Welcome Message - ACS · 10 SUNDAY, 10 JUNE 2012 Pre-registration packet pick-up (12:00 - 7:30PM)...

3

Welcome Message

Co-chairs, 86th American Chemical Society Colloid &

Surface Science Symposium

We welcome you to Johns Hopkins University for the 86th American Chemical Society Colloid and Surface Science Symposium. Research in colloid and surface science crosses many disciplines, which is exemplified by the involvement in the Symposium of JHU researchers from many divisions, including the Medical School, Applied Physics Lab, the Whiting School of Engineering, the Krieger School of Arts and Science, and the Institute for NanoBioTechnology. The Symposium is sponsored by the by Johns Hopkins University’s Whiting School of Engineering as part of its 100th anniversary celebration. Other sponsors include the National Science Foundation, MedImmune, Biolin Scientific, Langmuir, Gore, Wyatt, Soft Matter, and all of the symposium exhibitors. We would like to thank all of the organizers, invited speakers, and participants for creating an exciting program of talks and posters. We hope you enjoy the Symposium!

Michael Bevan Joelle Frechette

4

5

Table of Contents

Welcome message 3

Table of Contents 5

Organizing Committee 6

Program at a Glance 9

Symposium Sponsors 19

Symposium Exhibitors 25

Floor Plans 31

Plenary & Awards Lectures 41

Technical Program 53

Author Index 163

6

The 86th ACS Colloid & Surface Science Symposium June 10-13th 2012 Johns Hopkins University, Baltimore, Maryland Conference Co-Chairs Michael Bevan Department of Chemical and Biomolecular Engineering, Johns Hopkins University [email protected] Joelle Frechette Department of Chemical and Biomolecular Engineering, Johns Hopkins University [email protected]

Organizing Committee Members Industrial Sponsors & Exhibitors Patricia McGuiggan Department of Materials Science and Engineering, Johns Hopkins University

Tom Fekete Institute for NanoBio Technology, Johns Hopkins University

Website Designer & Coordinator Daniel Beltran (PhD candidate) Department of Chemical and Biomolecular Engineering, Johns Hopkins University

Editor, Program & Abstract Booklet David Broesch, Tara Edwards (PhD candidates) Department of Chemical and Biomolecular Engineering, Johns Hopkins University

7

Cover, Overview Flyer, Logo Design Margarita Herrera-Alonso Department of Materials Science and Engineering, Johns Hopkins University

Conference Administrative Staff McCardell O, Rigby D, Porterfield S.

Student Volunteers Bitter J, Duncan G, Gupta R, Hua X, Luo M, Pick C, Rupp B, Sevilla A, Swavola J, Yang Y.

Other Committee Members

Langmuir Award election committee and judges Furst E, Granick S, Walker L, Walz J, Whitten D

Poster session Organizers Fagan J, Morfesis A

Poster session judges Chen K, Cui H, Fagan J, Gagnon Z, Garbin V, Herrera-Alonso M, Khair A, Morfesis A, Schulman R, Tu R.

Session Chairs, Co-chairs Anna S, Chen K, Dagastine R, Dinsmore A, Drazer G, Fairbrother H, Gagnon Z, Garoff S, Gracias D, Hanes J, Herrea-Alonso M, Hristova K, Johnson W, Kretzschmar I, Leckband D, Leheny R, McGuiggan P, Pesika N, Raghavan S, Schneider J, Solomon M, Squires T, Stebe K, Teplyakov A, Velegol D, Velev O.

Session Presiders Biswal S.L, Bonaccurso E, Butt H.J, Change S.T, Chen V, Extrand C, Furst E, Garbin V, Garoff S, Gaskell K.J, Granick S, Johnston K.P, Khair A.S, Larson R.G, Li Q, Li Y, Lio Y, Materer N, Mays D, Mohraz A, Mugele F, Nikolov A, Petsev D, Shojaei-Zadeh S, Tabor R, Varanasi K, Velev O.D, Walker L.M, Walz J, Whitten D, Wu N, Yellen B, Yiacoumi S,

8

9

Program at a Glance

10

SUNDAY, 10 JUNE 2012 Pre-registration packet pick-up (12:00 - 7:30PM)

Levering Hall

Welcome Reception (5:30 – 7:30PM)

The

Colonnade

MONDAY, 11 JUNE 2012 MORNING

Plenary I (8:20-9:20AM) Shriver Hall Coffee Break (9:20-9:50AM)

Levering Hall

TECHNICAL SESSIONS (9:50AM – 12:10PM)

LOCATION

Assembly on the Nano- and Microscale I: Colloidal Assembly

Maryland 110

Biocolloids I: Biological Transport Shaffer 304

Colloidal and Surface Forces I: Fluidic Systems I

Maryland 109

Environmental Aspects I: Nanoparticles I

Shaffer 301

Microfluidics I: Polymers in Microfluidics

Shaffer 101

Molecular Assembly I: Polymer-Based Assemblies I

Maryland 201

Particles at Fluid Interfaces I: Inter-Particle Forces

Shaffer 100

Surface Science I Shaffer 2

Wetting I: Ultrahydrophobic Surfaces

Shaffer 303

Lunch: 12:10 – 1:30PM

Levering Hall

11

MONDAY, 11 JUNE 2012 AFTERNOON

TECHNICAL SESSIONS (1:30PM – 3:10PM)

LOCATION

Assembly on the Nano- and Microscale II: Convective Assembly

Maryland 110

Biointerfaces I: Water at Interfaces Shaffer 304

Colloidal and Surface Forces II: Fundamentals

Maryland 109

Electrokinetics I: Porous and Nanoscale Electrokinetics

Shaffer 101

Environmental Aspects II: Membrane and Separation Processes I

Shaffer 301

Molecular Assembly II: Amphiphile Self-Assembly

Maryland 201

Rheology and Dynamics I: Gels, Glasses, and New Materials

Shaffer 100

Surface Science II Shaffer 2

Wetting II: Electrowetting and Directed Wetting

Shaffer 303

Coffee Break (3:10-3:40PM)

Levering Hall


LOCATION

Assembly on the Nano- and Microscale III: Three Dimensional Assembly

Maryland 110

Biocolloids II: Macromolecules Shaffer 304

Colloidal and Surface Forces III: Surface Tribology

Maryland 109

Environmental Aspects III: Membrane and Separation Processes II

Shaffer 301

General Papers I: Particles and Assembly I

Krieger 205

Microfluidics II: Separation and Capture

Shaffer 101

12

Molecular Assembly III: Polymer-Based Assemblies II

Maryland 201

Particles at Fluid Interfaces II: Novel Materials and Applications I

Shaffer 100

Surface Science III Shaffer 2

Wetting III: Electrowetting and Directed Wetting II

Shaffer 303

Poster session and reception (5:30-7:30PM)

Levering Hall

TUESDAY, 12 JUNE 2012 MORNING

Plenary II (8:20-9:20AM) Shriver Hall Coffee Break (9:20-9:50AM)

Levering Hall


LOCATION

Assembly on the Nano- and Microscale IV: Applications

Maryland 110

Biointerfaces II: Lipid Bilayer Interfaces

Shaffer 304

Colloidal and Surface Forces IV: Biological Systems

Maryland 109

Electrokinetics II: Bioanalytical Applications

Shaffer 101

Environmental Aspects IV: Transport in Porous Media

Shaffer 301

General Paper II: Emulsions Shaffer 100

Molecular Assembly IV: Surfactant Self-Assemblies I

Maryland 201

Rheology and Dynamics II: Connecting Structure and Rheology–Non-Linear Response

Shaffer 300

Surface Science IV Shaffer 2

Wetting IV: Dynamics Shaffer 303

Lunch: 12:10 – 1:30PM

Levering Hall

13

TUESDAY, 12 JUNE 2012 AFTERNOON


LOCATION

Assembly on the Nano- and Microscale V: Methods

Maryland 110

Biocolloids III: Nanoparticles Shaffer 300

Biointerfaces III: Cell Adhesion Shaffer 304

Environmental Aspects V: Nanoparticles II

Shaffer 301

Langmuir Student Awards I Maryland

109

Microfluidics III: Colloids in Microfluidics

Shaffer 101

Molecular Assembly V: DNA-Mediated Systems

Maryland 201

Particles at Fluid Interfaces III: Novel Materials and Applications II

Shaffer 100

Wetting V: Soft Surfaces Shaffer 303


Levering Hall


LOCATION

Assembly on the Nano- and Microscale VI: Assembly

Maryland 110

Biointerfaces IV: Membrane Properties

Shaffer 304

Electrokinetics III: Behavior of Particles and Interfaces

Shaffer 101

Environmental Aspects VI: Nanoparticles III

Shaffer 301

General Papers III: Particles and Assembly II

Shaffer 100

Langmuir Student Awards II Maryland

109

Molecular Assembly VI: Surfactant Self-Assemblies II

Maryland 201

14

Rheology and Dynamics III: New Microscopic Methods for Rheology and Dynamics

Shaffer 300

Wetting VI: Surface Active Materials Shaffer 303

Unilever Award Lecture (5:30-6:30PM)

Shriver Hall

Banquet (7:00 – 10:00PM)

Baltimore

Museum of Industry

WEDNESDAY, 13 JUNE 2012 MORNING

Victor K LaMer Award Lecture (8:20-9:20AM)

Shriver Hall

Coffee Break (9:20-9:50AM)

Levering Hall


LOCATION

Assembly on the Nano- and Microscale VII: Magnetic and Electric Field Assisted Assembly

