae, Ribs And Sternum
2.2 Soft Tissue
Pharynx, Larynx and Thorax
Abdomen
II: Contrast Radiography

3. DOG
3.1 Soft Tissue
Bronchography
Barium Meal
Barium Enema
Pneumocolon
Cholecystography
Intravenous Urography
Cystography
Retograde Urethrography In Male
Retrograde Vaginography And Vaginourethrography In Female
Portography
Sialography
3.2 Skeletal System
Arthrography
Myelography

4. CAT
4.1 Soft Tissue
Barium Meal
Barium Impregnated Polyethylene Spheres (Bips).
Cholecystography
Intravenous Urography
Cystography
Retrograde Vaginography In Female
Retrograde Urethrography In Male
Portography
4.2 Skeletal System
Myelography
Bibliography

What is What in the Nanoworld: A Handbook on Nanoscience and Nanotechnology 2E by Victor E. Borisenko, and Stefano Ossicini Hardcover - 538 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# JW-SST18 $266.35 ADD TO CART Published:  2008   ISBN:  9783527407835

The second, completely revised and enlarged edition of What is What in the Nanoworld summarizes the terms and definitions, most important phenomena, and regulations occurring in the physics, chemistry, technology, and application of nanostructures. A representative collection of fundamental terms and definitions from quantum physics and chemistry, special mathematics, organic and inorganic chemistry, solid state physics, material science and technology accompanies recommended second sources (books, reviews, websites) for an extended study of any given subject.

Each entry interprets the term or definition under consideration and briefly presents the main features of the phenomena behind it. Additional information in the form of notes ("First described in", "Recognition", "More details in") supplements the entries and gives a historical perspective of the subject with reference to further sources.

Ideal for answering questions related to unknown terms and definitions among undergraduate and PhD students studying the physics of low-dimensional structures, nanoelectronics, and nanotechnology.

Table of Contents:

Preface to the Second Edition
Preface to the First Edition
Source of Information

A. From Abbe's principle to Axbel' - Kaner cyclotron resonance
B. Grom B92 protocol to Burstein-Moss Shift
C. From cage compound to cyclotron resonance
D. From D'Alembert equation to Dzyaloshinskii-Moriya interaction
E. From (e,2e) reaction to Eyring equation
F. From Fabry-Perot resonator to FWHM (full width at half maximum)
G. From gain-guided lasers to gyromagnetic frequency
H. From habit plane to hyperelastic scattering
I. From ideality factor to isotropy (of matter)
J. From Jahn - Teller effect to Joule's law of electric heating
K. From Kane Model to Kuhn-Thomas-Reiche sum rule
L. From lab-on-a-chip to Lyman series
M. From Mach-Zender interferometer to Murrell-Mottram potential
N. From NAA (neutron activation analysis) to Nyquist-Shannon sampling theorem
O. From octet rule to oxide
P. From PALM (photoactivable localization microscopy) to pyrrole
Q. From Q-control to qubit
R. From Rabi flopping to Rydberg gas
S. From Saha equation to synergetics
T. From Talbot's law to type II superconductors
U. From ultraviolet photoelectron spectroscopy (UPS) to Urbach rule
V. From vacancy to von Neumann machine
W. From Waidner-Burgess standard to Wyckoff notation
X. From XMCD (X-ray magnetic circular dichroism) to XRD (X-ray diffraction)
Y. From Yasukawa potential to Yukawa potential
Z. From Zeeman effect to Zundel ion

A list and a presentation of Scientific Journals which contain the stem Nano in their title
Abbreviations for the scientific journals which appear as sources in the text
Appendix - main properties of intrinsic (or lightly doped)
Semiconductors

The Physics and Chemistry of Nanosolids by Frank J. Owens, and Charles P. Poole, Jr. Hardcover - 540 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST19 $125.45 ADD TO CART Published:  2008   ISBN:  9780470067406

A comprehensive textbook that addresses the recent interest in nanotechnology in the engineering, materials science, chemistry, and physics communities

In recent years, nanotechnology has become one of the most promising and exciting fields of science, triggering an increasing number of university engineering, materials science, chemistry, and physics departments to introduce courses on this emerging topic. Now, Drs. Owens and Poole have revised, updated, and revamped their 2003 work, Introduction to Nanotechnology, to make it more accessible as a textbook for advanced undergraduate- and graduate-level courses on the fascinating field of nanotechnology and nanoscience.

The Physics and Chemistry of Nanosolids takes a pedagogical approach to the subject and assumes only an introductory understanding of the physics and chemistry of macroscopic solids and models developed to explain properties, such as the theory of phonon and lattice vibrations and electronic band structure. The authors describe how properties depend on size in the nanometer regime and explain why these changes occur using relatively simple models of the physics and chemistry of the solid state. Additionally, this accessible book:

• Provides an introductory overview of the basic principles of solids
• Describes the various methods used to measure the properties of nanosolids
• Explains how and why properties change when reducing the size of solids to nano-dimensions, and what they predict when one or more dimensions of a solid has a nano-length
• Presents data on how various properties of solids are affected by nanosizing and examines why these changes occur
• Contains a chapter entirely devoted to the importance of carbon nanostructured materials and the potential applications of carbon nanostructures

The Physics and Chemistry of Nanosolids is complete with a series of exercises at the end of each chapter for readers to enhance their understanding of the material presented, making this an ideal textbook for students and a valuable tutorial for technical professionals and researchers who are interested in learning more about this important topic.

Table of Contents:

Preface

Chapter 1: Physics of Bulk Solids
Chapter 2: Methods of Measuring Properties of Nanostructures
Chapter 3: Properties of Individual Nanoparticles
Chapter 4: The Chemistry of Nanostructures
Chapter 5: Polymer and Biological Nanostructures
Chapter 6: Cohesive Energy
Chapter 7: Vibrational Properties
Chapter 8: Electronic Properties
Chapter 9: Quantum Wells, Wires, and Dots
Chapter 10: Carbon Nanostructures
Chapter 11: Bulk Nanostructured Materials
Chapter 12: Mechanical Properties of Nanostructured Materials
Chapter 13: Magnetism in Nanostructures
Chapter 14: Nanoelectronics, Spintronics, Molecular Electronics and Photonics
Chapter 15: Superconductivity in Nanomaterials

Appendix A
Appendix B
Appendix C

Inorganic Chemistry by James E. House Softcover - 864 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST1 $104.55 ADD TO CART Published:  2008   ISBN:  9780123567864

This concise textbook meets several objectives. First, the topics included were selected in order to provide essential information in the major areas of inorganic chemistry (molecular structure, acid-base chemistry, coordination chemistry, ligand field theory, solid state chemistry, etc.). These topics form the basis for competency in inorganic chemistry at a level commensurate with the one semester course taught at most colleges and universities. The second objective has been to stress fundamental principles in the discussion of several topics. For example, the hard-soft interaction principle is employed in discussion of acid-base chemistry, stability of complexes, solubility, and predicting reaction products. Third, the presentation of topics is made with an effort to be clear and concise so that the book is portable and user friendly. This book presents in convenient form a readable account of the essentials of inorganic chemistry that can serve as both as a textbook for a one semester course upper level course and as a guide for self study. Figures, tables, and end-of-chapter problems round out this pedagogically rich, thematically balanced text for advanced undergraduate and graduate level students. . Concise coverage maximizes student understanding and minimizes the inclusion of details students are unlikely to use. . Discussion of elements begins with survey chapters focused on the main groups, while later chapters cover the elements in greater detail. . Each chapter opens with narrative introductions and includes figures, tables, and end-of-chapter problem sets.

