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1.

電子ブック
ＥＢ
1. Scientific writing 2.0 : a reader and writer's guide ((electronic bk.) ; pbk.)
Jean-Luc Lebrun
出版情報: Singapore ; Hackensack, N.J. : World Scientific Pub. Co., c2011  xiv, 265 p.
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Preface First Edition
Preface Second Edition
The Reading Toolkit / Part 1：
Require Less from Memory / Chapter 1：
The Forgotten or Undefined Acronym
The Detached Pronoun
The Diverting Synonym
The Distant Background
The Broken Couple12 The Word Overflow
Sustain Attention to Ensure Continuous Reading / Chapter 2：
Keep the Story Moving Forward
Twist and Shout
Pause to Illustrate and Clarify
Recreate Local Suspense
Reduce Reading Time / Chapter 3：
Keep the Reader Motivated / Chapter 4：
Dash or Fuel the Hopes of Your Readers, Your Choice
Meet the Goals of Your Readers to Motivate Them
Bridge the Knowledge Gap / Chapter 5：
Bridge to Ground Zero
Bridge to Title Words
Just-in-Time Bridge by Way of Local Background
Set the Reader's Expectations / Chapter 6：
Expectations from Grammar
Expectations from Science
Set Progression Tracks for Fluid Reading / Chapter 7：
Topic and Stress
Three Topic-Based Progression Schemes to Make Reading Fluid
Non Topic-Based Progression Schemes
Pause in Progression
Troubleshooting Progression Problems
Detect Sentence Fluidity Problems / Chapter 8：
Reasons for No Expectations
Reasons for Betrayed Expectations
Control Reading Energy Consumption / Chapter 9：
The Energy Bill
Punctuation: An Energy Refueling Station
Paper Structure and Purpose / Part 2：
Title : The Face of Your Paper / Chapter 10：
Six Titles to Learn About Titles
Six Techniques for Improving Titles
Purpose and Qualities of Titles
Title Q&A
Title Metrics
Abstract: The Heart of Your Paper / Chapter 11：
The Four Parts
Coherence Between Abstract and Title
Tense of Verbs and Precision
Purpose and Qualities of Abstracts
Abstract Q&A
Abstract Metrics
Headings-Subheadings: The Skeleton of Your Paper / Chapter 12：
Four Principles for a Good Structure
Syntactic Rules for Headings
Purpose and Qualities of Structures
Structure Q&A
Structure Metrics
Introduction: The Hands of Your Paper / Chapter 13：
The Introduction Starts Fast and Finishes Strong
The Introduction Answers Key Reader Questions
The Introduction Frames Through Scope and Definitions
The Introduction Is a Personal Active Story
Introduction Part II Popular Traps / Chapter 14：
The Trap of the Story Plot
The Trap of Plagiarism
The Trap of Imprecision
The Trap of judgmental Words
The Deadly Outcome of the Sum of All Traps: Disbelief
Purpose and Qualities of Introductions
Introduction Q&A
Introduction Metrics
Visuals: The Voice of Your Paper / Chapter 15：
Seven Principles for Good Visuals
Purpose and Qualities of Visuals
Visuals Q&A
Visuals Metrics (calculate your score for each visual)
Abstract Versus Conclusions / Chapter 16: Conclusions: The Smile of Your Paper：
Examples and Counterexamples
Purpose and Qualities of Conclusions
Conclusions Q&A
Conclusion Metrics (if you have a conclusion)
Additional Resources for the Avid Learner / Chapter 17：
On Visuals
On Grammar
On the Evolution of Scientific Writing
On Persuasion
On Scientific Papers
On Writing Process and Reviewers
Books on Scientific Writing
Epilogue: Your Future Work
Index
Preface First Edition
Preface Second Edition
The Reading Toolkit / Part 1：
2.

電子ブック
ＥＢ
2. Elements of phase transitions and critical phenomena ((ebook) :)
Hidetoshi Nishimori, Gerardo Ortiz
出版情報: Oxford : Oxford University Press, c2011  1 online resource (xiii, 358 p.)
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3.

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3. Matroid theory. 2nd ed ((ebook) :)
James Oxley
出版情報: Oxford : Oxford University Press, 2011  1 online resource (xiii, 684 p.)