Maryland 110

Biocolloids IV: Drug Delivery Shaffer 304

Colloidal and Surface Forces V: Functional Colloids

Maryland 109

Environmental Aspects VII: Transport in Porous Media - Applications

Shaffer 301

General Papers IV: Polymers and Polymer Colloids

Shaffer 302

Microfluidics IV: Drops and Bubbles in Microfluidics

Shaffer 101

Particles at Fluid Interfaces IV: Adsorption and Interfacial Coverage

Maryland 201

Rheology and Dynamics IV: Brownian Probes of Complex Fluid Behavior

Shaffer 100

15

Wetting VII: Complex Surfaces, Contact Angles, and Contact Angle Hysteresis I

Shaffer 303

Lunch: 12:10 – 1:30PM

Levering Hall

WEDNESDAY, 13 JUNE 2012 AFTERNOON


LOCATION

Assembly on the Nano- and Microscale VIII: Surfactants and Nanoparticles

Maryland 110

Biointerfaces V: Engineered Interfaces

Shaffer 304

Colloidal and Surface Forces VI: Fluidic Systems II

Maryland 109

Electrokinetics IV: Fundamentals of Electrokinetic Flows

Shaffer 101

Environmental Aspects VIII: Applications I

Shaffer 301

General Paper V: Adsorption and Wetting

Shaffer 302

Rheology and Dynamics V: Interfacial Systems

Shaffer 100

Wetting VIII: Complex Surfaces, Contact Angles, and Contact Angle Hysteresis II

Shaffer 303


Levering Hall


LOCATION

Assembly on the Nano- and Microscale IX: Colloidal Assembly II

Maryland 110

Biocolloids V: General Papers Krieger 304

Colloidal and Surface Forces VII: Fundamentals II

Maryland 109

Environmental Aspects IX: Applications II

Shaffer 301

16

General Paper VI: Thermal Effects and Heat Transfer in Colloids

Shaffer 302

Microfluidics V: Fabrication and General

Shaffer 101

Particles at Fluid Interfaces V: Rheology and Dynamics

Maryland 201

Wetting IX: Drying, Evaporation, Condensation, and Deposition

Shaffer 303

17

18

19

Symposium Sponsors

20

Platinum Plus:

(http://engineering.jhu.edu/)

Interfacial Processes and Thermodynamics &

Particulate and Multiphase Processes

(www.nsf.gov)

21

Platinum:

(www.biolinscientific.com)

(www.medimmune.com)

(http://pubs.acs.org/journal/langd5)

22

Silver:

(www.wyatt.com)

(http://pubs.rsc.org/en/Journals/Journ

alIssues/SM)

(www.gore.com)

23

24

25

Symposium Exhibitors

26

Accurion (www.accurion)

Biolin Scientific (www.biolinscientific.com)

Brookhaven Instruments Corporation

(http://bic.com)

CPS Instruments, Inc (www.cpsinstruments.com)

27

Izon (www.Izon.com)

Kyowa (www.Face-Kyowa.com)

Malvern (www.malvern.com)

Nanosight Ltd (www.nanosight.com)

28

Particle Sizing Systems (http://pssnicomp.com)

TA instruments (www.tainstruments.com)

Zeiss (www.zeiss.com)

29

30

31

Floor Plans

32

Shaffer Hall Basement

33

Shaffer Hall 1st Floor

34

Shaffer Hall 3rd Floor

35

Maryland Hall 1st Floor

36

Maryland Hall 2nd Floor

37

Krieger Hall 2nd Floor

38

Shriver Hall

39

Levering Hall

40

41

Plenary & Award Lectures

42

Plenary Speaker

Arjun G. Yodh Department of Physics and Astronomy, University of Pennsylvania, Philadelphia, PA.

Arjun G. Yodh is the James M. Skinner Professor

of Science at the University of Pennsylvania. He

is Director of Penn’s The Laboratory for

Research on the Structure of Matter and its NSF-

Materials Science Research & Engineering

Center (NSF-MRSEC). His home department is

Physics & Astronomy, and he holds a secondary

appointment in the Department of Radiation

Oncology in the Medical School. Yodh received

his B.Sc. from Cornell University and his Ph.D.

from Harvard University. He joined the

University of Pennsylvania faculty in 1988,

following a two-year postdoctoral fellowship at

AT&T Bell Laboratories. His current interests

span fundamental and applied questions in soft

matter physics, biomedical optics, and the

optical_sciences.

(www.physics.upenn.edu/yodhlab/).

43

Monday, June 11, 2012, 8:20 AM - 9:20 AM Shriver 103

From coffee rings to phonons: The particles reveal the insights I will discuss findings from recent experiments

with colloidal suspensions which reveal new

phenomena associated with a surprisingly broad

range of problems. The first set of experiments

employ temperature-sensitive microgel particles

to study phonons in colloidal glasses and their

relation to the mechanical response of

disordered solids. The second set explores the

role of particle shape in affecting particle

deposition during evaporation, i.e., the affect of

particle shape on the coffee ring effect.

44

Plenary Speaker

Charles F. Zukoski

Chemical and Biomolecular Engineering, University of Illinois at Urbana-Champaign, Urbana, IL.

Charles F. Zukoski is the Elio Eliakim Tarika

Chair at the University of Illinois at Urbana-

Champaign. He was head of the Department of

Chemical and Biomolecular Engineering at

Illinois from 1994 to 2002. He served as Vice

Chancellor for Research at the University of

Illinois at Urbana-Champaign from 2002 to

2008, and from 2006-2012 he was the Chairman

of the Science and Engineering Research Council

of the Agency for Science, Technology, and

Research in Singapore. He was named one of

the Hundred Chemical Engineers of the Modern

Era by the American Institute of Chemical

Engineers and is a member of the National

Academy of Engineering. His home department

is Chemical & Biomolecular Engineering, and he

holds numerous secondary appointments.

Zukoski received his B.S. from Reed College and

his Ph.D. from Princeton University. He joined

the University of Illinois as a faculty member in

1985. His current interests span fundamental

and applied questions in the rheology and phase

behavior of colloidal suspensions

(http://chbe.illinois.edu/directory/faculty/charle

s-zukoski)

45

Tuesday, June 12, 2012, 8:20 AM - 9:20 AM Shriver 103

States of particle dispersion in polymer melts. Particles are incorporated into polymers to

impart optical, electrical and mechanical

properties. As the particle size shrinks novel

properties emerge. In the first place, particles

dispersion is very difficult to predict. In

addition, glass transition temperatures are

observed to increase or decrease with addition

of particles. Moreover, melt viscosities can

increase or decrease with addition of particles.

Explanations for these phenomena are

unsettled. Yet nanocomposites serve enormous

markets where control of these variables is of

substantial economic importance. In this talk, I

will discuss experiments aimed at unraveling

these mysteries. The key parameter controlling

particle dispersion emerging from Polymer

Reference Interaction Site Model (PRISM)

theory of Schweizer is the enthalpy of

interaction of a polymer segment and the

particle surface pc. When pc is small, particles

are excluded from the bulk polymer due to loss

of entropy. When pc is large, the polymer

bridges between particles. Only for a region of

intermediate pc are thermodynamically stable

polymer layers formed at the particle surface

resulting in the particles and polymer being

miscible. Details of PRISM predictions of

46

polymer and particle microstructure are

confirmed for low molecular weight polymers

and correlations can be developed between pc

and composite viscoelastic properties. At these

low molecular weights, the polymer is a

Newtonian fluid and the particles are index

matched such that residual van der Waals forces

are minimized. Yet details of “continuous

phase” chemistry are found to strongly

influence microstructure and state of dispersion.

As polymer molecular weight increases, PRISM

predictions fail and polymer entanglements are

induced as average particle surface-to surface

separations approach 6Rg where Rg is the

polymer radius of gyration. Under these

conditions composite mechanical properties are

strongly influenced by the internal degrees of

freedom of the “continuous phase”. From this

work, a series of generalizations are drawn on

the role of surface chemistry in controlling

composite mechanics emphasizing that new

properties seen in nanocomposites result from

particle induced changes in polymer dynamics

and polymer induced changes to particle

dynamics.

47

48

Unilever Award Lecture

Liangfang Zhang Department of Nanoengineering, University of California, San Diego, La Jolla, CA.

Liangfang Zhang received his Ph.D. in Chemical

& Biomolecular Engineering from the University

of Illinois at Urbana-Champaign (UIUC) in 2006

under the supervision of Prof. Steve Granick. He

was a postdoctoral associate in the laboratory of

Prof. Robert Langer at MIT during 2006-2008.

He joined the Department of Nanoengineering

at UC San Diego as an Assistant Professor in July

2008 and was promoted to an Associated

Professor with tenure in March 2012. Besides

this prestigious Unilever Award, Dr. Zhang also

received the Victor K. LaMer Award in 2009,

Hellman Faculty Fellow Award in 2009, Best

Teacher Award at UCSD in 2011, and

Mentorship Award in Translational Research at

UCSD in 2012. He has published 55 peer-

reviewed articles on colloids, surface sciences,

and their applications in healthcare. He also

holds 14 patents in the fields of biocolloids and

nanotechnology, which are all being translated

to practice.

49

Tuesday, June 12, 2012, 5:30 PM - 6:30 PM Shriver 103

Biocolloids in medicine: From cancer

therapy to bacterial infection treatment.

I will report some recent findings and ongoing

research in my laboratory regarding the

development of biocolloid platforms for

combinatorial chemotherapy and antimicrobial

drug delivery to treat bacterial infections.