Table of Contents:

1. Light Electrons and Nuclei - ionization potential, electron affinity, nuclide
2. Basic Quantum Mechanics and Atomic Structure - electron configuration, quantum mechanics, wave function
3. Covalent Bonding in Diatomic Molecules - electronegativity, wave functions, bond energy
4. A Survey of Inorganic Structures and Bonding - bond length, valence shell, bond angle
5. Symmetry and Molecular Orbitals - point group, molecular orbital diagram, molecule
6. Dipole Moments and Intermolecular Interactions - hydrogen bonding, London forces, CCl4
7. Ionic Bonding and Structures of Solids - lattice energy, Kapustinskii equation, anions
8. Dynamic Processes in Inorganic Solids - rate law, phase transitions, sintering
9. AcidBase Chemistry - Lewis acid, Lewis base, proton affinity
10. Chemistry in Nonaqueous Solvents - superacid, FeCl3, autoionization
11. Chemistry of Metallic Elements - lanthanides, Zintl phases, transition metals
12. Organometallic Compounds of the Main Group Elements - Grignard reagents, organometallic chemistry, triethylaluminum
13. Chemistry of Nonmetallic Elements I Hydrogen Boron Oxygen and Carbon - borazine, diborane, nonmetal
14. Chemistry of Nonmetallic Elements II Groups IVA and VA - phosphorus, nitric acid, phosphoric acid
15. Chemistry of Nonmetallic Elements I I Groups VIA to VINA - halogens, tellurium, selenium
16. Introduction to Coordination Chemistry - ligands, 18-electron rule, coordination compounds
17. Ligand Fields and Molecular Orbitals - ligand field theory, crystal field theory, d orbitals
18. Interpretation of Spectra - Tanabe-Sugano diagram, Racah parameters, ligand field theory
19. Composition and Stability of Complexes - ligands, equilibrium constants, coordination sphere
20. Synthesis and Reactions of Coordination Compounds - trans effect, coordination sphere, linkage isomerization
21. Complexes Containing MetalCarbon and MetalMetal Bonds - metal carbonyls, 18-electron rule, cyclopentadienyl
22. Coordination Compounds in Catalysis and Biochemistry - alkene, oxidative addition, reductive elimination
23. Ionization Energies - ionization potential kJ, potential kJ mol, z x2

Index

Criminal Profiling: An Introduction to Behavioral Evidence Analysis by Brent E. Turvey Hardcover - 816 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST2 $ 96.35 ADD TO CART Published:  2008   ISBN:  9780123741004

Now in its third edition, Criminal Profiling is established as an industry standard text. It moves evidence-based criminal profiling into a full embrace of the scientific method with respect to examining and interpreting behavioral evidence. If focuses on criminal profiling as an investigative and forensic process, helping to solve crime through an honest understanding of the nature and behavior of the most violent criminals. Throughout the text, the author outlines specific principles and practice standards for Behavioral Evidence Analysis, focusing on the application of theory and method to real cases.

Criminal Profiling, Third Edition, is an ideal companion for students and professionals alike, including investigators, forensic scientists, criminologists, mental health professionals, and attorneys. With contributing authors representing law enforcement, academic, mental health, and forensic science communities, it offers a balanced perspective not found in other books on this subject. Readers will use it as a comprehensive reference text, a handbook for evaluating physical evidence, a tool to bring new perspectives to cold cases, and as an aid in preparing for criminal trials.

• Best-selling author Brent Turvey defines the deductive profiling method, which focuses on examining the nature and behavior of criminals in order to solve crimes
• Contributing authors represent law enforcement, academic, mental health, and forensic science communities for a balanced perspective
• Completely revised with 35% new material including updates on the latest advances in evidence-based profiling

New to this edition

• New cases in every chapter
• New chapters in logic and reasoning
• New chapter reviewing non-evidence based profiling methods
• New chapter on mass homicide
• New chapter on terrorist profiling and interviewing

Table of Contents:

FOREWORD
ACKNOWLEDGMENTS xlvii
1. Criminal Profiling the Scientific Method
2. Nomothetic Methods of Criminal Profiling
3. Forensic Psychology Forensic Psychiatry
4. IdeoDeductive Method
5. An Introduction to Crime Reconstruction
6. Crime Scene Analysis
7. Wound Pattern Analysis
8. Staged Crime Scenes
5. Criminal Motivation
6. Offender Modus Operand
7. Victimology
8. False Reports
9. The Psychological Autopsy
10. Behavioral Aspects
11. Stalking
12. Domestic Homicide
13. Mass Homicide
14. Understanding
15. Rendering the Profile
16. Interpreting Psychopathic
17. Sexual Asphyxia
18. Serial Crime
19. Criminal Behavior
20. The Admissibility
21. Ethics and the Criminal Profiler
22. INDEX

Biochemistry of Lipids, Lipoproteins and Membranes by Denis E. Vance Hardcover - 624 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST3 $150.00 ADD TO CART Published:  2008   ISBN:  9780444532190

Research on the biochemistry and molecular biology of lipids and lipoproteins has experienced remarkable growth in the last 20 years, particularly with the realization that many different classes of lipids play fundamental roles in diseases such as heart disease, obesity, diabetes, cancer and neurodegenerative disorders. The 5th edition of this book has been written with two major objectives. The first objective is to provide students and teachers with an advanced up-to-date textbook covering the major areas of current interest in the lipid field. The chapters are written for students and researchers familiar with the general concepts of lipid metabolism but who wish to expand their knowledge in this area. The second objective is to provide a reference text for scientists who are about to enter the field of lipids, lipoproteins and membranes and who wish to learn more about this area of research. All of the chapters have been extensively updated since the 4th edition appeared in 2002.

Key Features:

• Represents a bridge between the superficial coverage of the lipid field found in basic biochemistry text books and the highly specialized material contained in scientific review articles and monographs.
• Allows scientists to become familiar with recent developments related to their own research interests, and will help clinical researchers and medical students keep abreast of developments in basic science that are important for subsequent clinical advances.
• Serves as a general reference book for scientists studying lipids, lipoproteins and membranes and as an advanced and up-to-date textbook for teachers and students who are familiar with the basic concepts of lipid biochemistry.

Table of Contents:

Gopal K Marathe - phospholipids, adipocytes, enzyme
Alfred H Merrill Jr - sphingolipids, cholesterol, glycosphingolipids
Makoto Miyazaki - lipid, plasma membrane, cholesterol
Phillips
Charles O. Rock - fatty acid synthesis, Thioesterase, bacteria
Schmid - plastids, diacylglycerol, chloroplast
HorstSchulz - mitochondria, carnitine, malonyl-CoA
Stuart Smith - lipoproteins, adipocytes, triacylglycerol
Ira Tabas
Jean E Vance
Wiczer
Wilton
Lipid modifications of proteins
Fatty acid and phospholipid metabolism in prokaryotes
Lipid metabolism in plants
Oxidation of fatty acids in eukaryotes
Fatty acid synthesis in eukaryotes
Fatty acid desaturation and chain elongation in mammals
Phospholipid biosynthesis in eukaryotes
Etherlinked lipids and their bioactive species
Lipid metabolism in adipose tissue
Phospholipases
Cyclooxygenase lipoxygenase and epoxygenase
Sphingolipids
Cholesterol biosynthesis
Metabolism and function of bile acids
Lipid assembly into cell membranes
Lipoprotein structure
Assembly and secretion of triacylglycerolrich lipoproteins
Dynamics of lipoprotein transport in the circulatory system
Lipoprotein receptors
Lipids and atherosclerosis

Subject Index
Color plate section

Contents
Role of lipids in cell function
Summary and future directions

CHAPTER
Membrane targeting and intracellular trafficking of fatty acylated and prenylated proteins
Future directions
Introduction
Lipid modifications of proteins Fig 1 are widespread and functionally important in eukary

Solid State Physics: Problems and Solutions by László Mihály, and Michael C Martin Softcover - 333 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST20 $ 92.70 ADD TO CART Published:  2008   ISBN:  9783527408559

The ideal companion in condensed matter physics - now in new and revised edition.

Solving homework problems is the single most effective way for students to familiarize themselves with the language and details of solid state physics. Testing problem-solving ability is the best means at the professor's disposal for measuring student progress at critical points in the learning process. This book enables any instructor to supplement end-of-chapter textbook assignments with a large number of challenging and engaging practice problems and discover a host of new ideas for creating exam questions.