シリーズ名: Oxford graduate texts in mathematics ; 21
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Preliminaries
Basic definitions and examples / 1：
Independent sets and circuits / 1.1：
Bases / 1.2：
Rank / 1.3：
Closure / 1.4：
Geometric representations of matroids of small rank / 1.5：
Transversal matroids / 1.6：
The lattice of flats / 1.7：
The greedy algorithm / 1.8：
Duality / 2：
The definition and basic properties / 2.1：
Duals of representable matroids / 2.2：
Duals of graphic matroids / 2.3：
Duals of transversal matroids / 2.4：
Minors / 3：
Contraction / 3.1：
Minors of certain classes of matroids / 3.2：
The Scum Theorem, projection, and flats / 3.3：
Connectivity / 4：
Connectivity for graphs and matroids / 4.1：
Properties of matroid connectivity / 4.2：
More properties of connectivity / 4.3：
Graphic matroids / 5：
Representability / 5.1：
Duality in graphic matroids / 5.2：
Whitney's 2-Isomorphism Theorem / 5.3：
Series-parallel networks / 5.4：
Representable matroids / 6：
Projective geometries / 6.1：
Affine geometries / 6.2：
Different matroid representations / 6.3：
Constructing representations for matroids / 6.4：
Representability over finite fields / 6.5：
Regular matroids / 6.6：
Algebraic matroids / 6.7：
Characteristic sets and decidability / 6.8：
Modularity / 6.9：
Dowling geometries / 6.10：
Constructions / 7：
Series and parallel connection and 2-sums / 7.1：
Single-element extensions / 7.2：
Quotients and related operations / 7.3：
A non-commutative operation / 7.4：
Higher connectivity / 8：
Tutte's definition / 8.1：
Properties of the connectivity function / 8.2：
3-connected matroids and 2-sums / 8.3：
Wheels and whirls / 8.4：
Tutte's Linking Theorem and its applications / 8.5：
Matroid versus graph connectivity / 8.6：
Some extremal connectivity results / 8.7：
Tutte's Wheels-and-Whirls Theorem / 8.8：
Binary matroids / 9：
Characterizations / 9.1：
Circuit and cocircuit spaces / 9.2：
The operation of 3-sum / 9.3：
Other special properties / 9.4：
Excluded-minor theorems / 10：
The characterization of regular matroids / 10.1：
The characterization of ternary matroids / 10.2：
The characterization of graphic matroids / 10.3：
Further properties of regular and graphic matroids / 10.4：
Submodular functions and matroid union / 11：
Deriving matroids from submodular functions / 11.1：
The theorems of Hall and Rado / 11.2：
Matroid union and its applications / 11.3：
Amalgams and the generalized parallel connection / 11.4：
Generalizations of delta-wye exchange / 11.5：
The Splitter Theorem / 12：
The theorem and its proof / 12.1：
Applications of the Splitter Theorem / 12.2：
Variations on the Splitter Theorem / 12.3：
Seymour's Decomposition Theorem / 13：
Overview / 13.1：
Graphic, cographic, or a special minor / 13.2：
Blocking sequences / 13.3：
Research in representability and structure / 13.4：
The Well-Quasi-Ordering Conjecture for Matroids / 14.1：
Branch-width / 14.2：
Rota's Conjecture and the Well-Quasi-Ordering Conjecture / 14.3：
Algorithmic consequences / 14.4：
Intertwining / 14.5：
Inequivalent representations / 14.6：
Ternary matroids / 14.7：
Stabilizers / 14.8：
Unavoidable minors / 14.9：
Growth rates / 14.10：
Unsolved problems / 15：
Representability: linear and algebraic / 15.1：
Unimodal conjectures / 15.2：
Critical problems / 15.3：
From graphs to matroids / 15.4：
Enumeration / 15.5：
Gammoids and transversal matroids / 15.6：
Excluding a uniform matroid / 15.7：
Negative correlation / 15.8：
A miscellany / 15.9：
References
Appendix: Some interesting matroids
List of tables
Notation
Index
Preliminaries
Basic definitions and examples / 1：
Independent sets and circuits / 1.1：
4.

電子ブック
ＥＢ
4. Materials for sustainable energy : a collection of peer-reviewed research and review articles from Nature Publishing Group (: electronic bk)
edited by Vincent Dusastre
出版情報: London : Macmillan Publishers , Singapore : World Scientific, c2011  1 online resource (xxvii, 331 p.)
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5.