Specifically, I will report a top-down biomimetic

approach in colloid functionalization by coating

biodegradable polymeric nanoparticles with

natural red blood cell (RBC) membranes

including both membrane lipids and associated

membrane proteins for long-circulating cargo

delivery. This approach aims to camouflage the

nanoparticle surface with the erythrocyte

exterior for long circulation while retaining the

applicability of the polymeric core. In addition, I

will also present a skin-microenvironment

responsive nanoparticle system to deliver

antimicrobial compounds as a new, effective

and safe medication for the treatment of

bacterial infections including acne vulgaris and

staph infections.

50

Victor K. LaMer Award Lecture

Bo Wang

University of Illinois at Urbana-Champaign, Urbana, IL.

Bo Wang received his Ph.D. in Materials Science and Engineering from the University of Illinois at Urbana-Champaign in 2011 under the direction of Prof. Steve Granick. His dissertation was focused on using statistical imaging on the single molecule/particle level to elucidate transport phenomena in complex fluids ranging from entangled polymers to living cells. Afterwards, he became a post-doctoral fellow of Institute for Genomic Biology, and seeks to understand the cellular organization and decision making in regeneration and post-embryonic development in flatworms, using the unique toolbox – his strengths in physical sciences and imaging, combined with fluency in molecular biology and genetics.

51

Wednesday, June 13, 2012, 8:20 AM - 9:20 AM Shriver 103

Phospholipids, assemblies, and active transport. A grand challenge in colloid science is to form structures that are not frozen in place but instead reconfigures internally driven by energy throughput and adapts to its environment robustly. Predicated on fluorescence imaging at the single-particle level, this talk describes quantitative studies of how this can happen. First, the surface reconstruction of phospholipid bilayer is studied: an amazing parallel with the environmental sensitivity of hard surfaces is discovered. Second, transportation efficiency problems within living cells are studied: an amazing parallel with polymer chain trajectories is noted. From both studies, the conclusions suggest new principles and opportunities to couple energy throughput with organization and properties of “active matter”.

52

53

Technical Program

54

Plenary I

Monday, June 11, 2012, 8:20 AM - 9:20 AM Shriver 103

8:20 1. From coffee rings to phonons: The particles reveal the insights. A. Yodh; Department of Physics and Astronomy, University of Pennsylvania, Philadelphia, PA.

55

Assembly on the Nano- and Microscale I: Colloidal Assembly

Monday, June 11, 2012, 9:50 AM - 12:10 PM Maryland 110

Organizers: Orlin D. Velev, David Gracias Presider: David Gracias

9:50 2. Ultra-high power and energy density rechargeable batteries derived from colloidal crystals. P. Braun; University of Illinois at Urbana-Champaign, Urbana, IL. Keynote Lecture

10:30 3. Feedback control of colloidal crystal size with electrokinetics. J. J. Juarez

1, P. Mathai

2, 3,

J. Liddle2, M. A. Bevan

4;

1University of Illinois

at Urbana-Champaign, Urbana, IL, 2National

Institute of Standards and Technology, Gaithersburg, MD,

3University of Maryland,

College Park, MD, 4Johns Hopkins University,

Baltimore, MD.

10:50 4. Assembly of anisotropic particles under AC electric field. F. Ma, S. Wang, N. Wu; Colorado School of Mines, Golden, CO.

11:10 5. Electric field driven self-assembly of gold nanoparticles suspended in a nonpolar solvent. S. D. Oberdick, S. Majetich; Carnegie Mellon University, Pittsburgh, PA.

11:30 6. Colloidal assembly by electrophoretic deposition: Physical mechanisms and direct numerical simulations. J. Park, D. Saintillan; University of Illinois, Urbana, IL.

11:50 7. Viscosity dependent Janus particle chain dynamics. B. Ren, I. Kretzschmar; City College of New York, New York, NY.

56

Biocolloids I: Biological Transport

Monday, June 11, 2012, 9:50 AM - 12:10 PM Shaffer 304

Organizers: Justin Hanes, James Schneider Presider: Justin Hanes

9:50 8. Assembly of complex nano carriers by block copolymer directed assembly. R. K. Prud'homme; Princeton University, Princeton, NJ. Keynote Lecture

10:30 9. Nanostructures for real-time monitoring by MRI of head and neck cancer. Y. Kuo

1, C.

Hung2, S. R. Raghavan

1, W. D. D'Souza

2;

1University of Maryland, College Park, MD,

2University of Maryland School of Medicine,

Baltimore, MD.

10:50 10. Acoustic responsive colloids for bioseparations. L. M. Johnson

1, L. Gao

2, G. P.

Lopez3;

1Department of Biomedical

Engineering, 2Department of Mechanical

Engineering and Materials Science, 3Triangle

Material Research Science and Engineering Center, Duke University, Durham, NC.

11:10 11. Tuning the mechanical properties of pH-responsive doubly crosslinked microgels using particle composition: Progress towards minimally invasive repair of degenerated intervertebral discs. B. Saunders; University of Manchester, Manchester, United Kingdom.

11:30 12. T-cell activation by artificial antigen presenting cells (aAPC): Effects of particle shape. J. C. Sunshine, K. Perica, J. P. Schneck, J. J. Green; Johns Hopkins School of Medicine, Baltimore, MD.

11:50 13. Young’s modulus of B. Subtilis cell wall: Measuring and modeling the elasticity of rod-Like bacteria. M. J. Barrett, D. Vezenov; Lehigh University, Bethlehem, PA.

57

Colloidal and Surface Forces I: Fluidic Systems I


Organizers: Darrell Velegol, Noshir Pesika Presider: Noshir Pesika

9:50 14. New theories and brownian dynamics simulations for rates of coagulation in dilute and concentrated colloidal dispersions. A. V. Kelkar, J. Dong, E. I. Franses, D. S. Corti; Purdue University, West Lafayette, IN.

10:10 15. Anisotropic Stokes drag and dynamic lift on cylindrical colloids in a nematic liquid crystal. J. B. Rovner, C. P. Lapointe, D. H. Reich, R. L. Leheny; Johns Hopkins University, Baltimore, MD.

10:30 16. A new interaction potential for hydrophobic-hydrophilic interactions. J. Israelachvili, S. Donaldson, B. Chmelka, M. S. Shell, A. Chaimovich; University of California, Santa Barbara, CA. Keynote Lecture

11:10 17. Colloidal forces between oil drops and bubbles measured by atomic force microscopy. R. Tabor, D. Chan, F. Grieser, R. R. Dagastine; University of Melbourne, Parkville, Australia.

11:30 18. Direct measurements of non-DLVO forces between silica colloids and surfaces. J. L. Bitter, G. A. Duncan, D. H. Fairbrother, M. A. Bevan; The Johns Hopkins University, Baltimore, MD.

11:50 19. Forces between hydrophobic solids in concentrated aqueous salt solution. D. J. Mastropietro, W. A. Ducker; Virginia Polytechnic Institute and State University, Blacksburg, VA.

58

Environmental Aspects I: Nanoparticles I


Organizers: William Johnson, Kai Loon Chen Presider: Kai Loon Chen

9:50 20. Natural organic matter alters biofilm susceptibility to silver nanoparticles and silver ions. S. M. Wirth, R. D. Tilton, G. V. Lowry; Carnegie Mellon University, Pittsburgh, PA.

10:10 21. Aggregation and sedimentation phenomena of bare and coated titanium dioxide nanoparticles in conventional treatment processes. R. Honda; University of California, Riverside, Riverside, CA.

10:30 22. Synthesis and characterization of environmentally benign nanoparticles. A. P. Richter

1, V. N. Paunov

2, S. Stoyanov

3, S.

Gangwal4, E. A. Hubal

4, O. D. Velev

1;

1North

Carolina State University, Raleigh, NC, 2University of Hull, Hull, United Kingdom,

3University of Wageningen, Wageningen,

United Kingdom, 4U.S. Environmental

Protection Agency, Research Triangle Park, NC.

10:50 23. Octanol-water partition coefficient (KOW): Is it a good measure of hydrophobicity of nanoparticles? Y. Xiao, M. R. Wiesner; Duke University, Durham, NC.

11:10 24. Stability, metal mobilization, photoactivity and toxicity of five commercial single wall carbon nanotubes in natural waters. S. Bennett, A. A. Keller; University of California, Santa Barbara, Santa Barbara, CA.

11:30 25. Sulfidation of metal and metal oxide nanoparticles: Colloid stability affected by transformation. R. Ma

1, C. Levard

2, J.

Stegemeier1, G. Brown

3, G. Lowry

1;

1Carnegie

Mellon University, Pittsburgh, PA,

59

2Department of Geological & Environmental

Sciences Stanford University, Stanford, CA,

11:50 26. Ion exchanger-supported zirconium oxide nanoparticles as a robust reusable sorbent. S. Padungthon, A. K. SenGupta; Lehigh University, Bethlehem, PA.

60

Microfluidics I: Polymers in Microfluidics

Monday, June 11, 2012, 9:50 AM - 11:50 AM Shaffer 101

Organizers: Shelley L. Anna, German Drazer Presider: Shelley L. Anna

9:50 27. Statics and dynamics of DNA in nanochannels. K. D. Dorfman; University of Minnesota, Minneapolis, MN. Keynote Lecture

10:30 28. Stochastic rotation dynamics simulations of a polymer chain in a contraction flow. L. Jiang, N. Watari, R. G. Larson; University of Michigan, Ann Arbor, MI.

10:50 29. Dynamics of short semi-flexible polymers in microfluidic channel flows. H. Manikantan, D. Saintillan; University of Illinois at Urbana-Champaign, Urbana, IL.

11:10 30. Colloidal analogues of charged and uncharged polymer chains with tunable stiffness. H. Vutukuri, B. Peng, A. Imhof, A. van Blaaderen; Utrecht University, Utrecht, Netherlands.

