Produktbild: Atomic Pair Distribution Function Analysis

Atomic Pair Distribution Function Analysis A Primer

109,99 €

inkl. gesetzl. MwSt., Versandkostenfrei


Beschreibung

Produktdetails

Einband

Gebundene Ausgabe

Erscheinungsdatum

23.02.2024

Abbildungen

41 line drawings and halftones

Verlag

Oxford Academic

Seitenzahl

272

Maße (L/B/H)

25/17,5/2 cm

Gewicht

684 g

Sprache

Englisch

ISBN

978-0-19-888580-1

Beschreibung

Produktdetails

Einband

Gebundene Ausgabe

Erscheinungsdatum

23.02.2024

Abbildungen

41 line drawings and halftones

Verlag

Oxford Academic

Seitenzahl

272

Maße (L/B/H)

25/17,5/2 cm

Gewicht

684 g

Sprache

Englisch

ISBN

978-0-19-888580-1

Herstelleradresse

Libri GmbH
Europaallee 1
36244 Bad Hersfeld
DE

Email: GPSR Kontakt

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  • Produktbild: Atomic Pair Distribution Function Analysis
    • 1: Introduction and review
    • 1.1 What this book is not
    • 1.2 What this book is
    • 1.3 Why PDF?
    • 1.4 Software
    • 2: PDF Primer
    • 2.1 Introduction
    • 2.2 X-ray scattering from materials
    • 2.3 Obtaining the PDF from x-ray total scattering data
    • 2.4 The pair distribution function
    • 2.5 Extracting structural information from the PDF
    • 2.6 Measurement of total scattering data
    • 2.7 It is time to start modelling!
    • 3: PDF modelling of simple crystal structures: Bulk Ni and Pt nanoparticles
    • 3.1 Introduction and overview
    • 3.2 The question
    • 3.3 The result
    • 3.4 The experiment
    • 3.5 What next?
    • 3.6 Wait, what? How do I do that?
    • 3.7 Problems
    • 3.8 Solution
    • 3.9 Diffpy-CMI solution
    • 4: Getting the PDF
    • 4.1 Introduction and overview
    • 4.2 The question
    • 4.3 The result
    • 4.4 The experiment
    • 4.5 What next?
    • 4.6 Wait, what? How do I do that?
    • 4.7 results
    • 4.8 problems
    • 4.9 solution
    • 5: Quantification of sample phase composition: physical mixtures of Si and Ni
    • 5.1 Introduction and overview
    • 5.2 The question
    • 5.3 The result
    • 5.4 The experiment
    • 5.5 What next?
    • 5.6 Wait, what? How do I do that?
    • 5.7 Problems
    • 5.8 Solution
    • 5.9 Diffpy-CMI Solution
    • 6: More advanced crystal structure modeling: the room-temperature structure of crystalline Ba0.7K0.3(Zn0.85Mn0.15)2As2
    • 6.1 Introduction and overview
    • 6.2 The question
    • 6.3 The result
    • 6.4 The experiment
    • 6.5 What next?
    • 6.6 Wait, what? How do I do that?
    • 6.7 Problems
    • 6.8 Solution
    • 6.9 Diffpy-CMI Solution
    • 7: Investigating the tetragonal-to-orthorhombic phase transition in SrFe2As2
    • 7.1 Introduction and overview
    • 7.2 The question
    • 7.3 The result
    • 7.4 The experiment
    • 7.5 What next?
    • 7.6 Wait, what? How do I do that?
    • 7.7 Problems
    • 7.8 Solution
    • 7.9 Diffpy-CMI Solution
    • 8: Simple modeling of nanoparticles: Size-dependent structure, defects and morphology of quantum dot nanoparticles
    • 8.1 Introduction and overview
    • 8.2 The question
    • 8.3 The result
    • 8.4 The experiment
    • 8.5 What next?
    • 8.6 Wait, what? How do I do that?
    • 8.7 Problems
    • 8.8 Solutions
    • 8.9 Diffpy-CMI Solution
    • 9: Local structure in a crystal with short-range ordered lower-symmetry domains: Local iridium dimerization and triclinic distortions in cubic CuIr1.76Cr0.24S4
    • 9.1 Introduction and overview
    • 9.2 The question
    • 9.3 The result
    • 9.4 The experiment
    • 9.5 What next?
    • 9.6 Wait, what? How do I do that?
    • 9.7 Problems
    • 9.8 Solution
    • 9.9 Diffpy-CMI Solution
    • 10: Nano and polycrystalline thin films: Local structure of nanocrystalline TiO2 grown on glass
    • 10.1 Introduction and overview
    • 10.2 The question
    • 10.3 The result
    • 10.4 The experiment
    • 10.5 What next?
    • 10.6 Wait, what? How do I do that?
    • 10.7 Problems
    • 10.8 Solution
    • 10.9 Diffpy-CMI Solution
    • 11: Structure of discrete tetrahedral quantum dots: Atomically precise CdSe tetrahedral nanoclusters
    • 11.1 Introduction and overview
    • 11.2 The question
    • 11.3 The result
    • 11.4 The experiment
    • 11.5 What next?
    • 11.6 Wait, what? How do I do that?
    • 11.7 Problems
    • 11.8 Solution
    • 12: Structure and intercalation environment of disordered layered materials: zirconium phosphonate-phosphate unconventional MOFs
    • 12.1 Introduction .
    • 12.2 The question
    • 12.3 The result
    • 12.4 The experiment
    • 12.5 What next?
    • 12.6 Wait, what? How do I do that?
    • 12.7 Problems
    • 12.8 Solution
    • 13: Magnetic PDF
    • 13.1 Introduction and overview
    • 13.2 The question
    • 13.3 The result
    • 13.4 The experiment
    • 13.5 What next?
    • 13.6 Wait, what? How do I do that?
    • 13.7 Problems
    • 13.8 Solution
    • 14: Tips and Tricks: PDF measurements
    • 14.1 Introduction and overview
    • 14.2 Basic overview: what are total scattering data?
    • 14.3 What type of radiation should I use?
    • 14.4 Detectors
    • 14.5 Sample geometries
    • 14.6 Samples
    • 14.7 Sample environments
    • 15: More PDF Tips and Tricks
    • 15.1 Introduction
    • 15.2 PXRD or PDF, Q-space or r-space analysis?
    • 15.3 Model-free analysis of PDF
    • 15.4 More options for PDF modelling
    • 15.5 Automated PDF modelling
    • 15.6 Final words
    • 16: Appendix 1: Python
    • 16.1 Introduction
    • 16.2 Installing Python programs
    • 16.3 The terminal and the command prompt
    • 16.4 Python IDE's and Jupyter Notebooks
    • 17: Appendix 2: Data processing and integration
    • 17.1 Introduction
    • Bibliography