電子ブック
ＥＢ
5. Ferroelectric dielectrics integrated on silicon / (: electronic bk)
edited by Emmanuel Defaÿ
出版情報: London : Hoboken, NJ : ISTE ; Wiley, 2011  1 online resource (xiv, 448 pages)
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Preface / Emmanuel Defaÿ
The Thermodynamic Approach / Chapter 1：
Background / 1.1：
The functions of state / 1.2：
Linear equations, piezoelectricity / 1.3：
Nonlinear equations, electrostriction / 1.4：
Thermodynamic modeling of the ferroelectric-paraelectric phase transition / 1.5：
Assumption on the elastic Gibbs energy / 1.5.1：
Second-order transition / 1.5.2：
Effect of stress / 1.5.3：
First-order transition / 1.5.4：
Conclusion / 1.6：
Bibliography / 1.7：
Stress Effect on Thin Films / Pierre-Eymeric JanolinChapter 2：
Introduction / 2.1：
Modeling the system under consideration / 2.2：
Temperature-misfit strain phase diagrams for monodomain films / 2.3：
Phase diagram construction from the Landau-Ginzburg-Devonshire theory / 2.3.1：
Calculations limitations / 2.3.2：
Domain stability map / 2.4：
Presentation and description of the framework of study / 2.4.1：
Main contributions to the total energy of a film / 2.4.2：
Influence of thickness / 2.4.3：
Macroscopic elastic energy for each type of tetragonal domain / 2.4.4：
Indirect interaction energy / 2.4.5：
Domain structures at equilibrium / 2.4.6：
Temperature-misfit strain phase diagram for polydomain films / 2.4.7：
Discussion of the nature of the "misfit strain" / 2.6：
Mechanical misfit strain / 2.6.1：
Thermodynamic misfit strain / 2.6.2：
As an illustration / 2.6.3：
Experimental validation of phase diagrams: state of the art / 2.7：
Case study / 2.9：
Results / 2.10：
Evolution of the lattice parameters / 2.10.1：
Associated stresses and strains / 2.10.2：
Comparison between the experimental data and the temperature-misfit strain phase diagrams / 2.11：
Thin film of PZT / 2.11.1：
Thin layer of PbTiO3 / 2.11.2：
Deposition and Patterning Technologies / Chrystel Deguet ; Gwenaël Le Rhun ; Bertrand Vilquin2.12：
Deposition method / 3.1：
Cathodic sputtering / 3.1.1：
Ion beam sputtering / 3.1.2：
Pulsed laser deposition / 3.1.3：
The sol-gel process / 3.1.4：
The MOCVD / 3.1.5：
Molecular beam epitaxy / 3.1.6：
Etching / 3.2：
Wet etching / 3.2.1：
Dry etching / 3.2.2：
Contamination / 3.3：
Monocrystalline thin-film transfer / 3.4：
Smart Cut™ technology / 3.4.1：
Bonding/thinning / 3.4.2：
Interest in the material in a thin layer / 3.4.3：
State of the art of the domain/applications / 3.4.4：
An exemplary implementation / 3.4.5：
Design of experiments / 3.5：
The assumptions / 3.5.1：
Reproducibility / 3.5.2：
How can we reduce the number of experiments? / 3.5.3：
A DOE example: PZT RF magnetron sputtering deposition / 3.5.4：
Analysis Through X-ray Diffraction of Polycrystalline Thin Films / Patrice Gergaud3.6：
Some reminders of x-ray diffraction and crystallography / 4.1：
Nature of X-rays / 4.2.1：
X-ray scattering and diffraction / 4.2.2：
Application to powder or polycrystalline thin-films / 4.3：
Phase analysis by X-ray diffraction / 4.4：
Grazing incidence diffraction / 4.4.1：
De-texturing / 4.4.2：
Quantitative analysis / 4.4.3：
Identification of coherent domain sizes of diffraction and micro-strains / 4.5：
Analysis methodologies / 4.5.1：
Identification of crystallographic textures by X-ray diffraction / 4.6：
Texture analysis by a symmetric diffractogram / 4.6.1：
Pole figures and orientations distribution function / 4.6.2：
Measurement principle / 4.6.3：
Orientations distribution function / 4.6.4：
Determination of strains/stresses by X-ray diffraction / 4.7：
X-ray diffraction and strain / 4.7.1：
Determination of stresses from strains / 4.7.2：
Specificity of the X-ray diffraction in stress analysis / 4.7.3：
Equipment / 4.7.4：
Example of stress identification by the sin2ψ method / 4.7.5：