Designed to be used in tandem with any of the excellent textbooks on this subject, Solid State Physics: Problems and Solutions provides a self-study approach through which advanced undergraduate and first-year graduate students can develop and test their skills while acclimating themselves to the demands of the discipline. Each problem has been chosen for its ability to illustrate key concepts, properties, and systems, knowledge of which is crucial in developing a complete understanding of the subject, including:

• Crystals, diffraction, and reciprocal lattices
• Phonon dispersion and electronic band structure
• Density of states
• Transport, magnetic, and optical properties
• Interacting electron systems
• Magnetism
• Nanoscale Physics

Table of Contents:
I. Problems
1. Crystal Structures
2. Interatomic Forces, Lattice Vibrations
3. Electronic Band Structure
4. Density of States
5. Elementary Excitations
6. Thermodynamics of Noninteracting Quasiparticles
7. Transport Properties
8. Optical Properties
9. Interactions and Phase Transitions
10. Mesoscopic and Nano-scale Systems
II. Solutions to Problems
1. Crystal Structures
2. Interatomic Forces, Lattice Vibrations
3. Electronic Band Structure
4. Density of States
5. Elementary Excitations
6. Thermodynamics of Noninteracting Quasiparticles
7. Transport Properties
8. Optical Properties
9. Interactions and Phase Transitions
10. Mesoscopic and Nano-scale Systems
Bibliography
Index

Student Projects in Environmental Science by Stuart Harrad, Lesley Batty, Miriam Diamond, & George Arhonditsis Softcover - 174 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST21 $ 45.40 ADD TO CART Published:  2008   ISBN:  9780470845660

Research projects are among the core components of many undergraduate and Masters degrees within environmental science and physical geography, and students increasingly undertake courses in quantitative research methodology before starting on their own assignment. This one-stop-shop text guides students through their research project from the initial stages of choosing a suitable topic, of conducting the relevant experiments and interpreting the data, through to effective presentation of the results.

• Takes a case-study approach to illustrate the range of environmental science topics, with cases supplied by specialists in the field.
• Practical worked examples and self-assessment tasks illustrate key statistical and mathematical points so as to keep heavy theory to a minimum
• Covers software such as Excel, SPSS and mathematical modelling, and includes statistical tables

Table of Contents:

Preface
Acknowledgement

1. General strategies for completing your research project successfully
1.1 Introduction – why is this book necessary?
1.2 What on earth am I going to do for my research project?
1.3 Fundamentals of scientific research, the generation and testing of hypotheses (see also Chapter 3)
1.4 What constitutes research? Distinguishing between monitoring and research
1.5 Project planning
1.6 Conducting your project safely
1.7 How to conduct a literature review (see also chapter 7)
1.8 How to be a research student
1.9 How to manage your supervisor
1.10 Summary

2. Gathering your data
2.1 Different types of data
2.2 Designing an experimental research project
2.3 How reliable are your data?

3. How to summarise your data
3.1 Descriptive statistics
3.2 Probabilities and data distributions
3.3 Choosing the appropriate statistical test

4. Testing hypotheses
4.1 Coincidence or causality?
4.2 Relationships and differences
4.3 Testing for differences

5. Spotting relationships
5.1 Linear regression – to what extent does one factor influence another?
5.2 Multiple linear regression – to what extent is a given variable influenced by a range of other variables?
5.3 Non-linear regression
5.4 Pattern recognition

6. Making sense of past, present and future systems – mathematical modelling
6.1 What is a model?
6.2 Functions of models
6.3 Which type of model should I use?
6.4 How do I build a model?
6.5 Steps in developing a model
6.6 Illustrative case study

7. Presenting your work
7.1 Getting started – strategies for successful writing
7.2 How to write your dissertation
7.3 How to represent graphically your data
7.4 How to cite references
7.5 How to defend your work in an oral exam
7.6 How to make effective oral presentations
7.7 Summary

Index

Fluid Mechanics by Pijush K. Kundu, Ira M. Cohen, and P. S. Ayyaswamy Hardcover - 904 pages Shipped in CLICK HERE (IN STOCK) Cat.# EL-SST5 $104.55 ADD TO CART Published:  2008   ISBN:  9780123737359

Introduction - Cartesian tensors - Kinematics - Conservation laws - Vorticity dynamics - Irrotational flow - Gravity waves - Dynamic similarity - Laminar flow - Boundary layers and related topics - Computational fluid dynamics - Instability - Turbulence - Geophysical fluid dynamics - Aerodynamics - Compressible flow - Introduction to biofluid mechanics.

Fundamentals of Air Pollution by Daniel A. Vallero Hardcover - 968 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST6 $134.55 ADD TO CART Published:  2008   ISBN:  9780123736154

Fundamentals of Air Pollution is an important and widely used textbook in the environmental science and engineering community. Written shortly after the passage of the seminal Clean Air Act Amendments of 1990, the third edition was quite timely. Surprisingly, the text has remained relevant for university professors, engineers, scientists, policy makers and students up to recent years. However, in light of the transition in the last five years from predominantly technology-based standards (maximum achievable control technologies or MACTs) to risk-based regulations and air quality standards, the text must be updated significantly. The fourth edition will be updated to include numerous MACTs which were not foreseen during the writing of the third edition, such as secondary lead (Pb) smelting, petroleum refining, aerospace manufacturing, marine vessel loading, ship building, printing and publishing, elastomer production, offsite waste operations, and polyethylene terephthalate polymer and styrene-based thermoplastic polymers production. Overall, revisions will reflect the numerous changes in the understanding of air pollution and the development of new technologies that has occurred in the past twelve years.

• Focuses on the process of risk assessment, management and communication, the key to the study of air pollution.
• Provides the latest information on the technological breakthroughs in environmental engineering since last edition
• Updated information on computational and diagnostic and operational tools that have emerged in recent years.

Advances in Marine Biology by D. W Sims Hardcover - 304 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST7 $174.55 ADD TO CART Published:  2008   ISBN:  9780123743510

Advances in Marine Biology was first published in 1963 under the founding editorship of Sir Frederick S. Russell, FRS. Now edited by D.W. Sims (Marine Biological Association Laboratory, Plymouth, UK), with an internationally renowned Editorial Board, the serial publishes in-depth and up-to-date reviews on a wide range of topics which will appeal to postgraduates and researchers in marine biology, fisheries science, ecology, zoology, and biological oceanography. Eclectic volumes in the series are supplemented by thematic volumes on such topics as "The Biology of Calanoid Copepods".

• Highly cited review papers and thematic volumes in the broad area of marine biology
• Complete review and synthesis of scientific work that exposes newcomers to a thorough understanding of the background in the field
• Special attention given to high-quality figures and tables with color throughout

Physical Chemistry by Robert G. Mortimer Hardcover - 1,416 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST8 $138.20 ADD TO CART Published:  2008   ISBN:  9780123706171

In this third edition, core applications have been added along with more recent developments in the theories of chemical reaction kinetics and molecular quantum mechanics, as well as in the experimental study of extremely rapid chemical reactions.

• Fully revised concise edition covering recent developments in the field
• Clear and comprehensive text ideal for undergraduate and graduate course study
• Encourages readers to apply theory in practical situations

Table of Contents:

The Behavior of Gases and Liquids
The First Law
The Thermodynamics of Real Systems
Phase Equilibrium
Chapter
Chemical Equilibrium
The Thermodynamics of Electrochemical Systems
The Molecular Theory of Dilute Gases
Chapter
Rate Laws
Catalysis and Miscellaneous
Classical Mechanics and the Old Quantum Theory
The Principles of Quantum Mechanics I De Broglie Waves
The Principles of Quantum Mechanics II The Postulates
The Electronic States of Atoms I The Hydrogen Atom
The Electronic States of Atoms II The ZeroOrder Approximation
Chapter - inexact differential , internal energy , isothermally
Chapter - Raoult's law , Maxwell relation , Helmholtz energy
Chapter
Chapter
Molecules
Optical Spectroscopy and Photochemistry
Magnetic Resonance Spectroscopy
Equilibrium Statistical Mechanics I The Probability
Equilibrium Statistical Mechanics II Statistical
Equilibrium Statistical Mechanics III Ensembles
Liquids
The Structure of Solids Liquids and Polymers

Appendices
B Some Useful Mathematics
A Short Table of Integrals
E Classical Mechanics
F Some Mathematics Used in Quantum Mechanics
G The Perturbation Method
H The Hiickel Method
J Symbols Used in This Book
K Answers to Numerical Exercises and Odd Numbered
Additional Reading
Index

Guide to Essential Math: A Review for Physics, Chemistry and Engineering Students by S. M. Blinder Softcover - 312 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST9 $ 60.90 ADD TO CART Published:  2008   ISBN:  9780123742643

This book attempts to remind students in junior, senior and graduate level courses in physics, chemistry and engineering of the math they may have forgotten (or learned imperfectly) which is needed to succeed in science courses. The focus is on math actually used in physics, chemistry and engineering, and the approach to mathematics begins with 12 examples of increasing complexity, designed to hone the student's ability to think in mathematical terms and to apply quantitative methods to scientific problems. By the author's design, no problems are included in the text, to allow the students to focus on their science course assignments. - Highly accessible presentation of fundamental mathematical techniques needed in science and engineering courses - Use of proven pedagogical techniques develolped during the authors 40 years of teaching experience - Full color illustrations and links to reference material on World-Wide-Web - Coverage of fairly advanced topics, including vector and matrix algebra, partial differential equations, special functions and complex variables