11:30 31. Using a microfluidic bead array assembled by flow entrapment to measure the rate of conjugation of biomolecular targets to receptors on the bead surface. X. Chen, T. Leary, C. Maldarelli; City College of New York, New York, NY.

61

Molecular Assembly I: Polymer-Based Assemblies I


Organizers: Margarita Herrera-Alonso, Srinivasa Raghavan Presider: Margarita Herrera-Alonso

9:50 32. Lateral segregation in block copolymer assemblies: From ligand-induced Janus vesicles to half-crystalline worm micelles. D. Discher; NanoBioPolymers Lab, University of Pennsylvania, Philadelphia, PA. Keynote Lecture

10:30 33. Polymeric micelle-to-vesicle transition driven by metallic nanoparticles. H. Kong, J. Jeong; University of Illinois at Urbana-Champaign, Urbana, IL.

10:50 34. Designer self-assembled materials from recombinant oleosin. D. A. Hammer, K. Vargo, R. Parthasarathy; University of Pennsylvania, Philadelphia, PA.

11:10 35. Constructing supramolecular nanoprobes as effective protease sensors. L. Lock, A. G. Cheetham, H. Cui; Johns Hopkins University, Baltimore, MD.

11:30 36. Anionic-hydrophobic block co-polymer micelles assemble into stable drug loaded particles with pH-triggered release. D. Bong; Ohio State University, Columbus, OH.

11:50 37. Self-assembled structures from dendrimer amphiphiles. M. Herrera-Alonso, L. Santos; Johns Hopkins University, Baltimore, MD.

62

Particles at Fluid Interfaces I: Inter-Particle Forces

Monday, June 11, 2012, 9:50 AM – 11:50 AM Shaffer 100

Organizers: Kathleen Stebe, Anthony Dinsmore Presider: Kathleen Stebe

9:50 38. Capillary forces on colloids at fluid interfaces. S. Dietrich; Max Planck Institute for Intelligent Systems, Stuttgart, Germany, Institute for Theoretical and Applied Physics, Stuttgart, Germany. Keynote Lecture

10:30 39. Near-field capillary interactions between rod-like colloids and implications for the micromechanics of particle-laden interfaces. L. Botto

1, L. Yao

1, R. Leheny

2, K. Stebe

1;

1University of Pennsylvania, Philadelphia, PA,

2Johns Hopkins University, Baltimore, MD.

10:50 40. Effective field theory approach to capillary forces between particles at an interface. C. Yolcu, I. Z. Rothstein, M. Deserno; Carnegie Mellon University, Pittsburgh, PA.

11:10 41. Shape dependent capillary Interactions undo the coffee ring effect. P. J. Yunker, T. Still, M. A. Lohr, A. G. Yodh; University of Pennsylvania, Philadelphia, PA.

11:30 43. Interfacial self-assembly of low-symmetry colloidal crystals from isotropic particles. M. M. Shindel

1, S. Wang

2, A. Mohraz

2;

1University

of Delaware, Newark, DE, 2University of

California, Irvine, Irvine, CA.

63

Surface Science I


Organizers: Andrew V. Teplyakov, Howard Fairbrother Presider: Andrew V. Teplyakov 9:50 44. Chemical functionalization of oxide-free

silicon surfaces for energy and sensing applications. Y. J. Chabal; University of Texas at Dallas, Richardson, TX. Keynote Lecture

10:30 45. Microaerosol-generated PCBM - Zinc phthalocyanine (ZnPc) monolayers on Au (111): UHV-STM studies. Q. Shao, L. Tskipuri, J. Reutt-Robey; University of Maryland, College Park, MD.

10:50 46. Surface segregation in CuxPd1-x alloys in the presence of adsorbed S. J. B. Miller, D. Priyadarshini, A. J. Gellman; Carnegie Mellon University, Pittsburgh, PA.

11:10 47. A model MnO2-Li-HOPG system for UHV-probes of charge storage. S. Bharath

1, W.

Song1, K. Zavadil

2, J. E. Reutt-Robey

1;

1University of Maryland, College Park, MD,

2Sandia National Laboratories, Albuquerque,

NM.

11:30 48. Photoassisted chemical vapor deposition of aluminum and atomic layer like deposition of nickel on functionalized self-assembled monolayers. Z. Shi, A. V. Walker; University of Texas at Dallas, Richardson, TX.

11:50 49. Tungsten hydrogen bronze films for detection of improvised explosives. N. Materer

1, G. Kupgan

1, A. Apblett

1, E. B.

Kadossov2;

1Oklahoma State University,

Stillwater, OK, 2Xplosafe, LLC, Stillwater, OK.

64

Wetting I: Ultrahydrophobic Surfaces


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Patricia M. McGuiggan

9:50 50. Non-wetting surfaces and estimation of slip lengths. S. Srinivasan, R. E. Cohen, G. H. McKinley; Massachusetts Institute of Technology, Cambridge, MA.

10:10 51. Superoleophobic surfaces on plasma modified paper. L. Li, V. Breedveld, D. W. Hess; Georgia Institute of Technology, Atlanta, GA.

10:30 52. Repellency of the lotus leaf: Resistance to water intrusion under hydrostatic pressure. C. Extrand, S. Moon; Entegris, Chaska, MN.

10:50 53. Superhydrophobic modification of titania nanocomposite microfiltration membranes. A. Razmjou, E. Arifin, J. Mansouri, G. Dong, V. Chen; University of New South Walse, Kingsford, Australia.

11:10 54. Use of the string method to find minimal energy paths and energy barriers of droplets on superhydrophobic surfaces. K. Petersen, W. Ren; New York University/Courant Institute, New York, NY.

11:30 55. Effects of hydrophobic coatings on the superhydrophobic wetting properties of 3-D hierarchial nanostructures. K. Du, Y. Liu, I. Wathuthanthri, W. Xu, C. Choi; Stevens Institute of Technology, Hoboken, NJ.

11:50 56. Liquid-encapsulated surfaces: Overcoming the limitations of superhydrophobic surfaces for robust non-wetting and anti-icing. J. Smith, R. Dhiman, E. Reza-Garduno, G. H. McKinley, R. E. Cohen, K. K. Varanasi; Massachusetts Institute for Technology, Cambridge, MA.

65

Assembly on the Nano- and Microscale II: Convective Assembly

Monday, June 11, 2012, 1:30 PM - 3:10 PM Maryland 110

Organizers: Orlin D. Velev, David Gracias Presider: Ning Wu

1:30 57. Spontaneous dot array formation of gold nanoparticles by using convective self-assembly. S. Watanabe, Y. Mino, Y. Ichikawa, M. T. Miyahara; Department of Chemical Engineering, Kyoto University, Kyoto, Japan.

1:50 58. Direct observation of colloidal pattern formation in convective self-assembly. Y. Mino, S. Watanabe, M. T. Miyahara; Department of Chemical Engineering, Kyoto University, Kyoto, Japan.

2:10 59. Ultra-large-area nanoparticle monolayers by controlled solvent evaporation. T. Wen, S. A. Majetich; Carnegie Mellon University, Pittsburgh, PA.

2:30 60. Dryout pattern of colloid droplet on superhydrophobic surfaces. W. Xu, C. Choi; Stevens Institute of Technology, Hoboken, NJ.

2:50 61. A new class of solution processes for large-area and highly uniform graphene thin films and their micropatterns. Y. Ko, N. Kim, S. Cho, S. Kim, S. Kim, S. T. Chang; Chung-Ang University, Seoul, Republic of Korea.

66

Biointerfaces I: Water at Interfaces

Monday, June 11, 2012, 1:30 PM - 3:10 PM Shaffer 304

Organizers: Deborah Leckband, Kalina Hristova Presider: Deborah Leckband

1:30 62. Watching the dance of water in the hydration shell of ions and biomolecules in the THz frequency range. M. Havenith; Physical Chemistry II, Ruhr University Bochum, Bochum, Germany. Keynote Lecture

2:10 63. Switchable surface bioactive control system using nanopatterned PNIPAAm brushes. Q. Yu

1, P. Shivapooja

1, L. M.

Johnson1, G. Tizazu

1, G. Leggett

2, G. Lopez

1;

1Department of Biomedical Engineering,

Triangle Material Research Science and Engineering Center, Duke University, Durham, NC,

2University of Sheffield, Sheffield, United

Kingdom.

2:30 65. The effects of poly(ethylene glycol) conjugation on protein adsorption to the oil/water interface and susceptibility to conformational change during emulsification. A. L. Canady, T. M. Przybycien, R. D. Tilton; Carnegie Mellon University, Pittsburgh, PA.

2:50 64. Surface engineering of liquid crystal droplets for biosensing applications. T. Bera, J. Fang; University of Central Florida, Orlando, FL.

67

Colloidal and Surface Forces II: Fundamentals


Organizers: Darrell Velegol, Noshir Pesika Presider: Darrell Velegol

1:30 66. Nanometer resolved measurement of surface charge on heterogeneous silica-clay model surfaces. F. Mugele, D. Ebeling, D. van den Ende; University of Twente, Enschede, Netherlands.

1:50 67. Gelation and sedimentation of octadecyl silica colloids with adhesive hard-sphere interactions. J. M. Kim

1, A. Eberle

2, J. Fang

3,

N. Wagner1;

1University of Delaware, Newark,

DE, 2 Center for Neutron Research, National

Institute of Standards and Technology, Gaithersburg, MD,

3Arkema Incorporated, King

of Prussia, PA.

2:10 68. Out-of-equilibrium depletion-like forces between colloids. E. M. Furst; University of Delaware, Newark, DE.