Precaution in the case of thin films / 4.7.6：
Application example for a BaxTiO3 film / 4.7.7：
Physicochemical and Electrical Characterization / Brahim Dkhil ; Pascale Gemeiner4.8：
Useful characterization techniques / 5.1：
Electron microscopy / 5.2.1：
Spectroscopy analysis / 5.2.2：
Ferroelectric measurement / 5.3：
Sawyer-Tower assembly / 5.3.1：
''Virtual ground" assembly / 5.3.2：
Dielectric measurement / 5.4：
Radio-Frequency Characterization / Thierry Lacrevaz5.5：
Notions and basic concepts associated with HF / 6.1：
Introduction to the phenomena associated with HF signals / 6.2.1：
Lumped or distributed behavior of an electric circuit / 6.2.2：
Notion of quadripoles: two-port circuits or four-terminal network [MÉS 85] / 6.2.3：
Basic theoretical elements of transmission lines: HF electric model / 6.2.4：
HF electric model of a parallel MIM capacitor / 6.2.5：
Signal flow graph [BOR 93] / 6.2.6：
Scattering waves / 6.2.7：
Scattering parameters: S-parameters / 6.2.8：
Vector network analyzer (VNA) / 6.2.9：
Frequency analysis: HF characterization of materials / 6.3：
Objectives / 6.3.1：
Issues of HF measurements through a VNA / 6.3.2：
Calibration of the measuring system / 6.3.3：
Extraction of the propagation exponent of the transmission line: de-embedding associated with the TRL calibration / 6.3.4：
Extraction results of the complex permittivity of materials SrTiO3andPbZrTiO3 / 6.3.5：
Leakage Currents in PZT Capacitors / Emilien Bouyssou6.4：
Leakage current in metal/insulator/metal structures / 7.1：
Metal/insulator contact: definitions / 7.2.1：
Conduction mechanisms limited by the interfaces / 7.2.2：
Conduction mechanisms limited by the bulk of film / 7.2.3：
Problem of leakage current measurement / 7.3：
Relaxation current and true leakage current / 7.3.1：
Drift of true leakage current / 7.3.2：
Discussion / 7.3.3：
Characterization of the relaxation current / 7.4：
Origin of the relaxation current / 7.4.1：
Modeling of relaxation currents / 7.4.2：
Literature review of true leakage current in PZT / 7.4.3：
Dynamic characterization of true leakage current: I(t, T) / 7.6：
Study of the resistance degradation / 7.6.1：
Study of the resistance restoration phenomenon / 7.6.2：
Static characterization of the true leakage current: I(V,T) / 7.6.3：
Space-charge influenced-injection model / 7.7.1：
Quantitative description of the model / 7.7.2：
Static modeling Jmin(V) and Jmax(V) / 7.7.3：
Integrated Capacitors / 7.8：
Potentiality of perovskites for RF devices: permittivity and losses / 8.1：
RF MTM capacitors of STO and PZT / 8.2.1：
Coplanar line waveguides on PZT / 8.2.2：
How to perform a good integrated capacitor at RF frequencies? / 8.2.3：
Bi-dielectric capacitors with high linearity / 8.3：
Design / 8.3.1：
Technology / 8.3.3：
STO capacitors integrated on CMOS substrate by AIC technology / 8.3.4：
Electrical tests / 8.4.1：
Reliability of PZT Capacitors / 8.4.4：
Accelerated aging of metal/insulator/metal structures / 9.1：
The electrical stresses / 9.2.1：
The breakdown / 9.2.2：
Statistical treatment of breakdown / 9.2.3：
Accelerated aging of PZT capacitors through CVS tests / 9.3：
Literature review / 9.3.1：
Statistical study of time-to-breakdown data / 9.3.2：
Discussion: characterization strategy / 9.3.3：
Lifetime extrapolation of PZT capacitors / 9.4：
Determination of the temperature acceleration factor / 9.4.1：
Determination of voltage acceleration / 9.4.2：
Ferroelectric Tunable Capacitors / Benoit Guigues9.5：
Overview of the tunable capacitors / 10.1：
Applications requiring a tunable element / 10.2.1：
The tunable capacitors / 10.2.2：
Which material to choose? / 10.2.3：
Types of actual tunable capacitors / 10.3：
MTM capacitor / 10.3.1：
Planar capacity / 10.3.2：
Anisotropy effects / 10.3.3：
Toward new tunable capacitors / 10.4：
Composite ferroelectric materials / 10.4.1：