Table of Contents:

1. Mathematical Thinking - mathematics, physical, language
2. The NCAA March Madness Problem
3. The Pythagorean Theorem - Pythagorean theorem, Pythagoras, Pictorial proof
4. Torus Area and Volume - theorem of Pappus, torus, surface of revolution
5. Einsteins Velocity Addition Law - speed of light, photon, move at velocity
6. The Birthday Problem - 366 possible birthdays, better than 50, gives the probability
7. Fibonacci Numbers and the Golden Ratio - Fibonacci numbers, rabbits, sequence
8. VTT in the Gaussian Integral - golden ratio, divine proportion, Gaussian
9. Function Equal to Its Derivative - polar coordinates, Exponentiating, Jo Jo
10. Log of N Factorial for Large N
11. Riemann Zeta Function and Prime Numbers - Riemann Zeta Function, prime numbers, energy
12. How to Solve It - determine the unknown, related problem, UNDERSTANDING THE PROBLEM
13. A Note on Mathematical Rigor - Riemann integrals, physicist, Mathematical Rigor
14. Numbers - Zermelo-Fraenkel set theory, integers, continuum hypothesis
15. Algebra - natural logarithm, quadratic equation, Argand diagram
16. Trigonometry - hyperbolic functions, unit circle, Pythagorean theorem
17. Analytic Geometry - hyperbola, conic section, ellipse
18. Calculus - gamma function, antiderivative, differential calculus
19. Series and Integrals - Fourier series, Taylor series, asymptotic series
20. Differential Equations - differential equation, separation of variables, Bessel functions
21. Matrix Algebra - Hermitian conjugate, spacetime interval, matrix multiplication
22. Multivariable Calculus - exact differential, line integral, Green's theorem
23. Vector Analysis - Maxwell's equations, curvilinear coordinates, vector field
24. Partial Differential Equations and Special Functions - Laplace's equation, spherical harmonics, separation of variables
25. Complex Variables - analytic function, Cauchy-Riemann equations, multivalued function
26. About the Author - theoretical chemistry, Quantum Mechanics, Materials Science

Applied Principles of Horticultural Science by Laurie Brown Softcover - 344 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST11 $ 56.35 ADD TO CART Published:  2008   ISBN:  9780750687027

Applied Principles of Horticultural Science is that critical thing for all students of horticulture - a book that teaches the theory of horticultural science through the practice of horticulture itelf. The book is divided into three sections - Plant science, Soil science, Pest and disease. Each section contains a number of chapters relating to a major principle of applied horticulture. Each chapter starts with a key point summary and introduces the underpinning knowledge which is then reinforced by exercises. The book contains over 70 practical exercises, presented in a way that makes students think for themselves. Answers to the exercises are given at the end of chapters. Clear step-by-step instructions make practical work accessible to students of all abilities. This new third edition provides an even wider sweep of case studies to make this book an essential practical workbook for horticulture students and gardners alike. Updated material fits with the latest RHS, City and Guilds and Edexcel syllabus. It is particularly suitable for the RHS Certificate, Advanced Certificate and Edexcel Diplomas as well as for those undertaking NPTC National, Advanced National courses and Horticulture NVQs at levels 2 and 3, together with the new Diploma in Environmental and Land-based studies. Laurie Brown is a horticultural scientist and educator. He is Director of Academex, a consultancy company aspiring to excellence in teaching and learning. Laurie previously worked with the Standards Unit on the design of exemplary teaching resources in the land-based sector.

• Gain an understanding of the practical application of horticultural science
• Have the essential information for your course at your fingertips
• Test and confirm your learning with model questions and exercises throughout

Table of Contents:

1. Seed propagation viability and vigour - germination, cotyledons, Dicotyledon
2. Propagation - rhizomes, corms, stolon
3. Weed biology and control - Cirsium arvense, groundsel, herbicides
4. The leaf and photosynthesis - photosynthesis, chlorophyll, stomata
5. Respiration and storage - Anaerobic respiration, photosynthesis, lime water
6. Plant water - plasmolysis, osmosis, root pressure
7. Water transportation pathways and processes - phloem, epidermis, plant stems
8. Flower structure - stamens, sepals, ovary
9. Soil formation and texture - Soil texture, parent material, capillary action
10. Soil structure and profiles - soil profile, podsol, Soil structure
11. Soil water - field capacity, capillary action, Permanent wilting point
12. Measuring soil pH - compost, growth medium, soil pH
13. Raising soil pH - calcium oxide, soil acidity, limestone
14. Lowering soil pH increasing soil acidity - soil texture, hydrochloric acid, compost
15. Soil organisms and composting - springtails, woodlice, macrofauna
16. Soil organic matter - nitrogen cycle, nitrate, leachate
17. Plant nutrition - nutrients, Ammonium nitrate, nitrogen
18. Fertilizers - Ammonium nitrate, foliar feed, Kieserite
19. Fungi - mycelium , hyphae, spores
20. Insects and mites - larvae, aphids, pupae
21. Nematodes - potato cyst nematode, filter paper, neutral red
22. Biological control - whitefly, thrips, biological control
23. List of useful suppliers - Wadhurst, microscopic slides, Biological control products

Antarctic Climate Evolution by Fabio Florindo, and Martin Siegert Hardcover - 606 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST12 $185.45 ADD TO CART Published:  2008   ISBN:  9780444528476

This is the first book dedicated to the developing knowledge on how the world's largest ice sheet formed and changed over its 34 million years history. In explaining the story of Antarctica, information on terrestrial and marine geology, sedimentology, glacier geophysics (including airborne reconnaissance), ship-borne geophysics, and numerical ice sheet and climate modelling, will be interwoven within eleven chapters, each dealing with an important historical theme. The approach will be to first 'set the scene', involving chapters dedicated to how ice sheets and their glacial history can be measured. This opening section will provide information necessary to comprehend the latter section of the book, in which five chapters will related the glacial and climate evolution of Antarctica during the most important time-frames in which changes have occurred.

• An overview of Antarctic climate change, analysing historical, present day and future developments
• Contributions from leading experts and scholars from around the world
• Informs and updates climate change scientists and experts in related areas of study

Table of Contents:

1. A History of Developments - International Polar Commission, International Geophysical, Antarctica
2. A History of Antarctic Cenozoic Glaciation View from - McMurdo Sound, Ross Sea, Oligocene
3. Cenozoic Climate History from Seismic Reflection and Drilling - Weddell Sea, Antarctic Peninsula, Prydz Bay
4. Numerical Modelling of the Antarctic Ice Sheet - subglacial lakes, ice-sheet models, ice streams
5. A Tectonic - Gondwana, Shackleton Range, Rodinia
6. From Greenhouse to Icehouse The EoceneOligocene - Seymour Island, Palaeogene, King George Island
7. The OligoceneMiocene Boundary Antarctic Climate - Kerguelen Plateau, Paleoceanography, isotope
8. Middle Miocene to Pliocene History of Antarctica - Mount Murphy, diamict, Meyer Desert
9. Late Pliocene Pleistocene Antarctic Climate Variability - Marine Isotope Stage, EPICA, interglacial
10. Antarctica at the Last Glacial Maximum - Amery Ice Shelf, Vestfold Hills, Siple Coast
11. Recent Changes in Antarctica - Wingham, Florindo, ice shelves

Subject Index

Essentials of Mathematical Methods in Science and Engineering by S. Selcuk Bayin Hardcover - 802 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST22 $167.25 ADD TO CART Published:  2008   ISBN:  9780470343791

Essentials of Mathematical Methods in Science and Engineering introduces mathematical techniques and topics unique to the undergraduate curriculum like series, complex analysis, variational calculus, and integral transforms. Equip students early in the process with mathematical skills that are required by a majority of the physics and engineering undergraduate programs. Because each chapter is a review of its subject and could be read independently, this book is a useful reference or refresher for scientists and also allows instructors to choose their own subset for classroom discussion. Establish the background needed to understand advanced topics.