2:30 69. Interparticle colloidal forces in extreme binary and ternary particle systems. S. Ji, J. Walz; Virginia Polytechnic Institute and State University, Blacksburg, VA.

2:50 70. Hindered diffusion of an oil drop under confinement: Hydrodynamic boundary conditions and surface forces. R. R. Dagastine, H. Lockie, S. Mclean; University of Melbourne, Parkville, Australia.

68

Electrokinetics I: Porous and Nanoscale Electrokinetics


Organizers: Zachary Gagnon, Todd Squires Presider: Todd Squires

1:30 71. Nonlinear electrokinetics in porous media. M. Z. Bazant; Massachusetts Institute for Technology, Cambridge, MA. Keynote Lecture

2:10 72. Measurement of the zeta potential of porous materials by rotation of disk-shaped samples on their axis. P. J. Sides, K. Wong, D. C. Prieve; Carnegie Mellon University, Pittsburgh, PA.

2:30 73. Field effect control of surface charge and electrokinetic properties in a charge-regulated nanoslit. L. Yeh

1, S. Qian

2, J. Hsu

1;

1National

Taiwan University, Taipei, Taiwan, 2Institute of

Micro/Nanotechnology, Old Dominion University, Norfolk, VA.

2:50 74. Electroosmotic hydrogel sensing and actuation. R. J. Hill, J. A. van Heiningen; McGill University, Montreal, QC, Canada.

69

Environmental Aspects II: Membrane and Separation Processes I


Organizers: William Johnson, Kai Loon Chen Presider: Kai Loon Chen

1:30 75. Antifouling membranes incorporating surface-tailored nanomaterials for energy-efficient desalination and wastewater reuse. M. Elimelech; Yale University, New Haven, CT. Keynote Lecture

2:10 76. Studying the impacts of polyamide membrane surface chemical functionalities on alginate fouling. J. Wu

1, A. E. Contreras

2, Q.

Li1;

1Rice University, Houston, TX,

2MWH

Americas Incorporated, Arcadia, CA.

2:30 77. Bacterial anti-adhesive properties of polysulfone membranes modified with poly(allyamine hydrochloride) and poly(acrylic acid) multilayers. L. Tang, K. Chen; Johns Hopkins University, Baltimore, MD.

2:50 78. Development of biocatalytic TiO2

nanocomposite membrane with immobilized laccase. V. Chen, J. Hou, G. Dong, Y. Ye, A. Razmjou; University of New South Wales, Sydney, Australia.

70

Molecular Assembly II: Amphiphile Self-Assembly


Organizers: Margarita Herrera-Alonso, Srinivasa Raghavan Presider: Srinivasa Raghavan

1:30 79. Tuning supramolecular filament networks assembled by amphiphilic mikto-arm star peptides: An approach from the molecular design. Y. Lin, A. G. Cheetham, H. Cui; Johns Hopkins University, Baltimore, MD.

1:50 80. Structure and dynamics of cylindrical micelles and micelle-nanoparticle complexes: A molecular dynamics simulation study. A. V. Sangwai

1, A. Sambasivam

2, R. Sureshkumar

2;

1Intel Corporation, Hillsboro, OR,

2Syracuse

University, Syracuse, NY.

2:10 81. Effect of b-cyclodextrin on multi-to uni-lamellar thermal transition of cationic vesicles. G. Milcovich, F. Asaro; University of Trieste, Trieste, Italy.

2:30 82. Molecular dynamics simulation of tethered lipid bilayers. S. Wang, R. G. Larson; University of Michigan, Ann Arbor, MI.

2:50 83. Interactions of surfactants with self-assembled biopolymer microgels. K. E. Richardson, Z. Xue, Y. Huang, Y. Seo, Y. Lapitsky; University of Toledo, Toledo, OH.

71

Rheology and Dynamics I: Gels, Glasses, and New Materials


Organizers: Michael Solomon, Robert Leheny Presider: Lynn M. Walker

1:30 84. Connecting microscopic motion and rheology of gel-forming nanocolloidal suspensions. H. Guo

1, S. Ramakrishnan

2, J. L.

Harden3, R. L. Leheny

4;

1University of

California San Diego, San Diego, CA, 2Florida

State University, Tallahassee, FL, 3University of

Ottawa, Ottawa, ON, Canada, 4Johns Hopkins

University, Baltimore, MD.

1:50 85. Using polystyrene latex to template low-density thermoreversible particles. K. A. Whitaker, E. M. Furst; University of Delaware, Newark, DE.

2:10 86. Soft particle glasses from dispersions of pH responsive hollow particles. B. Saunders; University of Manchester, Manchester, United Kingdom.

2:30 87. Structure and rheology of fibrin gels. K. Weigandt, D. Pozzo; University of Washington, Seattle, WA.

2:50 88. Rheology behaviors of water-soluble hm-Chitosan and Its gels with physical crosslink. Y. Chen

1, V. Javvaji

2, I. MacIntire

2, S. R.

Raghavan2;

1School of Material Science and

Engineering, Wuhan University of Technology, Wuhan, China,

2Department of Chemical &

Biomolecular Engineering, University of Maryland, College Park, MD.

72

Surface Science II


Organizers: Andrew V. Teplyakov, Howard Fairbrother Presider: Karen J. Gaskell

1:30 89. Taking silicon surface modification from vacuum into ambient conditions. A. V. Teplyakov; University of Delaware, Newark, DE.

1:50 90. Uniform -NH-termination on Si(111) surface by wet chemistry. F. Tian, D. F. Taber, A. V. Teplyakov; University of Delaware, Newark, DE.

2:10 91. Ethylene carbonate interaction with model carbon anode surfaces. W. Song, S. Bharath, J. E. Reutt-Robey; University of Maryland, College Park, MD.

2:30 92. Electrocatalysis on cubic Pt-M alloy nanocrystals. S. Zou, L. Dai, Y. Tang; Miami University, Oxford, OH.

2:50 93. Electron beam induced decomposition of Co(CO)3NO: Ligand selective reactivity. S. Rosenberg, M. Barclay, D. H. Fairbrother; Johns Hopkins University, Baltimore, MD.

73

Wetting II: Electrowetting and Directed Wetting


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Stephen Garoff

1:30 94. Levitating liquids. D. Quéré; The City of Paris Industrial Physics and Chemistry Higher Educational Institution and École Polytechnique, Paris, France. Keynote Lecture

2:10 95. Manipulating Leidenfrost temperature with surface texture. H. Kwon

1, J. C. Bird

2, K.

K. Varanasi1;

1Massachusetts Institute of

Technology, Cambridge, MA, 2Boston

University, Boston, MA.

2:30 96. Planar jumping-drop thermal diodes: Experiments and Modeling. J. Boreyko, C. Chen; Duke University, Durham, NC.

2:50 97. Fabrication of asymmetric microstructure with anisotropic liquid adhesion properties and directional wetting. S. Kim

1, H. Yoon

2, W.

Bae1, K. Char

1, K. Suh

1;

1Seoul National

University, Seoul, Republic of Korea, 2Seoul

National University of Science and Technology, Seoul, Republic of Korea.

74

Assembly on the Nano- and Microscale III: Three Dimensional Assembly


Organizers: David Gracias, Orlin D. Velev Presider: Sibani L. Biswal

3:40 98. Gel imprinting and actuation based on ionic currents. E. A. Palleau, D. Morales, M. D. Dickey, O. D. Velev; NC State University, Raleigh, NC.

4:00 99. Origami inspired self-assembly of 3D nanostructures. T. James, J. Cho, C. Yoon, D. H. Gracias; Johns Hopkins University, Baltimore, MD.

4:20 100. Nanoscale controlled assembly of Au-Cu bimetallic nanocubes on the external surface of single-wall carbon nanotubes following one-step solution reaction. Y. Liu; University of Maryland, College Park, MD.

4:40 101. Understanding spray layer-by-layer deposition of oppositely charged nanoparticles. W. Mulhearn

1, Y. Gu

2, D. Kim

1,

D. Lee1;

1University of Pennsylvania,

Philadelphia, PA, 2Rose–Hulman Institute of

Technology, Terre Haute, IN.

5:00 102. Self-destructing “mother ship” capsules for timed release of encapsulated contents. M. B. Dowling, A. Bagal, S. R. Raghavan; University of Maryland, College Park, MD.

75

Biocolloids II: Macromolecules


Organizers: Justin Hanes, James Schneider Presider: Ronald G. Larson

3:40 103. Protein interactions with thermally responsive polymers: Mechanisms and design rules. D. Leckband, C. Xue, S. Choi, P. V. Braun; University of Illinois at Urbana-Champaign, Urbana, IL.

4:00 104. Self-diffusiophoretic motion of particles driven by bioconjugation. E. A. Knapp, C. Maldarelli; City College of New York, New York, NY.

4:20 105. Overdamped particles in random one-dimensional potentials: A study of protein-DNA nonspecific interaction. S. Yu, S. Wang, R. G. Larson; University of Michigan, Ann Arbor, MI.

4:40 106. A colloidal approach to ion specificity in protein aggregation: Merits and limitations. J. Rubin, A. S. Bommarius, S. H. Behrens; Georgia Institute of Technology, Atlanta, GA.

5:00 107. Lysozyme pattern formation in evaporating drops. H. M. Gorr, J. M. Zueger, J. A. Barnard; University of Pittsburgh, Pittsburgh, PA.

76

Colloidal and Surface Forces III: Surface Tribology



3:40 108. Contact between surfaces with atomic-scale roughness. T. Sharp, M. O. Robbins; Johns Hopkins University, Baltimore, MD.

4:00 109. Grafted peptides and their effects on frictional properties at interfaces. D. Iarikov, Jr., W. A. Ducker; Virginia Polytechnic Institute and State University, Blacksburg, VA.

