Small Angle Scattering - Introduction

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Small Angle Scattering - Introduction Why scattering at small angles? Angle & size related thru Braggs law: λ = 2d sin θ

Small Angle Scattering - Introduction Why scattering at small angles? Angle & size related thru Braggs law: λ = 2d sin θ Suppose CuKα x-rays (λ = 1.5418 Å) calculate 2θ for various ds

Small Angle Scattering - Introduction Why scattering at small angles? Angle & size related thru Braggs law: λ = 2d sin θ Suppose CuKα x-rays (λ = 1.5418 Å) calculate 2θ for various ds d 2θ q 10 Å (0.001 micron) 8.84 0.628 Å -1 50 Å 1.77 100 Å (0.01 micron) 0.88 0.0628 Å -1 300 Å 0.29 600 Å 0.15 1000 Å (0.1 micron) 0.09 0.00628 Å -1 10,000 Å (1 micron) 0.009 0.000628 Å -1

Small Angle Scattering - Introduction d 2θ q = (4π/λ) sin θ = 2π/d 10 Å (0.001 micron) 8.84 0.628 Å -1 50 Å 1.77 100 Å (0.01 micron) 0.88 0.0628 Å -1 300 Å 0.29 600 Å 0.15 1000 Å (0.1 micron) 0.09 0.00628 Å -1 10,000 Å (1 micron) 0.009 0.000628 Å -1 High-angle x-ray scattering (usually ~2-160 2θ) --> atomic scale structure

Small Angle Scattering - Introduction d 2θ q = (4π/λ) sin θ = 2π/d 10 Å (0.001 micron) 8.84 0.628 Å -1 50 Å 1.77 100 Å (0.01 micron) 0.88 0.0628 Å -1 300 Å 0.29 600 Å 0.15 1000 Å (0.1 micron) 0.09 0.00628 Å -1 10,000 Å (1 micron) 0.009 0.000628 Å -1 High-angle x-ray scattering (usually ~2-160 2θ) --> atomic scale structure Small-angle scattering --> structure of BIG things

WAXS and SAXS study of (m)tmxdi-pdms siloxane-urethaneureas

WAXS and SAXS study of (m)tmxdi-pdms siloxane-urethaneureas Hard segments --> regions with crystal-like order Soft segments --> amorphous siloxane chains

WAXS and SAXS study of (m)tmxdi-pdms siloxane-urethaneureas Saxs scattering curves for various NCO/OH ratios (a = 1.5/1; e = 4.5/1): 0.9 Size of the hard segment crystalline regions changes

Microstructure orientation and nanoporous gas transport in semicrystalline block copolymer membranes Polymer sheets of semicrystalline ethylene (E)/ethylene propylene (EP) diblock E/EP and triblock E/EP/E copolymers made by channel die proessing

Microstructure orientation and nanoporous gas transport in semicrystalline block copolymer membranes Polymer sheets of semicrystalline ethylene (E)/ethylene propylene (EP) diblock E/EP and triblock E/EP/E copolymers made by channel die processing Sheets are stacked into several types of blocks w/ different gas transport props.

Microstructure orientation and nanoporous gas transport in semicrystalline block copolymer membranes Polymer sheets of semicrystalline ethylene (E)/ethylene propylene (EP) diblock E/EP and triblock E/EP/E copolymers made by channel die processing CD FD 145 Å 436 Å saxs image for perpendicular texture type

Nanometer to Micrometer Void Microstructure Characterization of SOFC Layers and Interfaces by Small Angle Scattering (SAXS) and Computed X-ray Microtomography(XMT)

Critical Dimension Metrology of Nanoscale Structures with Small Angle X-ray Scattering NIST developing transmission saxs method capable of angstrom level precision in critical dimension evaluation over (50 x 50) mm arrays of nanoscale periodic structures

Critical Dimension Metrology of Nanoscale Structures with Small Angle X-ray Scattering SEM image of a photoresist grating on a silicon wafer & resulting 2-D SAXS image

Critical Dimension Metrology of Nanoscale Structures with Small Angle X-ray Scattering SEM image of a photoresist grating on a silicon wafer & resulting 2-D SAXS image Streaks tell about deviations from ideal grating & defects such as long wavelength line edge roughness

Critical Dimension Metrology of Nanoscale Structures with Small Angle X-ray Scattering (a) blue rectangles represent etched regions in a film (b) resulting SAXS detector image

The measurement of the micro-fibril angle in soft-wood Wood cell wall consists of bundles of a crystalline arrangement of cellulose chains (microfibrils)

The measurement of the micro-fibril angle in soft-wood Wood cell wall consists of bundles of a crystalline arrangement of cellulose chains (microfibrils) Microfibrils align quite parallel in a spiral around cell wall, with spiral axis along long cell direction MFA X α

The measurement of the micro-fibril angle in soft-wood Typical saxs patterns from Norway spruce - mean MFA of 20 - longitudinal cell axis vertical. (c) pattern recorded at α = 0. (d) pattern recorded at α = 45