Note 101:

Powder Surface Area Comparison BET and Acorn Area

Note 102:

Aluminum Oxide Surface Area using the Acorn Area

Note 103:

Silica Surface Area with the Acorn Area

Note 104:

Surface Area of Active Pharmaceutical Ingredients using the Acorn Area

Note 105:

Surface Area of Silicon Carbide Suspensions

Note 106:

Zinc Oxide Sunscreen Suspensions

Note 107:

Surfactant Adsorption using the Acorn Area

Note 108:

Active Pharmaceutical Ingredient Milling and Relaxation Time

Note 109:

T2 as a Function of Time Barium Titanate

Note 110:

Comparison Between Laser Diffraction and Wetted Surface Area to Monitor Milling

Note 112:

Pharmaceutical Formulation Development and the Acorn Area

Note 113:

Progressive Saturation T1

Note 114:

Drop Size and Polydispersity

Note 115:

NMR Relaxation in Mixed Polymers

Note 116:

NMR Relaxation of Suspensions of Mixed Particles

Note 117:

NMR Relaxation and Mixed Surfactants

Note 119:

NMR Relaxation of Resins and Polymers

Note 120:

Au & Ag Nanoparticle Aging

Note 121:

Surface Area from NMR and Particle Size

Note 122:

NMR Relaxation & Adsorption Phenomena

Note 124:

Microemulsion Relaxation

Note 125:

Titration Surface Area Comments

Note 126:

High Temperature Testing

Note 127:

Sedimenting Sample Testing

Note 128:

Carbon Nanotube Wetted Surface Area

Note 129:

Nanocellulose Presentation TAPPI Nano International Conference on Nanotechnology for Renewable Materials in Grenoble, France.

Note 130:

Inkjet Inks

Note 131:

Catalytic Coating Dispersion Efficiency

Note 132:

Pharmaceutical Formulation Stability

Note 133:

UV Curing Resin

Note 134:

Sedimentation Stability Comparison

Note 135:

Relaxation Measurements With Flow

Note 136:

Why sizers only tell part of the story

Note 137:

Battery Slurry Carbon-NMP Polymer Adsorption

Note 138:

Surface Chemistry

Note 139:

Inkjet Ink Formulation

Note 140:

Epoxy Cure Analysis

Cordouan P1:

Gadolinum Vanadate & Catalyst Efficiency

Micro- and nanosized architectures in hydrothermal Tm3+-doped GdVO4:
chemical insights towards preservation of the emission efficiency

Cordouan P2:

Nano-Perskovites as Catalysts

Structural Features of (Ce, La or Sr)(Mn or Co)O3 Nano-
Perovskites as a Catalyst for Carbon Monoxide Oxidation

Cordouan P3:

DLS of HIV Nanovaccine

Advanced nanomedicine characterization by DLS and AF4-UV-MALS:Application to a HIV nanovaccine

Cordouan P4:

pH & Temperature on Antibacterial Activity of ZnO

Effects of pH and Temperature on Antibacterial Activity of Zinc Oxide Nanofluid Against Escherichia coli O157: H7 and Staphylococcus aureus

Cordouan P5:

Particle Geometry and Cytotoxicity

GEOMETRY OF NANOPARTICLES AS A DETERMINANT
OF THEIR CYTOTOXICITY

Cordouan P6:

SBL Theory

EARLY CATARACT DETECTION BY DYNAMIC LIGHT
SCATTERING WITH SPARSE BAYESIAN LEARNING

Cordouan P7:

Gold Nanoparticles & Cancer Therapy

Enhanced Two-Photon Fluorescence Imaging and Therapy of Cancer Cells
via Gold@Bridged Silsesquioxane Nanoparticles

Cordouan P8:

Core Shell Nanoparticles and Photochromic Properties

Hybrid spiropyran–silica nanoparticles with a core-shell structure: sol–gel
synthesis and photochromic properties

Cordouan P9:

Iron Oxide Nanoparticles & In Situ DLS

iron oxide
nanoparticles studied by in situ dynamic

Cordouan P10:

Fluorinated Magnetic Nanoparticles  DLS

Design of a fluorinated magneto-responsive
material with tuneable ultrasound scattering
properties†

Cordouan P11:

Stability * Dynamics of Silicate micelles

Stability and dynamics of silicate/organic hybrid micelles