4:20 110. Design and fabrication of gecko-inspired dry adhesives. N. Pesika, K. Jin; Tulane University, New Orleans, LA.

4:40 111. Liquids can slip at solid interfaces. L. Zhu, C. Neto, P. Attard; School of Chemistry, University of Sydney, Sydney, Australia.

5:00 112. Direct observation of hierarchical contact line depinning. A. T. Paxson, K. K. Varanasi; Massachusetts Institute of Technology, Cambridge, MA.

77

Environmental Aspects III: Membrane and Separation Processes II


Organizers: William Johnson, Kai Loon Chen Presider: Qilin Li

3:40 113. Probing adhesion forces of bacteria on reverse osmosis and nanofiltration membranes using atomic force microscopy. E. M. Hoek; University of California, Los Angeles, Los Angeles, CA.

4:00 114. Antifouling properties of carbon nanotube structures and their application in membrane water treatment. G. Ajmani, D. Goodwin, K. Marsh, J. Jacangelo, D. H. Fairbrother, H. Huang; Johns Hopkins University, Baltimore, MD.

4:20 115. A novel process to fabricate open cell foams for selective oil/water separation. M. C. Fechtmann, C. Huang, S. Shojaei-Zadeh; Rutgers, State University of New Jersey, Piscataway, NJ.

4:40 116. Enhanced effectiveness of dispersants in oil spill remediation through the use of modified polysaccharides. J. Tang

1, P.

Venkataraman1, E. E. Frenkel

1, V. T. John

1, S. R.

Raghavan2;

1Tulane University, New Orleans,

LA, 2University of Maryland, College Park, MD.

5:00 117. F. Magnetic carbon nanotubes for oil and bacterial removal. C. Na

1, H. Wang

1, K. Lin

1, L.

Wang2, J. Li

2;

1University of Notre Dame, Notre

Dame, IN, 2University of Wisconsin-

Milwaukee, Milwaukee, WI.

78

General Papers I: Particles and Assembly I

Monday, June 11, 2012, 3:40 PM - 5:20 PM Krieger 205

Organizers: Raymond R. Dagastine, Ilona Kretzschmar Presider: Ilona Kretzschmar

3:40 118. Hard colloidal polyhedra as entropically patchy particles, and the role of directional entropic forces in their self assembly and packing. S. C. Glotzer; University of Michigan, Ann Arbor, MI. Keynote Lecture

4:20 119. Synthesis of colloidal particles with a controlled number of precisely located patches. S. Ravsine

1, A. Desert

2, J. Taveau

3, O.

Lambert3, A. Thill

4, O. Spalla

4, M. Lansalot

5, E.

Bourgeat-Lami5, E. Duguet

2;

1 Centre de

Recherche Paul Pascal, Pessac, France, 2

Institut de Chimie de la matière condensée de Bordeaux, Pessac, France,

3Chimie et Biologie

des Membranes et des Nano-objets, Pessac, France,

4 Commissariat à l'énergie atomique et

aux énergies alternatives, Saclay, France, 5Laboratoire de Chimie et Procédés de

Polymérisation, Villeurbanne, France.

4:40 120. A general approach to synthesize asymmetric hybrid nanoparticles by interfacial reactions. J. He

1, M. Perez

1, P. Zhang

2, Y. Liu

1,

T. Babu1, J. Gong

2, Z. Nie

1;

1Department of

Chemistry and Biochemistry, University of Maryland, College park, MD,

2School of

Chemical Engineering and Technology, Tianjin University, Tianjin, China.

5:00 121. New route to patchy particles with uniform patches of controlled size. Z. He, I. Kretzschmar; City College of New York, New York, NY.

79

Microfluidics II: Separation and Capture


Organizers: Shelley L. Anna, German Drazer Presider: German Drazer

3:40 122. Transport of suspended particles in periodic systems: Applications in separation microfluidic devices. G. M. Drazer; Johns Hopkins University, Baltimore, MD.

4:00 123. A new approach for capturing circulating tumor cells in a microfluidic device using a packed array of functionalized polymer beads. C. Arya

1, J. Kralj

2, A. Tona

2, T. Forbes

2, S.

Raghavan1, S. Forry

2;

1University of Maryland,

College Park, MD, 2National Institute of

Standards and Technology, Gaithersburg, MD.

4:20 124. Efficient capturing of rare cells in microfluidic device through micropatterned surface. Y. Liu

1, A. Thomas

1, C. Cheng

2, S.

Yang2, X. Cheng

1;

1Lehigh University,

Bethlehem, PA, 2University of Pennsylvania,

Philadelphia, PA.

4:40 125. Vector chromatography of suspended particles in 1D-periodic systems. J. A. Bernate, G. M. Drazer; Johns Hopkins University, Baltimore, MD.

5:00 126 . Targeted delivery through microfluidics of anisotropic fluids. A. Sengupta; Dynamics of Complex Fluids, Max Planck Institute for Dynamics and Self Organization, Göettingen, Germany.

80

Molecular Assembly III: Polymer-Based Assemblies II



3:40 127. Block copolymer driven self-assembly of inorganic nanocrystals in solution. Z. Nie, J. He, S. Nah, J. Fourkas; University of Maryland, College Park, MD.

4:00 128. Microphase separation of mixed polymer brushes: An experimental and theoretical exploration of phase behavior. A. D. Price

1, S.

Hur2, G. H. Fredrickson

2, A. L. Frischknecht

1, D.

L. Huber1;

1Center for Integrated

Nanotechnologies, Sandia National Laboratories, Albuquerque, NM,

2Department

of Chemical Engineering and Materials Research Laboratory, Santa Barbara, CA.

4:20 129. Thermally triggered assembly of cationic graft copolymers containing 2-(2-Methoxyethoxy)ethyl Methacrylate side chain. N. N. Shahidan

1, R. Liu

1, F. Cellesi

1, C.

Alexander2, K. M. Shakesheff

2, B. R.

Saunders1;

1University Of Manchester,

Manchester, United Kingdom, 2University Of

Nottingham, Nottingham, United Kingdom.

4:40 130. Systematic study of gelled bicontinuous microemulsions: A novel type of orthogonal self-assembled systems? M. Laupheimer

1, T.

Sottmann2, C. Stubenrauch

1;

1University of

Stuttgart, Stuttgart, Germany, 2University of

Cologne, Cologne, Germany.

5:00 131. Purely electrostatic control of nanoparticle assembly from polystyrene polymer chains precipitated from solution. R. K. Prud'homme; Princeton University, Princeton, NJ.

81

Particles at Fluid Interfaces II: Novel Materials and Applications I


Organizers: Kathleen Stebe, Anthony Dinsmore Presider: Ali Mohraz

3:40 132. Production of liquid marbles with a highly viscous elastomer core. H. Rezvantalab, S. Shojaei-Zadeh; Rutgers, State University of New Jersey, Piscataway, NJ.

4:00 133. Tunable assembly of gold nanoparticles at the oil-water interface driven by electrostatics. M. Luo, G. Olivier, J. Frechette; Johns Hopkins University, Baltimore, MD.

4:20 134. Using bijels for the synthesis of electrochemical composites. J. A. Witt, M. N. Lee, D. R. Mumm, A. Mohraz; University of California, Irvine, Irvine, CA.

4:40 135. Organization of MEH-PPV at the air/water interface. K. Chao, S. Gullapalli, M. S. Wong, S. L. Biswal; Rice University, Houston, TX.

82

Surface Science III


Organizers: Andrew V. Teplyakov, Howard Fairbrother Presider: Nicholas F. Materer

3:40 137. Iron gall ink corrosion of historical documents probed by X-ray photoelectron spectroscopy. K. J. Gaskell

1, A. A. Ponce

1, L.

Brostoff2;

1University of Maryland, College

Park, MD, 2Library of Congress, Washington,

D.C.

4:00 138. An atomic-scale study of the adsorption, assembly and reactivity of methanol with model Cu, O/Cu, and Pd/Cu alloy surfaces with STM, TPD, and XPS. T. J. Lawton, A. E. Baber, M. B. Boucher, G. Kyriakou, C. H. Sykes; Tufts University, Medford, MA.

4:20 139. From gas phase to surface: Size-selected clusters soft-landed onto HOPG. X. Tang

1, Y.

Wang1, X. Li

1, D. H. Fairbrother

1, G.

Gantefoer2, K. H. Bowen

1;

1Johns Hopkins

University, Baltimore, MD, 2University of

Konstanz, Konstanz, Germany.

4:40 140. Directed assembly and electronic features of MPc-fullerene interfaces. J. Reutt-Robey; University of Maryland, College Park, MD. Keynote Lecture

83

Wetting III: Electrowetting and Directed Wetting II


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Alex Nikolov

3:40 141. Shaken not stirred - How electrowetting-driven drop oscillations prevent the formation of coffee stains. F. Mugele; University of Twente, Enschede, Netherlands.

4:00 142. Electrostatic spreading of dielectric liquid films. S. R. Mahmoudi, K. Adamiak, G. Castle; University of Western Ontario, London, ON, Canada.

4:20 143. Surface energy trap enabled complex droplet manipulation platform for point-of-care diagnostics. Y. Zhang

1, T. Wang

2;

1Johns

Hopkins School of Medicine, Baltimore, MD, 2Johns Hopkins University, Baltimore, MD.

4:40 144. Directional liquid flow on chemically asymmetric ratchet structures. H. Yoon

1, S.

Kim2, K. Suh

2, K. Char

2;

1Seoul National

University of Science & Technology, Seoul, Korea, Republic of,

2Seoul National University,

Seoul, Republic of Korea.