Hybrid tunable capacitor / 10.4.2：
FRAM Ferroelectric Memories: Basic Operations, Limitations, Innovations and Applications / Christophe Muller10.5：
Taxonomy of non-volatile memories / 11.1：
Present and future solutions / 11.1.1：
Difficult penetration of a highly competitive market / 11.1.2：
FRAM memories: basic operations and limitations / 11.2：
Charge storage in a ferroelectric capacitor / 11.2.1：
Ferroelectric materials / 11.2.2：
Technologies available in 2011 / 11.3：
Technological innovations / 11.4：
3D ferroelectric capacitors / 11.4.1：
Ferroelectric field effect transistors / 11.4.2：
What about ferroelectric polymers? / 11.4.3：
Some application areas of FRAM technology / 11.5：
An alternative to EEPROM memories / 11.5.1：
Ferroelectric devices for RFID systems / 11.5.2：
Integration of Multiferroic BiFeO3 Thin Films into Modern Microelectronics / Xiaohong Zhu11.6：
Preparation methods / 12.1：
Chemical solution deposition / 12.2.1：
RF magnetron sputtering / 12.2.3：
Ferroelectricity and magnetism / 12.3：
Ferroelectricity / 12.3.1：
Magnetism / 12.3.2：
Magnetoelectric coupling / 12.3.3：
Device applications / 12.4：
Non-volatile ferroelectric memories / 12.4.1：
Spintronics / 12.4.2：
Terahertz radiation / 12.4.3：
Switchable ferroelectric diodes and photovoltaic devices / 12.4.4：
List of Authors / 12.5：
Index
Preface / Emmanuel Defaÿ
The Thermodynamic Approach / Chapter 1：
Background / 1.1：
6.

電子ブック
ＥＢ
6. Integration of ferroelectric and piezoelectric thin films : : concepts and applications for microsystems (: electronic bk)
edited by Emmanuel Defaÿ
出版情報: London : Hoboken, NJ : ISTE ; Wiley, 2011  1 online resource
シリーズ名: ISTE ;
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Preface / Emmanuel Defaÿ
General Introduction
Dielectricity, Piezoelectricity, Pyroelectricity and Ferroelectricity / Chapter 1：
Crystal structure / 1.1：
Crystal = lattice + pattern / 1.1.1：
Seven primitive lattices - 14 Bravais lattices / 1.1.2：
Two-hundred and thirty space groups / 1.1.3：
Thirty-two point groups (or crystal classes) / 1.1.4：
Reticular planes / 1.1.5：
X-rays "see" crystals / 1.1.6：
Piezoelectricity, pyroelectricity and ferroelectricity definitions / 1.2：
Simplified examples / 1.3：
Dielectric effect / 1.3.1：
Piezoelectric effect / 1.3.2：
Pyroelectric effect / 1.3.3：
Ferroelectric effect / 1.3.4：
Electrostrictive effect / 1.3.5：
Three typical structures: wurtzite, ilmenite and perovskite / 1.4：
Wurtzite structure / 1.4.1：
Ilmenite structure / 1.4.2：
Perovskite structure / 1.4.3：
Bibliography / 1.5：
Thermodynamic Study: a Structural Approach / Chapter 2：
History / 2.1：
Revisiting statistical thermodynamics / 2.2：
Introduction / 2.2.1：
Notion of equilibrium, statistical postulate / 2.2.2：
Numbers of accessible states of a system / 2.2.3：
Energy variation - work and heat / 2.2.4：
Heat transfer: entropy and absolute temperature / 2.2.5：
Thermal energy: heat transfer / 2.2.6：
Quasistatic transformation with work and heat transfer / 2.2.7：
Example of a constant pressure and temperature experiment / 2.2.8：
State functions / 2.3：
Linear equations - piezoelectricity / 2.4：
Non linear equations - electrostricfion / 2.5：
Ferroelectric-paraelectric Phase Transition Thermodynamic Modeling / 2.6：
Hypothesis on Gibbs' elastic energy / 3.1：
Second-order transition / 3.2：
Effects of stresses / 3.3：
First-order transition / 3.4：
Conclusion / 3.5：
Mechanical Formalism / 3.6：
Hooke's law / 4.1：
Definitions of local strains / 4.3：
Local strains in small strains hypothesis / 4.3.1：
Meaning of matrix S / 4.3.2：
Definition of local strains / 4.4：
The strain tensor / 4.4.1：
Equations of motion in a deformable solid / 4.4.2：
Stress-strain relation / 4.5：
Hooke's generalized law / 4.5.1：
Dynamic relation / 4.5.2：
Elastic energy density / 4.6：
Expression of elastic energy density / 4.6.1：
