X-ray Scattering

C. Burger; B. S. Hsiao; B. Chu

doi:10.1016/B978-0-444-53349-4.00031-5

X-ray Scattering

C. Burger
, B. S. Hsiao
, B. Chu

Chemistry

Stony Brook University

Stony Brook University

Research output: Chapter in Book/Report/Conference proceeding › Chapter › peer-review

4 Scopus citations

Abstract

Structure characterization in Fourier space uses X-ray, neutron, or light scattering to analyze structural correlations on a molecular or supramolecular length scale. Unlike microscopy, the probed sample volume for scattering techniques is macroscopically large, and the generated structural information is not a direct image of the structure. Using adequate data analysis, Fourier space characterization can provide quantitative information both on structural units (e.g., unit cells, discrete particles) and on their mutual arrangement (ordered, disordered, preferentially oriented). Experimental scattering techniques do not destroy the sample and can be carried out in situ.

Original language	English
Title of host publication	Polymer Science
Subtitle of host publication	A Comprehensive Reference, 10 Volume Set
Publisher	Elsevier
Pages	363-380
Number of pages	18
Volume	2
ISBN (Print)	9780080878621
DOIs	https://doi.org/10.1016/B978-0-444-53349-4.00031-5
State	Published - 2012

Keywords

Autocorrelation functions
Crystallinity
Fiber scattering
Lattice disorder
Layered structures
Macrolattices
Nanostructures
Porod's law
Preferred orientation
SAXS
Semicrystalline polymers
Solution scattering
Two-phase systems
WAXS
X-ray scattering

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10.1016/B978-0-444-53349-4.00031-5

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title = "X-ray Scattering",

abstract = "Structure characterization in Fourier space uses X-ray, neutron, or light scattering to analyze structural correlations on a molecular or supramolecular length scale. Unlike microscopy, the probed sample volume for scattering techniques is macroscopically large, and the generated structural information is not a direct image of the structure. Using adequate data analysis, Fourier space characterization can provide quantitative information both on structural units (e.g., unit cells, discrete particles) and on their mutual arrangement (ordered, disordered, preferentially oriented). Experimental scattering techniques do not destroy the sample and can be carried out in situ.",

keywords = "Autocorrelation functions, Crystallinity, Fiber scattering, Lattice disorder, Layered structures, Macrolattices, Nanostructures, Porod's law, Preferred orientation, SAXS, Semicrystalline polymers, Solution scattering, Two-phase systems, WAXS, X-ray scattering",

author = "C. Burger and Hsiao, \{B. S.\} and B. Chu",

year = "2012",

doi = "10.1016/B978-0-444-53349-4.00031-5",

language = "English",

isbn = "9780080878621",

volume = "2",

pages = "363--380",

booktitle = "Polymer Science",

publisher = "Elsevier",

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TY - CHAP

T1 - X-ray Scattering

AU - Burger, C.

AU - Hsiao, B. S.

AU - Chu, B.

PY - 2012

Y1 - 2012

N2 - Structure characterization in Fourier space uses X-ray, neutron, or light scattering to analyze structural correlations on a molecular or supramolecular length scale. Unlike microscopy, the probed sample volume for scattering techniques is macroscopically large, and the generated structural information is not a direct image of the structure. Using adequate data analysis, Fourier space characterization can provide quantitative information both on structural units (e.g., unit cells, discrete particles) and on their mutual arrangement (ordered, disordered, preferentially oriented). Experimental scattering techniques do not destroy the sample and can be carried out in situ.

AB - Structure characterization in Fourier space uses X-ray, neutron, or light scattering to analyze structural correlations on a molecular or supramolecular length scale. Unlike microscopy, the probed sample volume for scattering techniques is macroscopically large, and the generated structural information is not a direct image of the structure. Using adequate data analysis, Fourier space characterization can provide quantitative information both on structural units (e.g., unit cells, discrete particles) and on their mutual arrangement (ordered, disordered, preferentially oriented). Experimental scattering techniques do not destroy the sample and can be carried out in situ.

KW - Autocorrelation functions

KW - Crystallinity

KW - Fiber scattering

KW - Lattice disorder

KW - Layered structures

KW - Macrolattices

KW - Nanostructures

KW - Porod's law

KW - Preferred orientation

KW - SAXS

KW - Semicrystalline polymers

KW - Solution scattering

KW - Two-phase systems

KW - WAXS

KW - X-ray scattering

UR - https://www.scopus.com/pages/publications/84884960508

U2 - 10.1016/B978-0-444-53349-4.00031-5

DO - 10.1016/B978-0-444-53349-4.00031-5

M3 - Chapter

SN - 9780080878621

VL - 2

SP - 363

EP - 380

BT - Polymer Science

PB - Elsevier

ER -

X-ray Scattering

Abstract

Keywords

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