5:00 145. Modulation of contact angle hysteresis via molecular conformational change in sub-monolayer films. M. Luo, A. Amegashie, J. Frechette; Johns Hopkins University, Baltimore, MD.

84

Poster Session

Monday, June 11, 2012, 5:30 PM - 7:30 PM Levering Glass Pavilion and Great Hall

Organizers: Jeffrey Fagan, Anastasia Morfesis

5:30 146. A new optical monitoring technique for investigating the role of meniscus volume and other process parameters in continuous convective coatings assembly. J. S. Jenkins, M. C. Flickinger, O. D. Velev; North Carolina State University, Raleigh, NC.

5:30 147. Deposition kinetics of citrate-coated silver nanoparticles on silica surfaces: A QCM study. M. Lim, K. Huynh, K. Chen; Johns Hopkins University, Baltimore, MD.

5:30 148 . Formation of cyclodextrin-stabilized biocompatible nanoemulsion/micromeulsion and exploiting their solubilization behavior. K. Kaur; Panjab University Chandigarh, Chandigarh, India.

5:30 149. Redox potential responsive nanogels for drug delivery. C. Park, H. Yang, J. Kim; Korea Advanced Institute of Science and Technology, Daejeon, Republic of Korea.

5:30 150. Dip coating - Considerable thickening/thinning of the entrained film due to an interaction potential normal to the substrate. C. Vannozzi; Chemical Engineering Department, University of California, Santa Barbara, Santa Barbara, CA.

5:30 151. Glass transition dynamics of polystyrene nanospheres. C. Zhang, R. D. Priestley; Princeton University, Princeton, NJ.

5:30 152. Effect of droplet size and headgroup charge on the distributions and activities of antioxidants in model food emulsions. Q. Gu, L. S. Romsted; Rutgers, State University of New Jersey, New Brunswick, NJ.

85

5:30 153. Preparation of monodisperse titania nanoparticles using a dendrimer as template. K. Torigoe, N. Sorida, T. Endo, K. Sakai, H. Sakai, M. Abe; Tokyo University of Science, Noda, Japan.

5:30 154. Aminomethylphosphonic acid type gemini surfactants: Aqueous solution properties and adsorption behavior at solid/solution interfaces. Y. Koshiishi

1, Y.

Takamatsu2, K. Terada

2, K. Sakai

1, H. Sakai

1, M.

Abe1;

1Faculty of Science and Technology &

Research Institute for Science and Technology, Tokyo University of Science, Noda, Japan, 2Miyoshi Oil and Fat Company, Katsushika,

Japan.

5:30 155. A new class of lightweight material based on layer-by-layer assembly of bubbles and polymers. T. Brugarolas, D. Lee; University of Pennsylvania, Philadelphia, PA.

5:30 156. Nanoparticle characterization by light scattering. A. Morfesis, U. Nobbmann; Malvern Instruments Incorporated, Westborough, MA.

5:30 157. Dewetting dynamics of ultra thin liquid film. S. Kono; Tokyo University of Science, Noda, Japan.

5:30 158. Surface-energy engineered micropatterning of reduced graphene oxide thin films. N. Kim

1, Y. Ko

1, J. Lee

2, J. Cho

3, S. T.

Chang1;

1Chung-Ang University, Seoul,

Republic of Korea, 2Soongsil University, Seoul,

Republic of Korea, 3Sungkyunkwan University,

Seoul, Republic of Korea.

5:30 159. The effect of evaporation rate in particle ring-stain formation. S. Norris

1, K. A. Baldwin

1,

D. J. Fairhurst2;

1NottinghamTrent University,

Nottingham, United Kingdom, 2Physics,

NottinghamTrent University, Nottingham, United Kingdom.

86

5:30 160. Design and construction of supramolecular nano-beacons for tumor site detection and imaging. L. Lock, A. G. Cheetam, H. Cui; Johns Hopkins University, Baltimore, MD.

5:30 161. Approaches in wetting phenomena. R. Tadmor; Department of Chemical Engineering, Lamar University, Beaumont, TX.

5:30 162. High-compatibility, UV-curable, fluorine-containing prepolymer with low surface tension. Y. He

1, C. Liu

2, J. Nie

2;

1Department

of Chemistry, Georgetown University, Washington, D.C.,

2College of Materials

Science and Engineering, Beijing University of Chemical Technology, Beijing, China.

5:30 163. Understanding the role of surface active aerosol for ambient cloud droplet formation. A. Asa-Awuku; University of California, Riverside, Riverside, CA.

5:30 164. Hydrodynamic adhesion by peeling of structured surfaces under flooded conditions. A. B. Sevilla, R. Gupta, J. Frechette; Chemical and Biomolecular Engineering Department, Johns Hopkins University, Baltimore, MD.

5:30 165. The characterization of a novel family of metallosurfactants. G. E. Jaggernauth, R. A. Fairman; University of the West Indies, St. Augustine, Trinidad and Tobago.

5:30 166. Frequency response of polymer films made from a precursor colloidal monolayer on a nanomechanical cantilever. T. Liu, H. Butt, R. Berger; Max Planck Institute for Polymer Research, Mainz, Germany.

5:30 167. Phase transitions of (R)-N-Alkyl-12-hydroxyoctadecylammonium chlorides in safflower oil organogels. F. D. Alvarez Mitre

1,

R. G. Weiss2, J. F. Toro-Vazquez

1, V. A. Mallia

2;

1Autonomus University of San Luis Potosi, San

87

Luis Potosí, Mexico, 2Georgetown University,

Washington, D.C..

5:30 168. Costly myths of crystal and colloid formation. I. H. Leubner; Crystallization Consulting, Penfield, NY.

5:30 169. Avoiding the formation of cracks in hard colloidal films. J. H. Prosser

1, T. Brugarolas

1, S.

Lee1, A. J. Nolte

2, D. Lee

1;

1University of

Pennsylvania, Philadelphia, PA, 2Rose-Hulman

Institute of Technology, Terre Haute, IN.

5:30 170. Deterministic lateral displacement in isotropic microfluidic systems. R. Devendra, T. Feng, R. A. Passaro, G. M. Drazer; Johns Hopkins University, Baltimore, MD.

5:30 171. Microliter scale solution processing for controlled, rapid fabrication of chemically derived graphene thin films. Y. Ko, S. Cho, K. Choi, Y. Park, S. Kim, N. Kim, S. Kim, S. T. Chang; Chung-Ang University, Seoul, Republic of Korea.

5:30 172. Mechanistic study of chitosan/ tripolyphosphate micro- and nanogel formation. Y. Huang, Y. Lapitsky; University of Toledo, Toledo, OH.

5:30 173. Thermoelectrophoresis of heated Janus particles. A. Majee

1, A. Würger

2;

1Physics,

University of Bordeaux 1, Talence, France, 2University of Bordeaux 1, Talence, France.

5:30 174. Grafting of biocompatible poly(2-methacryloyloxyethyl phosphorylcholine) polymer onto TiO2 nanoparticle. H. Lee, Y. Yang, S. Shin; Amore-Pacific Co. Research and Development Center, Yongin-si, Repulic of Korea.

5:30 175. Influence of surfactant on forced dynamic wetting and dewetting. D. Fell

1, G. K.

Auernhammer1, N. Pawanrat

1, C. Liu

2, R.

Sokuler1, E. Bonaccurso

3, H. Butt

1;

1Max

88

Planck Institute for Polymer Research, Mainz, Germany,

2College of Chemistry & Molecular

Science, Wuhan University, Wuhan, China, 3Center of Smart Interfaces, Technical

University Darmstadt, Darmstadt, Germany.

5:30 176. Nano-scale roughness of colloidal particles and its effect on particle-stabilized emulsions. A. San Miguel, S. H. Behrens; Georgia Institute ofTechnology, Atlanta, GA.

5:30 177. Scaling of flow transitions in a microfluidic flow focusing device. J. Kim, S. A. Vanapalli; Texas Tech University, Lubbock, TX.

5:30 178. Selective thermal reduction of graphene oxide thin films by using microfluidic systems. S. Kim, Y. Ko, K. Choi, S. Kim, S. T. Chang; Chung-Ang University, Seoul, Republic of Korea.

5:30 179. Self-assembly of inorganic nanoparticle vesicles and tubules driven by tethered linear block copolymers. J. He

1, T. Babu

2, Y. Liu

2, Z.

Wei2, Z. Nie

2;

1Chemistry, University of

Maryland, Hyattsville, MD, 2University of

Maryland, Hyattsville, MD.

5:30 180. Reversible spreading of liquid drops inside a channel functionalized by a responsive film. A. Amegashie, M. Luo, J. Frechette; Johns Hopkins University, Baltimore, MD.

5:30 181. Electrochemical control of spontaneous vesicle formation in aqueous solutions of single-tailed ferrocenyl surfactant. S. Hata, H. Takahashi, K. Kojima, Y. Kondo; Department of Industrial Chemistry, Faculty of Engineering, Tokyo University of Science, Tokyo, Japan.

5:30 182. Deconvoluting cohesion and adhesion in E. coli biofilms. H. J. Zeller, J. K. Ferri; Lafayette College, Easton, PA.

89

5:30 183. Stability of Langmuir-Blodgett films of stearic acid immersed into liquid. F. Mugele, N. Kumar, L. Wang, M. Duits; University of Twente, Enschede, Netherlands.

5:30 184. Indirect methods to measure wetting and contact angles on spherical convex and concave surfaces. C. Extrand, S. Moon; Entegris, Chaska, MN.