Symmetry of the elasticity tensor / 4.6.2：
Expression of the elasticity tensor as of symmetry / 4.7：
Dielectric Formalism / 4.8：
The dielectric effect seen by Faraday / 5.1：
Electric polarization and displacement / 5.3：
The dielectric constant / 5.4：
The local field in dielectrics: polarization catastrophe / 5.5：
Dielectric relaxation / 5.6：
The various relaxations / 5.6.1：
Kramers-Kronig relations / 5.6.2：
Electric energy density / 5.7：
Piezoelectric Formalism / Mathieu Pijolat5.8：
Thermodynamic equations / 6.1：
Reducing coefficients using crystal symmetry / 6.2：
Example of a calculation: point group 3m / 6.2.1：
One-dimensional microscopic model / 6.3：
Electromechanical coupling coefficient / 6.4：
Piezoelectric coefficients of key materials / 6.5：
Calculating coupling as a function orientation / 6.6：
Piezoelectric coefficients in the case of ferroelectric materials / 6.7：
Relation between piezoelectric formalism and matter / 6.8：
Acoustic Formalism / Alexandre Reinhardt6.9：
Propagation of bulk waves / 7.1：
Propagation of bulk waves in an elastic medium / 7.1.1：
Elastic wave propagation in a piezoelectric medium / 7.1.2：
Bulk wave resonator / 7.2：
Piezoelectric plate vibrations / 7.2.1：
Plate delimited by arbitrary acoustic impedance media / 7.2.2：
Bimorph plate / 7.2.3：
Piezoelectric plate between two electrodes / 7.2.4：
Equivalent electric circuit / 7.2.5：
Bulk acoustic waves filter / 7.3：
Electrostrictive Formalism / 7.4：
Foundations of electrostriction / 8.1：
Thermodynamic model of electrostriction - case of the resonator / 8.2：
The electrostriction tensor / 8.3：
Microscopic model of electrostriction / 8.4：
One-dimensional model / 8.4.1：
Origin of spontaneous polarization in perovskite crystals / 8.4.2：
Electrostrictive resonator / 8.5：
Electric Characterization / Gwenaël Le Rhun ; Emilien Bouyssou8.6：
Static piezoelectric characterization of thin films / 9.1：
Notion of effective coefficients / 9.1.1：
Model / 9.1.2：
Example of characterization: PZT films / 9.1.4：
Piezoelectric and atomic force microscopy / 9.2：
Atomic force microscope / 9.2.1：
Piezoresponse force microscope / 9.2.2：
Ferroelectric measurement / 9.3：
Sawyer-Tower circuit / 9.3.1：
Virtual ground circuit / 9.3.2：
Dielectric measurement / 9.4：
Leakage current in metal/insulator/metal structures / 9.5：
Metal/insulator contact: definitions / 9.5.1：
Conduction mechanisms limited by the interfaces / 9.5.2：
Bulk-limited conduction mechanisms / 9.5.3：
Piezoelectric Resonators and Filters / Christophe Billard9.6：
Acoustic resonators: principle and history / 10.1：
Quartz resonators / 10.1.1：
High-frequency operation of resonators / 10.1.2：
Perfecting FBAR / 10.1.3：
BAW technology / 10.2：
BAW filter topology / 10.2.1：
Parameters of the BAW resonator and their impact on filter response / 10.2.3：
Examples of realizations / 10.2.4：
CRF technology / 10.3：
Operating principles of CRF filters / 10.3.1：
Example of implementations / 10.3.3：
High Overtone Bulk Acoustic Resonator (HBAR) / Chrystel Deguet ; Sylvain Ballandras10.4：
About HBAR / 11.1：
Generalities / 11.1.1：
Principle / 11.1.2：
Description of the spectrum / 11.1.3：
Technology / 11.2：
Technological constraints / 11.2.1：
Choice of materials / 11.2.2：
Geometry of resonators / 11.2.3：
Examples of implementations / 11.3：
LNO on LNO / 11.3.1：
Validation of parameter extractions: LNO on HBAR/FBAR Si / 11.3.2：
Conclusions about HBAR / 11.4：
Electrostrictive Resonators / Alexandre Volatier ; Brice Ivira ; Christophe Zinck ; Nizar Ben Hassine11.5：
State of the art / 12.1：
Formalism of the electrostrictive resonator / 12.2.1：
Experimental implementations / 12.3：
70/30 BST resonator without acoustic insulation / 12.3.1：
STO resonator on Bragg mirror / 12.3.2：
BST resonator on an acoustic Bragg mirror / 12.3.3：
BST resonator on a membrane / 12.3.4：