Table of Contents:

Preface
Acknowledgments

1. Functional Analysis
2. Vector Analysis
3. Generalized Coordinates and Tensors
4. Determinants and Matrices
5. Linear Algebra
6. Sequences and Series
7. Complex Numbers and Functions
8. Complex Analysis
9. Ordinary Differential Equations
10. Second-Order Differential Equations and Special Functions
11. Bessel's Equation and Bessel Functions
12. Partial Differential Equations and Separation Variables
13. Fourier Series
14. Fourier and Laplace Transforms
15. Calculus of Variations
16. Probability Theory and Distributions
17. Information Theory

References
Index

Fundamentals of Physical Volcanology by Liz Parfitt, and Lionel Wilson Hardcover - 256 pages Shipped in CLICK HERE (IN STOCK) Cat.# JW-SST23 $ 69.95 ADD TO CART Published:  2008   ISBN:  9780632054435

Fundamentals of Physical Volcanology is a comprehensive overview of the processes that control when and how volcanoes erupt. Understanding these processes involves bringing together ideas from a number of disciplines, including branches of geology, such as petrology and geochemistry; and aspects of physics, such as fluid dynamics and thermodynamics.

This book explains in accessible terms how different areas of science have been combined to reach our current level of knowledge of volcanic systems. It includes an introduction to eruption types, an outline of the development of physical volcanology, a comprehensive overview of subsurface processes, eruption mechanisms, the nature of volcanic eruptions and their products, and a review of how volcanoes affect the environment.

Fundamentals of Physical Volcanology is essential reading for undergraduate students in earth science.

Table of Contents:

Preface
Acknowledgments
Dedication
Glossary

1. Volcanic Systems
1.1 Introduction
1.2 Styles of Volcanic Eruptions
1.3 Volcanic Systems
1.4 The Structure and Aims of this Book
1.5 Further Reading
1.6 Questions to Think About

2. Magma Generation and Segregation
2.1 Introduction
2.2 Rock Melting Mechanisms
2.3 Volcanism and Plate Tectonics
2.4 Melting and Melt Segregation in the Mantle
2.5 Summary
2.6 Further Reading
2.7 Questions to Think About

3. Magma Migration
3.1 Introduction
3.2 Diapiric Rise of Melt
3.3 The Change from Diapir Rise to Dike Formation
3.4 Dike Propagation
3.5 Trapping of Dikes
3.6 Consequences of Dike Trapping
3.7 Summary
3.8 Further Reading
3.9 Questions to Think About

4. Magma Storage
4.1 Introduction
4.2 Evidence for Magma Storage Within the Crust
4.3 Formation and Growth of Magma Chambers
4.4 Magma Chambers and their Impact on Volcanic Systems
4.5 Summary
4.6 Further Reading
4.7 Questions to Think About

5. The Role of Volatiles
5.1 Introduction
5.2 Volatiles in Magma
5.3 The Solubility of Volatiles in Magma
5.4 Bubble Nucleation
5.5 Bubble Growth
5.6 Magma Fragmentation and the Influence of Volatiles on Eruption Styles
5.7 Summary
5.8 Further Reading
5.9 Questions to Think About

6. Steady Explosive Eruptions
6.1 Introduction
6.2 Influence of Gas Bubbles Prior to Magma Fragmentation
6.3 Acceleration of the Gas–Magma Mixture
6.4 Controls on Exit Velocity
6.5 Eruption Plumes in Steady Eruptions
6.6 Fallout of Clasts from Eruption Plumes
6.7 Unstable Eruption Columns
6.8 Summary
6.9 Further Reading
6.10 Questions to Think About

7. Transient Volcanic Eruptions
7.1 Introduction
7.2 Magmatic Explosions
7.3 Transient Eruptions Involving External Water
7.4 Summary
7.5 Further Reading
7.6 Questions to Think About

8. Pyroclastic Falls and Flows
8.1 Introduction
8.2 Fallout of Clasts from Eruption Columns
8.3 The Application of Eruption Column Models
8.4 Pyroclastic Density Currents and their Deposits
8.5 Summary
8.6 Further Reading
8.7 Questions to Think About

9. Lava Flows
9.1 Introduction
9.2 Origin of Lava Flows
9.3 Types of Lava Flow
9.4 Lava Flow Rheology
9.5 Rheological Control of Lava Flow Geometry
9.6 Lava Flow Motion
9.7 Lengths of Lava Flows
9.8 Surface Textures of Lava Flows
9.9 Effects of Ground Slope and Lava Viscosity
9.10 Summary
9.11 Further Reading
9.12 Questions to Think About

10. Eruption Styles, Scales and Frequencies
10.1 Introduction
10.2 Chemical Composition and Styles of Volcanic Activity
10.3 Chemical Composition and Effusive Eruptions
10.4 Chemical Composition and Explosive Eruptions
10.5 Summary of Compositional Controls on Eruption Character
10.6 Magnitudes and Frequencies of Volcanic Eruptions
10.7 Elastic and Inelastic Eruptions
10.8 Eruptions of Exceptional Magnitude
10.9 Summary
10.10 Further Reading
10.11 Questions to Think About

11. Volcanic Hazards and Volcano Monitoring
11.1 Introduction
11.2 Types of Volcanic Hazard
11.3 Hazard Assessment
11.4 Monitoring Volcanoes and Short-Term Eruption Prediction
11.5 Hazard Mitigation
11.6 Summary
11.7 Further Reading
11.8 Questions to Think About

12. Volcanoes and Climate
12.1 Introduction
12.2 Evidence for the Impact of Volcanic Eruptions on Climate
12.3 Satellite Monitoring of Climate Change after Volcanic Eruptions
12.4 The Effects of Volcanic Eruptions on Climate
12.5 Volcanoes and Mass Extinctions
12.6 Summary
12.7 Further Reading
12.8 Questions to Think About

13. Volcanism on Other Planets
13.1 Introduction
13.2 Volcanically Active Bodies in the Solar System
13.3 The Effects of Environmental Conditions on Volcanic Processes
13.4 The Moon
13.5 Mars
13.6 Venus
13.7 Mercury
13.8 Io
13.9 Europa
13.10 Differentiated Asteroids
13.11 Summary
13.12 Further Reading
13.13 Questions to Think About

Answers to Questions
Index

Introduction to Astronomy and Cosmology by Ian Morison Softcover - 360 pages Shipped in CLICK HERE (STOCK LOW) Cat.# JW-SST24 $ 69.95 ADD TO CART Published:  2008   ISBN:  9780470033340

Introduction to Astronomy & Cosmology is a modern undergraduate textbook, combining both the theory behind astronomy with the very latest developments. Written for science students, this book takes a carefully developed scientific approach to this dynamic subject. Every major concept is accompanied by a worked example with end of chapter problems to improve understanding

• Includes coverage of the very latest developments such as double pulsars and the dark galaxy.
• Beautifully illustrated in full colour throughout
• Supplementary web site with many additional full colour images, content, and latest developments.

Table of Contents:

Preface
Bibliography

Chapter 1: Astronomy, an Observational Science
1.1 Introduction
1.2 Galileo Galilei's proof of the Copernican theory of the solar system
1.3 The celestial sphere and stellar magnitudes
1.4 The celestial coordinate system
1.5 Precession
1.6 Time
1.7 A second major observational triumph: the laws of planetary motion
1.8 Measuring the astronomical unit
1.9 Isaac Newton and his Universal law of Gravity
1.10 Experimental measurements of G, the Universal constant of gravitation
1.11 Gravity today: Einstein’s special and general theories of relativity
1.12 Conclusion
1.13 Questions

Chapter 2: Our Solar System 1 – The Sun
2.1 The formation of the solar system
2.2 The Sun
2.3 Nuclear fusion
2.4 The solar neutrino problem
2.5 The solar atmosphere: photosphere, chromosphere and corona
2.6 The solar wind
2.7 The sun’s magnetic field and the sunspot cycle
2.8 Prominences, flares and the interaction of the solar wind with the earth’s atmosphere
2.9 Solar eclipses
2.10 Questions

Chapter 3: Our Solar System 2 – The Planets
3.1 What is a planet?
3.2 Planetary orbits
3.3 Planetary properties
3.4 Planetary atmospheres
3.5 The planets of the solar systems
3.6 Comets
3.7 Questions

Chapter 4: Extra-solar Planets
4.1 The radial velocity (Doppler wobble) method of planetary detection
4.2 Planetary transits
4.3 Gravitational microlensing
4.4 Astrometry
4.5 Discovery space
4.6 Selection effects and the likelihood of finding solar systems like ours
4.7 Questions