Simulation of a filter with electrostrictive resonators / 12.4：
Status of perovskite electrostrictive resonators / 12.5：
PZT-based tunable frequency ferroelectric acoustic resonator / 12.6：
RF characterization and discussion / 12.6.1：
Nonlinear effect in piezoelectric A1N / 12.7：
Piezoelectric-electrostrictive phenomenological model / 12.7.1：
Application: A1N resonator on a Bragg mirror / 12.7.3：
Conclusion with nonlinear A1N / 12.7.4：
Conclusion with electrostriction / 12.8：
Thin Film Piezoelectric Transducers / Matthieu Cueff ; Patrice Rey ; Fabien Filhol12.9：
Resonant membranes / 13.1：
Technology of PZT resonant membranes / 13.3.1：
Frequency characterization of membranes / 13.3.2：
A resonant pressure sensor / 13.3.3：
Conclusion on the study of Si/PZT resonant membranes / 13.3.4：
Resonant micromirror / 13.4：
Technology and design of the resonant micromirror / 13.4.1：
Characterization of the devices / 13.4.3：
Conclusion about micromirrors / 13.4.4：
Piezoelectric micro-switch / 13.5：
Interest in piezoelectric films for micro-switches / 13.5.1：
General description of the component / 13.5.2：
Analytical development of the bimorph beam as actuator of the micro-switch / 13.5.3：
Stack chosen for the piezoelectric actuator / 13.5.4：
Multilayer analytical model / 13.5.5：
Effect of temperature compensation / 13.5.6：
The piezoelectric film / 13.5.7：
Releasing the membrane / 13.5.8：
Electrical characterizations / 13.5.9：
Sign of piezoelectric coefficients / 13.6：
List of Authors / 13.7：
Index
Preface / Emmanuel Defaÿ
General Introduction
Dielectricity, Piezoelectricity, Pyroelectricity and Ferroelectricity / Chapter 1：
7.

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7. Complex metallic alloys : : fundamentals and applications (: electronic bk)
edited by Jean-Marie Dubois and Esther Belin-Ferré
出版情報: Weinheim : Wiley-VCH Verlag, 〓2011  1 online resource (xxiv, 409 pages)
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目次情報: 続きを見る
Foreword
Introduction To The Science Of Cmas / I：
Brief History of the Field
Definition of CMAs
Phase Selection and Stability
Unexpected Transport Properties
Plasticity and Metadislocations
Outlook at Potential Applications
Physics Of Cmas: Theory And Experiments / II：
Electronic Structure
Chemical Bonding Effects
Cluster Based Solids Physics
Transport Properties: Inverse Matthiessen Rule, Wiedemann-Franz Law
Phenomenological Approaches
Hierarchical Scales in Reciprocal Space
Anisotropic Physical Properties of CMAs: Electrical and Thermal Conductivity, Magnetic Susceptibility, Hall Coefficient, Thermoelectric Power
Surface Science Of Cmas / III：
Stability of Alloy Surfaces
Structural Determination of CMA Surfaces
Thin Film Growth on CMA Surfaces
Adhesion, Friction and Wetting Properties of CMA Surfaces
Metallurgy, Preparation And Processing, Thin Films / IV：
Introduction to Thin Film Science
Deposition by MOVCD
Deposition by PVD
Structural Properties
Mechanical Properties
Surface Chemistry Of CMAS / V：
Introduction
Surface Chemistry of CMAs under UHV Environment
Surface Chemistry of CMAs under Environmental Conditions
Surface Chemistry and Reactions in Aqueous Solutions
High-Temperature Corrosion
Mechanical Engineering Properties Of Cmas / VI：
Introduction to CMAs Designed for Mechanical Applications: Structure and Properties, Possible Applications, Single-Phase CMAs and CMA-Reinforced Composites
Processing and Mechanical Properties of CMAs: Solidification, Glassy Precursors, Powder Metallurgy
The Sintering Route
Surface Mechanical Testing and Potential Applications
Thermoelectricity, The Graal Of Cmas / VII：
Materials
Properties
Applications/Demonstrators
Catalysis Catalysis On Intermetallic Compounds / VIII：
CMAS: From Basics To Products / IX：
Foreword
Introduction To The Science Of Cmas / I：
Brief History of the Field
8.