Chapter 5: Observing the Universe
5.1 Thinking about optics in terms of waves rather than rays
5.2 The human eye
5.3 The use of a telescope or pair of binoculars to see fainter objects
5.4 Using a telescope to see more detail in an image
5.5 The magnification of a telescope
5.6 Image Contrast
5.7 The classic Newtonian telescope
5.8 The Cassegrain telescope
5.9 Catadioptric telescopes
5.10 Active and adaptive optics
5.11 Some significant optical telescopes
5.12 Radio telescopes
5.13 Observing in other wavebands
5.14 Observing the universe without using electromagnetic radiation
5.15 Questions

Chapter 6: The Properties of Stars
6.1 Stellar luminosity
6.2 Stellar distances
6.3 Proper motion
6.4 The absolute magnitude scale
6.5 Colour and surface temperature
6.6 Stellar photometry
6.7 Stellar spectra
6.8 Spectroscopic parallax
6.9 The Hertzsprung-Russell Diagram
6.10 The size of stars
6.11 The masses and densities of stars
6.12 The stellar mass-luminosity relationship
6.13 Stellar lifetimes
6.14 Questions

Chapter 7: Stellar Evolution – The Life and Death of Stars
7.1 Low mass stars: 0.05-0.5 solar masses
7.2 Mid mass stars: 0.5—8 solar masses
7.3 Variable stars
7.4 Planetary nebula
7.5 White dwarfs
7.6 The evolution of a sun-like star
7.7 Evolution in close binary systems – the Algol paradox
7.8 High mass stars in the range >8 solar masses
7.9 Type II supernova
7.10 Neutron stars and black holes
7.11 The discovery of pulsars
7.12 Pulsars as tests for general relativity
7.13 Black holes
7.14 Questions

Chapter 8: Galaxies and the Large Scale Structure of the Universe
8.1 The Milky Way
8.2 Other galaxies
8.3 The universe
8.4 Questions

Chapter 9: Cosmology – the Origin and Evolution of the Universe
9.1 Einstein’s blunder?
9.2 Big Bang models of the universe
9.3 The blueshifts and redshifts observed in the spectra of galaxies
9.4 The expansion of the universe
9.5 The steady state model of the universe
9.6 Big Bang or Steady State?
9.7 The cosmic microwave background
9.8 Inflation
9.9 The Big Bang and the formation of the primeval elements
9.10 The ‘ripples’ in the Cosmic Microwave Background
9.11 How dark matter effects the cosmic microwave background
9.12 The hidden universe: dark matter and dark energy
9.13 The makeup of the universe
9.14 A universe fir for intelligent life
9.15 Intelligent life in the universe
9.16 The future of the universe

Index

Geoforensics by Alastair Ruffell, and Jennifer McKinley Hardcover - 340 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# JW-SST25 $ 69.95 ADD TO CART Published:  2008   ISBN:  9780470057353

This book is a comprehensive introduction to the application of geoscience to criminal investigations. Clearly structured throughout, the text follows a path from the large-scale application of remote sensing, landforms and geophysics in the first half to the increasingly small-scale examination of rock and soils to trace amounts of material. The two scales of investigation are linked by geoscience applications to forensics that can be applied at a range of dimensions. These include the use of topographic mapping, x-ray imaging, geophysics and remote sensing in assessing whether sediment, rocks or concrete may have hidden or buried materials inside for example, drugs, weapons, bodies.

This book describes the wider application of many different geoscience-based methods in assisting law enforcers with investigations such as international and national crimes of genocide and pollution, terrorism and domestic crime as well as accident investigation. The text makes a clear link to the increasingly important aspects of the spatial distribution of geoscience materials (be it soil sampling or the distribution of mud-spatter on clothing), Geographic Information Science and geostatistics.

• A comprehensive introduction to the application of geoscience to criminal investigation
• Examples taken from an environmental and humanitarian perspective in addition to the terrorist and domestic criminal cases more regularly discussed
• A chapter on the use of GIS in criminalistics and information on unusual applications and methods - for example underwater scene mapping and extraterrestrial applications
• Material on how geoscience methods and applications are used at a crime scene
• Accompanying website including key images and references to further material
• An invaluable text for both undergraduate and postgraduate students taking general forensic science degrees or geoscience courses

"The whole book is peppered with useful and appropriate examples from the authors’ wide experiences and also from the wider literature... an essential purchase for any forensic science department as well as for any law enforcement organisation." Lorna Dawson, Macaulay Institute

Table of Contents:

Acknowledgements
Preamble

1. Background to the work, organization of the text and history of research
1.1 The scene
1.2 The victim and materials
1.3 The suspect
1.4 The scope of geoforensics

2. Physical geography, geomorphology, landform interpretation, archaeology, stratigraphy and hydrodynamics
2.1 Physical geography
2.2 Atmosphere
2.3 Types of landscapes, landscape change and human influences on the landscape (short and long term)
2.4 Soils
2.5 Hydrodynamics of rivers, lakes, estuaries, seas and oceans
2.6 Geography, geomorphology, geological and soil maps, and other resources
2.7 Groundwater

3. Geophysics
3.1 Seismic methods: macro to micro
3.2 Gravity/gravimetrics
3.3 Electrical
3.4 Magnetic and electromagnetic
3.5 Ground-penetrating radar (GPR).
3.6 Radiometrics
3.7 Review of why some methods are favoured and others not

4. Remote sensing
4.1 Definitions
4.2 Conventional aerial photography: rural and urban examples
4.3 Geoscience use of light photography
4.4 Infrared photography
4.5 Elevation modelling
4.6 Photogrammetry
4.7 Synthetic Aperture Radar (SAR) and interferometry
4.8 Multispectral and thermal imaging
4.9 Hyperspectral imaging
4.10 Satellite mapping
4.11 Long-distance LIDAR (satellite, aerial).
4.12 Laser scanning of scenes and objects
4.13 X-ray imagery, X-ray tomography and neutron activation
4.14 Field Portable X-ray Fluorescence (FPXRF) spectrometry
4.15 Some conjecture on the future of remote sensing applications

5. Spatial location and geographic information science
5.1 Geographic location and crime
5.2 Spatial data and GIs
5.3 Spatial analysis within GIs
5.4 Use of Google Earth in criminal investigations

6. Scale, sampling and geostatistics
6.1 Scale and spatial resolution
6.2 Sampling for geological materials at urban and non-urban crime scenes
6.3 Timing of the crime
6.4 Sample size
6.5 Lateral variation
6.6 Use and misuse of statistics in forensic studies
6.7 Statistical sampling
6.8 Number of samples required for robust statistical analysis
6.9 Comparing ‘like with like’.
6.10 Addressing the issue of comparing related material
6.11 Spatial and temporal variability in nature
6.12 Spatial awareness and use of spatial statistics: application of geostatistics
6.13 Geostatistical techniques
6.14 GIS and geostatistics

7. Conventional geological analysis
7.1 Elementary analysis of rocks 185.
7.2 Hand-specimen analysis case studies from Murray and Tedrow (1991)
7.3 Sediment analysis
7.4 Fossils and microfossils
7.5 A paradigm shift in geoforensics?

8. Trace evidence
8.1 What is geological trace evidence?
8.2 Scanning Electron Microscope (SEM)
8.3 Laser Raman spectroscopy
8.4 Inductively-coupled plasma spectroscopy
8.5 Isotope analysis
8.6 X-ray diffraction and trace evidence
8.7 Manufactured or processed materials that geoscience techniques can analyse
8.8 Some conjecture on the future of trace evidence

9. The search for buried materials
9.1 Introduction
9.2 Possible methodologies for non-urban underground searches
9.3 Underwater searches and scene mapping (remote sensing, geophysics)
9.4 Gas monitoring, organic remains and the decomposition of bodies
9.5 Weird and wonderful burial locations
10. Circuit complete

Appendix 1. Search methods
Appendix 2. Soil sampling
a1 Sampling protocol suggestions

References
Index

Evolutionary Bioinformatics by Donald R. Forsdyke Hardcover - 424 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# DA-SST5 $ 94.55 ADD TO CART Published:  2007   ISBN:  9780387334189

• Written to make information-based bioinformatics intelligible both to the 'bio' and the 'info' audience
• Identifies types of information that genomes transmit, shows how competition is resolved in the genomes of different organisms, and identifies evolutionary forces involved
• Fulfills the emerging need of non-science students for an interdisciplinary course

This book identifies the types of information that genomes transmit, shows how competition between different types is resolved in the genomes of different organisms, and identifies the evolutionary forces involved. The early chapters relate the form of information with which we are most familiar, namely written texts, to the DNA text that is our genome. This lends itself well to introducing historical aspects dating back to the nineteenth century.

Table of Contents: Prologue. Part 1: Memory-A Phenomenon of Arrangement. Chargaff’s First Parity Rule. Information Levels and Barriers. Part 2: Chargaff’s Second Parity Rule. Stems and Loops. Chargaff’s Cluster Rule. Part 3: Mutation and Speciation. Species Survival and Arrival. Chargaff’s GC Rule. Part 4: Conflict with Genomes. Conflict Resolution. Exons and Introns. Complexity. Part 5: Conflict Between Genomes. Sef/Not-Self? The Crowded Cytosol. Part 6: Sex and Error-Correction. Rebooting the Genome. The Fifth Letter. Epilogue. Appendix 1: What the Graph Says. Appendix 2: Scoring Information Potential. Appendix 3: No Line? Acknowledgements. References and Index.

Survival Guide for Physical Chemistry by Michelle Francl Paperback - 136 pages Shipped in 7 days Cat.# PCI-B1 $ 70.00 ADD TO CART ISBN:  0971313407

Students often approach physical chemistry with some trepidation, both the mathematical skills and the laboratory present significant challenges to most. This book grew out of materials developed by the author over many years of teaching physical chemistry. It is neither a math book, nor a chemistry book, but instead places the mathematics and other skills necessary for physical chemistry in a usable context. The Survival Guide aims to give students the tools they need not only to survive physical chemistry, but perhaps even to enjoy it!

One of the major objectives of this book is to provide the student with a ready reference to the mathematical knowledge base necessary in a physical chemistry course, and provide ways to bridge the gap between the math and its application to physical chemistry. The chapter entitled “Guerilla Math” provides this and a wealth of other information. The basics, such as how to integrate sin(x), are covered; as are more sophisticated topics, including numerical solutions to differential equations and operator algebra. Particular emphasis is placed on techniques useful in physical chemistry that may not have been stressed in the corresponding math course. Worked examples are taken from typical physical chemistry problems. It's one thing to see the definition of a total derivative, quite another to realize how it can be used to derive the Maxwell relations in thermochemistry.

Computers are a ubiquitous tool for physical chemists and physical chemistry students. The chapter entitled "Beyond Pencil and Paper" takes students on a tour of what can be accomplished with a spreadsheet or symbolic math program such as Mathematica®. Typical uses of these computer tools are discussed in sufficient depth to allow a student to perform basic tasks. The basics of computer programming are also introduced, with examples in both BASIC and FORTRAN.

While students often believe that good writing skills should be reserved for their humanities course, anyone who reads physical chemistry lab reports hopes otherwise. The chapter entitled "The Write Stuff" offers advice to students about the usual writing tasks encountered in physical chemistry, from keeping a laboratory notebook to producing good lab reports. It also provides a brief guide to the use of scientific library collections, including electronic materials.

The approach taken throughout the book emphasizes mechanics at the expense of theory. Examples of the techniques discussed are provided, along with heavily annotated solutions; with the premise that being able to reproduce an example is the first step to being sure one understands how to apply a technique.

Chapter 1 - Lecture
1-1 Preparing for Class
1-2 Attending Lecture
1-3 After Class
1-4 Working in Groups
1-5 Solving Problems
1-6 Getting the Most from Your Professor
1-7 Exams: Strategies and Stresses

Chapter 2 - Guerilla Math
2-1 Know Your Symbols
2-2 Numbers
2-3 Series
2-4 Logarithms and Exponentials
2-5 Trigonometry
2-6 Derivatives
2-7 Integral Calculus
2-8 Differential Equations
2-9 Probability and Statistics
2-10 Scalars, Vectors, and Matrices – Tensors, Too
2-11 Fourier Transform
2-12 Mathematical Miscellany
2-13 Error Analysis: How Reliable Are My Results?
2-14 More Information

Chapter 3 - Beyond Pencil and Paper
3-1 Using a Computer Productively
3-2 How to Speak Computer: A Glossary for the Virtual Novice
3-3 Programming Languages: Getting a Computer to Do What You Want It to Do
3-4 Getting Down to Business: Using Spreadsheets
3-5 Leave the Solving to Us: Using Symbolic Math Packages
3-6 Computers in the Laboratory: Data Acquisition

Chapter 4 - The Write Stuff
4-1 Keeping a Lab Notebook
4-2 Lab Reports
4-3 Searching the Literature
4-4 Resources

Special Relativity: A Modern Introduction by Hans C. Ohanian Paperback - 255 pages Shipped in 7 days Cat.# PCI-B2 $ 90.00 ADD TO CART ISBN:  0971313415

Most of the available texts on Special Relativity leave the impression that they could well have been written a half-century ago. In contrast, this newly published text presents a modern view of relativity, including the most recent experimental results. The book emphasizes that Special Relativity is a theory of the geometry of spacetime, and accordingly, uses an abundance of spacetime diagrams and geometrical arguments in explanations and derivations. It presents clear qualitative explanations of the fundamental concepts and also the necessary quantitative mathematical details.

It discusses not only the classic experimental tests of Special Relativity, but also the most recent experimental tests, such as new measurements of the one-way speed of light. It draws attention to various practical and engineering applications of Special Relativity, such as GPS, VLBI, high-voltage X-ray and TV tubes, and medical accelerators.

The first four chapters discuss relativity before and after Einstein – the Lorentz transformation, time dilation, length contraction, the famous paradoxes, and relativistic kinematics and dynamics. These four chapters constitute the core of the book, and by themselves suffice for a brief introductory course. The next two chapters deal with collisions of relativistic particles and the implications of relativity for electricity & magnetism. The final chapter gives a brief survey of the fundamental ideas of General Relativity.

Additional features include:

• Tables summarizing all the experimental tests
• Worked examples in all chapters
• Nearly 200 chapter-end problems
• Instructor Solutions Manual for all problems
• Extensive guide to further reading

Veterinary Epidemiology 3E by Michael Thrusfield Hardcover - 624 pages Shipped in CLICK HERE (IN STOCK) Cat.# JW-SST28 $112.70 ADD TO CART Published:  2007   ISBN:  9781405156271

This successful book, now in its third edition, continues to provide a comprehensive introduction to the role of epidemiology in veterinary medicine.

Since the publication of the second edition there has been considerable expansion in the application of veterinary epidemiology: more quantitative methods are available, challenges such as the epidemic of foot-and-mouth disease in Europe in 2001 have required epidemiological investigation, and epidemiological analyses have taken on further importance with the emergence of evidence-based veterinary medicine.

In this edition:

• Completely revised and expanded chapters;
• Increased attention given to the principles and concepts of epidemiology, surveillance, and diagnostic-test validation and performance;
• Many examples are drawn from both large and small animal medicine, and from the developing as well as the developed world
• This paperback edition includes a new section on risk analysis.

Veterinary Epidemiology is an invaluable reference source for veterinary general practitioners, government veterinarians, agricultural economists and members of other disciplines interested in animal disease. It will also be essential reading for undergraduate and intermediate-level postgraduate students of epidemiology.


Table of Contents:

From the preface to the first edition;
From the preface to the second edition;
Preface to the third edition;
The development of veterinary medicine;
The scope of epidemiology;
Causality;
Describing disease occurrence;
Determinants of disease;
The transmission and maintenance of infection;
The ecology of disease;
Patterns of disease;
The nature of data;
Surveillance;
Data collection and management;
Presenting numerical data;
Surveys;
Demonstrating association;
Observational studies;
Clinical trials;
Diagnostic testing;
Comparative epidemiology;
Modelling;
The economics of disease;
Health schemes;

The control and eradication of disease; General reading; Appendices

Appendix I: Glossary of terms
Appendix II: Basic mathematical notation and terms
Appendix III: Some computer software
Appendix IV: Veterinary epidemiology on the Internet
Appendix V: Students t-distribution
Appendix VI: Multipliers used in the construction of confidence intervals based on the Normal distribution, for selected levels of confidence
Appendix VII: Values of exact 95% confidence limits for proportions
Appendix VIII: Values from the Poisson distribution for calculating 90%, 95% and 99% confidence intervals for observed numbers from 0 to 100
Appendix IX: The Chi-squared distribution
Appendix X: Technique for selecting a simple random sample
Appendix XI: Sample sizes
Appendix XII: The probability of detecting a small number of cases in a population
Appendix XIII: The probability of failure to detect cases in a population
Appendix XIV: Sample sizes required for detecting disease with probability, pmin, and threshold number of positives (in brackets) (probability of incorrectly concluding that a healthy population is diseased [in square brackets])
Appendix XV: Probabilities associated with the upper tail of the Normal distribution
Appendix XVI: Lower- and upper-tail probabilities for WX, the Wilcoxon-Mann-Whitney rank-sum statistic
Appendix XVII: Critical values of T+ for the Wilcoxon signed ranks test
Appendix XVIII: Values of K for calculating 95% confidence intervals for the difference
between population medians fore two independent samples
Appendix XIX: Values of K* for calculating 95% confidence intervals for the difference between population medians fore two related samples
Appendix XX: Common logarithms (log10) of factorials of the integers 1-999
Appendix XXI: The correlation coefficient
Appendix XXII: Some veterinary observational studies
Appendix XXIII: The variance-ratio (F) distribution