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8. Advances in electrochemical science and engineering. (: electronic bk)
edited by Richard C. Alkire, Dieter M. Kolb, and Jacek Lipkowski
出版情報: Weinheim : Wiley-VCH, 〓2011  1 online resource (xiv, 397 pages)
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9. Spyware and Adware
John Daniel Aycock
出版情報: Springer eBooks Computer Science , Springer US, 2011
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Introduction / 1：
Definitions and History / 1.1：
Motivation / 1.2：
Getting There / 2：
Installation / 2.1：
Explicit, Voluntary Installation / 2.1.1：
Drive-by Downloads, User Involvement / 2.1.2：
Drive-by Downloads, No User Involvement / 2.1.3：
Installation via Malware / 2.1.4：
Startup / 2.2：
Application-Specific Startup / 2.2.1：
GUI Startup / 2.2.2：
System Startup / 2.2.3：
Kernel Startup / 2.2.4：
Defenses / 2.2.5：
Staying There / 3：
Avoiding Detection / 3.1：
Basic Detection Avoidance / 3.1.1：
Anti-Spyware / 3.1.2：
Advanced Detection Avoidance: Rootkits / 3.1.3：
Avoiding Uninstall / 3.2：
Passive Avoidance / 3.2.1：
Active Avoidance / 3.2.2：
Keylogging / 4：
User Space Keylogging / 4.1：
Polling / 4.1.1：
Event Copying / 4.1.2：
Event Monitoring / 4.1.3：
User Space Keylogging Defenses / 4.2：
Authentication / 4.3：
Phoning Home / 5：
Push vs. Pull / 5.1：
Finding Home / 5.2：
Steganography / 5.3：
Information Leaking Defenses / 5.4：
Advertising / 6：
Types of Advertisement / 6.1：
Banner Advertisement / 6.1.1：
Banner Advertisement with Pull-down Menu / 6.1.2：
Expandable Banner Advertisement / 6.1.3：
Pushdown Banner Advertisement / 6.1.4：
Pop-up Advertisement / 6.1.5：
Pop-under Advertisement / 6.1.6：
Floating Advertisement / 6.1.7：
Tear-back Advertisement / 6.1.8：
In-text Advertisement / 6.1.9：
Transition Advertisement / 6.1.10：
Video Advertisements / 6.1.11：
Intent and Content / 6.2：
Advertisement Implementation / 7：
Implementation Location / 7.1：
Implementation on the User Machine / 7.1.1：
Implementation in the Network / 7.1.2：
Implementation near the User Machine / 7.1.3：
Implementation on the Server / 7.1.4：
Choosing Keywords / 7.2：
Blocking Advertisements / 7.3：
Pop-up Blocking / 7.3.1：
General Advertisement Blocking / 7.3.2：
Blocker Evasion and Blocker Blocking / 7.3.3：
Tracking Users
Cookies / 8.1：
Other Browser-Related Tracking Methods / 8.1.1：
User Profiling / 8.2：
Cognitive Styles, Mood, and Personality / 8.2.1：
Future Actions / 8.2.2：
Demographic Information / 8.2.3：
Social Networks / 8.2.4：
Real World Activities / 8.2.5：
Physical of Location / 8.2.6：
Search Terms and keywords / 8.2.7：
Disinterests / 8.2.8：
Conclusion / 9：
References
Index
Introduction / 1：
Definitions and History / 1.1：
Motivation / 1.2：
10.

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10. Grids, Clouds and Virtualization
Massimo Cafaro, Giovanni Aloisio, Massimo Cafaro
出版情報: Springer eBooks Computer Science , Springer London, 2011
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