References
Index

Biological Inorganic Chemistry by Robert R. Crichton, Frederic Lallemand, Ioanna S. M. Psalti, and Roberta J. Ward Softcover - 382 pages Shipped in CLICK HERE  (IN STOCK) Cat.# EL-SST15 $138.20 ADD TO CART Published:  2008   ISBN:  9780444527400

The importance of metals in biology, the environment and medicine has become increasingly evident over the last twenty five years. The study of the multiple roles of metal ions in biological systems, the rapidly expanding interface between inorganic chemistry and biology constitutes the subject called Biological Inorganic Chemistry. The present text, written by a biochemist, with a long career experience in the field (particularly iron and copper) presents an introduction to this exciting and dynamic field. The book begins with introductory chapters, which together constitute an overview of the concepts, both chemical and biological, which are required to equip the reader for the detailed analysis which follows. Pathways of metal assimilation, storage and transport, as well as metal homeostasis are dealt with next. Thereafter, individual chapters discuss the roles of sodium and potassium, magnesium, calcium, zinc, iron, copper, nickel and cobalt, manganese, and finally molybdenum, vanadium, tungsten and chromium. The final three chapters provide a tantalising view of the roles of metals in brain function, biomineralization and a brief illustration of their importance in both medicine and the environment.

Relaxed and agreeable writing style. The reader will not only find the book easy to read, the fascinating anecdotes and footnotes will give him pegs to hang important ideas on.

• Written by a biochemist. Will enable the reader to more readily grasp the biological and clinical relevance of the subject.
• Many colour illustrations. Enables easier visualization of molecular mechanisms
• Written by a single author. Ensures homogeneity of style and effective cross referencing between chapters

Table of Contents:

1. An Overview of Metals in Biology
2. Basic Coordination Chemistry for Biologists
3. Biological Ligands for Metal Ions
4. Structural and Molecular Biology for Chemists
References
5. An Overview of Intermediary Metabolism and Bioenergetics
6. Methods to Study Metals in Biological Systems
7. Metal Assimilation Pathways
8. Transport Storage and Homeostasis of Metal Ions
9. Metal Transport Storage and Homeostasis in Mammals
10. Sodium and Potassium Channels and Pumps
11. MagnesiumPhosphate Metabolism and Photoreceptors
12. Cellular Signalling
13. Lewis Acid and Gene Regulator
14. Essential for Almost All Life
15. Coping with Dioxygen
16. Evolutionary Relics
17. Water Splitting Oxygen Atom Donor
18. Molybdenum Tungsten Vanadium and Chromium
19. Metals in Brain and Their Role in Various Neurodegenerative Diseases
20. Biomineralization
21. Metals in Medicine and the Environment

Index

Petroleum Production Engineering, A Computer-Assisted Approach by Boyun Guo, William C. Lyons, and Ali Ghalambor Hardcover - 312 pages Shipped in CLICK HERE (3 WEEKS+) Cat.# EL-SST16 $150.90 ADD TO CART Published:  2007   ISBN:  9780750682701

Petroleum Production Engineering, A Computer-Assisted Approach provides handy guidelines to designing, analyzing and optimizing petroleum production systems. Broken into four parts, this book covers the full scope of petroleum production engineering, featuring stepwise calculations and computer-based spreadsheet programs. Part one contains discussions of petroleum production engineering fundamentals, empirical models for production decline analysis, and the performance of oil and natural gas wells. Part two presents principles of designing and selecting the main components of petroleum production systems including: well tubing, separation and dehydration systems, liquid pumps, gas compressors, and pipelines for oil and gas transportation. Part three introduces artificial lift methods, including sucker rod pumping systems, gas lift technology, electrical submersible pumps and other artificial lift systems. Part four is comprised of production enhancement techniques including, identifying well problems, designing acidizing jobs, guidelines to hydraulic fracturing and job evaluation techniques, and production optimization techniques.

• Provides complete coverage of the latest techniques used for designing and analyzing petroleum production systems
• Increases efficiency and addresses common problems by utilizing the computer-based solutions discussed within
• Accompanying CD-ROM allows you to run computer spreadsheet programs with both U.S and SI units that can be used out in the field

Table of Contents:

1. Preface - psia, mixture density, specific gravity
2. List of Tables - Nodal analysis  gas lift, Spreadsheet
3. ENGINEERING FUNDAMENTALS - SITP, oil reservoir, reciprocating compressor
4. Summary - viscosity, z-factor, psia
5. Reservoir Deliverability - oil reservoir, wellbore, two-phase flow
6. Wellbore Performance - Fanning friction factor, mixture density, multiphase flow
7. Summary - choke flow, critical pressure, isentropic process
8. Forecast of Well Production - production forecast, transient flow, z-factor
9. Gas Lift - gas lift, hydraulic fracturing, valve
10. Other Artificial Lift Methods - Specific gravity, pipeline, mole fraction

Essentials of Organic Chemistry, For Students of Pharmacy, Medicinal Chemistry and Biological Chemistry by Paul M. Dewick Softcover - 710 pages Shipped in CLICK HERE (IN STOCK) Cat.# JW-SST1 $ 76.35 ADD TO CART Published:  2006   ISBN:  9780470016664

Essentials of Organic Chemistry is an accessible introduction to the subject for students of Pharmacy, Medicinal Chemistry and Biological Chemistry. Designed to provide a thorough grounding in fundamental chemical principles, the book focuses on key elements of organic chemistry and carefully chosen material is illustrated with the extensive use of pharmaceutical and biochemical examples.

In order to establish links and similarities the book places prominence on principles and deductive reasoning with cross-referencing. This informal text also places the main emphasis on understanding and predicting reactivity rather than synthetic methodology as well as utilising a mechanism based layout and featuring annotated schemes to reduce the need for textual explanations.

• tailored specifically to the needs of students of Pharmacy Medical Chemistry and Biological Chemistry
• numerous pharmaceutical and biochemical examples
• mechanism based layout
• focus on principles and deductive reasoning

This will be an invaluable reference for students of Pharmacy Medicinal and Biological Chemistry.

Table of Contents:

Preface.

1. Molecular representations and nomenclature.
2. Atomic structure and bonding.
3. Stereochemistry.
4. Acids and bases.
5. Reaction mechanisms.
6. Nucleophilic reactions: nucleophilic substitution.
7. Nucleophilic reactions of carbonyl groups.
8. Electrophilic reactions.
9. Radical reactions.
10. Nucleophilic reactions involving enolate anions.
11. Heterocycles.
12. Carbohydrates.
13. Amino acids, peptides and proteins.
14. Nucleosides, nucleotides and nucleic acids.
15. The organic chemistry of intermediary metabolism.
16. How to approach examination questions: selected problems and answers.

Index.

Arthropod Collection and Identification: Field and Laboratory Techniques by Timothy J. Gibb, and C. Y. Oseto Hardcover - 336 pages Shipped in CLICK HERE (IN STOCK) Cat.# EL-SST17 $ 60.90 ADD TO CART Published:  2006   ISBN:  9780123695451

Arthropods are the most numerous and diverse group of animals and studying these organisms requires the use of specialized equipment and specific procedures. This text describes effective methods and equipment for collecting, identifying, rearing, examining, and preserving insects and mites, and for storing and caring for specimens in collections. It also provides instructions for the construction of many kinds of collecting equipment, traps, rearing cages, and storage units, as well as updated and illustrated keys for identification of the classes of arthropods and the orders of insects. Such information not only aids hobbyists and professionals in preparing insect collections, but it has become essential in documenting and standardizing collections of entomological evidence in forensic as well as pest management sciences.

• Over 400 professionally drawn illustrations
• Identification keys to find arthropod orders
• Comprehensive reading list
• Detailed glossary of terms