5:30 185. Active control of surfactant solution viscosity using photocleavable surfactant. S. Aikawa

1, W. Matsuda

1, K. Arimitsu

1, T.

Ohmori2, Y. Fukukita

2, Y. Tezuka

3, A.

Matsumura1, K. Torigoe

1, K. Sakai

1, K.

Sakamoto4, M. Abe

1, H. Sakai

1;

1Faculty of

Science and Technology & Tokyo University of Science and Technology, Tokyo University of Science, Noda, Japan,

2Shiseido Company,

Limited, Yokohama, Japan, 3NOF Company,

Kawasaki, Japan, 4Faculty of Pharmacy, Chiba

Institute of Science, Choshi, Japan.

5:30 186. Antioxidants distribution in citral-contained emulsion stabilized by functionalized-polylysine. X. Gao; Rutgers, State University of New Jersey, Piscataway, NJ.

5:30 187. Transient and steady-state shear banding in aging soft glassy materials. J. Martin

1, T.

Hu2;

1Johnson and Johnson Consumer

Companies, Incorporated, Skillman, NJ, 2Unilever Research and Development,

Trumbull, CT.

5:30 188. The self-assembly behavior of glucose-containing pyrene derivatives in THF-H2O mixed solvents. N. Yan

1, Z. Xu

1, Y. Fang

1, R. G.

Weiss2;

1Key Laboratory of Applied Surface

and Colloid Chemistry (Ministry of Education), School of Chemistry and Chemical Engineering, Shaanxi Normal University, Xi’an, China,

2Department of Chemistry,

Georgetown University, Washington, D.C.

90

5:30 189. MD simulation of colloidal particles near liquid-liquid interfaces. S. Razavi

1, J. Koplik

2, I.

Kretzschmar1;

1Department of Chemical

Engineering, City College of the City University of New York, New York, NY,

2Benjamin Levich

Institute, City College of New York, New York, NY.

5:30 190. Investigations on water-soluble triblock copolymer-modified mono disperse superparamagnetic iron oxide nanoparticles hydrodynamic size variation and stability: Implications for drug delivery. S. Yedlapalli, A. L. Routzahn, G. M. White, R. L. Carroll; West Virginia University, Morgantown, WV.

5:30 191. The study of mechanically induced surface changes on a micronized active pharmaceutical ingredient. R. Forcino, J. Brum; GlaxoSmithKline, King of Prussia, PA.

5:30 192. Separation of empty and water-filled nanotubes via rate-zonal methods. J. Fagan; National Institute of Standards and Technology, Gaithersburg, MD.

5:30 193. Self-propelling particles based on gels and live cells. R. Sharma

1, R. Klimek

1, S. T.

Chang2, S. Kim

3, O. D. Velev

1;

1North Carolina

State University, Raleigh, NC, 2Chung-Ang

University, Seoul, Republic of Korea, 3Syngenta Crop Protection Research and

Development, Greensboro, NC.

5:30 194. Electric field driven self-assembly of colloidal rods. J. J. Juarez

1, K. Chaudhary

2, Q.

Chen2, S. Granick

2, J. Lewis

2;

1Materials

Science and Engineering, University of Illinois at Urbana Champaign, Urbana, IL,

2University

of Illinois at Urbana Champaign, Urbana, IL.

5:30 195. Design and synthesis of hierarchical porous polymers using particle-stabilized foams. M. J. Ambrusch, S. Shojaei-Zadeh;

91

Rutgers, State University of New Jersey, Piscataway, NJ.

5:30 196. Effects of drift control agents on spray droplet size distributions in pesticide formulations. K. Penfield; Croda Incorporated, New Castle, DE.

5:30 197. The initial common pathway of inflammation, disease, and death. R. M. Davidson

1, S. Seneff

2;

1PhyNet Incorporated,

Longview, TX, 2Department of Electrical

Engineering and Computer Science, Massachusettes Institute of Technology, Cambridge, MA.

5:30 198. Preparation of conductive patterns using magnetic assembly of nanoparticles as a mask. T. Ahn, J. Kim; Korea Advanced Institute of Science and Technology, Daejeon, Republic of Korea.

5:30 199. Preparation of water powders using starch polymer and hydrophobic nanoparticles for cosmetic applications. Y. Kim

1, K. Choi

1, C.

Park1, S. Oh

3;

1Suncare Research Team, Sun

Care Research Team/Cosmetic and Personal Care Research Institute/Amorepacific Research and Development Center, Youngin City, Republic of Korea,

3Department of

Chemical Engineering, Hanyang University, Seoul, Repulic of Korea.

5:30 200. Electrotaxis of 3T3 cells under spatial confinement. Y. Huang

1, R. Kreimer

1, J.

Samorajski2, P. Searson

1;

1Johns Hopkins

University, Baltimore, MD, 2University of

Dallas, Dallas, TX.

5:30 201. Stability and molecular properties of model oil-in-water emulsions investigated by 2D DOSY-NMR. T. S. Awad, L. S. Romsted; Rutgers, State University of New Jersey, Piscataway, NJ.

92

5:30 202. Effects of radioactivity on surface interaction forces. C. Tsouris

1, J. McFarlane

1,

I. Lee2, H. Kweon

3, Y. Kim

3, S. Yiacoumi

3;

1Oak

Ridge National Laboratory, Oak Ridge, TN, 2The University of Tennessee, Knoxville, TN,

3Georgia Institute of Technology, Atlanta, GA.

5:30 203. Temperature effect on the solution properties of mixed nonionic/anionic surfactants. A. Tanaka

1, K. Torigoe

1, R.

Izumoto2, S. Eguchi

2, H. Minoshima

2, H. Sakai

1,

M. Abe1;

1Tokyo University of Science, Noda,

Japan, 2Bridgestone Corporation, Kodaira,

Japan.

93

Plenary II

Tuesday, June 12, 2012, 8:20 AM - 9:20 AM Shriver 103

8:20 204. States of particle dispersion in polymer melts. C. F. Zukoski; Chemical and Biomolecular Engineering, University of Illinois at Urbana-Champaign, Urbana, IL.

94

Assembly on the Nano- and Microscale IV: Applications

Tuesday, June 12, 2012, 9:50 AM - 12:10 PM Maryland 110

Organizers: Orlin D. Velev, David Gracias Presider: Orlin D. Velev

9:50 205. From "nanoions" to nanostructured materials and "nanoionic" electronics. B. A. Grzybowski; Northwestern University, Evanston, IL. Keynote Lecture

10:30 206. Thin films of zinc oxide quantum dots and polydimethylsiloxane for optical applications. M. Eita, R. Hilal, M. Muhammed; Royal Institute of Technology, Stockholm, Sweden.

10:50 207. Characterization of a color-changing soft-matter stress sensor. D. A. Hammer

1, N.

Kamat1, L. Moses

1, J. Rawson

2, M. Therien

2, Z.

Liu1, I. Dmochowski

1;

1University of

Pennsylvania, Philadelphia, PA, 2Duke

University, Durham, NC.

11:10 208. Energy harvesting through self-assembled 3D micro-antennas. P. Anacleto

1,

E. Gultepe2, D. H. Gracias

2, P. M. Mendes

1;

1Universidade do Minho, Braga, Portugal,

2Johns Hopkins University, Baltimore, MD.

11:30 209. Photoresponsive metal-cadmium sulfide colloidal motors. J. J. McDermott, T. Chiang, N. Karker, D. Velegol; Pennsylvania State University, University Park, PA.

11:50 210. Actuation of hydrogels: Towards new classes of soft robots andMicromanipulators. E. A. Palleau, D. Morales, M. D. Dickey, O. D. Velev; NC State University, Raleigh, NC.

95

Biointerfaces II: Lipid Bilayer Interfaces

Tuesday, June 12, 2012, 9:50 AM - 12:10 PM Shaffer 304

Organizers: Deborah Leckband, Kalina Hristova Presider: Kalina Hristova

9:50 211. Rules for amino acid content of pore forming peptides. G. Wong; University of California, Los Angeles, Los Angeles, CA. Keynote Lecture

10:30 212. Effect of melittin and gain-of-function melittin analogs, discovered by high-throughput screening, on bilayer properties: An electrical impedance spectroscopy study. G. R. Wiedman

1, W. Wimley

2, P. Searson

1, K.

Hristova1;

1Johns Hopkins University,

Baltimore, MD, 2Tulane University, New

Orleans, LA.

10:50 213. High-resolution structures of disordered systems: Membrane association of the PTEN tumor suppressor by neutron reflection and MD simulation. S. Shenoy

1, H. Nanda

1, F.

Heinrich1, P. Shekhar

1, A. Gericke

2, M. Daou

3,

A. H. Ross3, M. Lösche

1;

1Carnegie Mellon

University, Pittsburgh, PA, 2Worcester

Polytechnic Institute, Worcester, MA, 3University of Massachusetts Medical School,

Worcester, MA.

11:10 214. Spreading of aqueous surfactant solutions on model airway surface liquid subphases. A. Khanal

1, R. Sharma

1, R. Kalita

1,

F. Gao1, T. Corcoran

2, E. Peterson

1, S. Garoff

1,

T. Przybycien1, R. Tilton

1;

1Carnegie Mellon

University, Pittsburgh, PA, 2University of

Pittsburgh, Pittsburgh, PA.

11:30 215. Mechanistic understanding of antibacterial and antitumor actions of small amphiphilic peptides. J. R. Lu

1, H. Xu

2, C.

Chen2, X. Zhao

1;

1University of Manchester,

96

Manchester, United Kingdom, 2China

University of Petroleum, Qingdao, China.

11:50 216. Relating the molecular order of skin lipids in monolayers to bulk properties of the skin. R. Walters

1, G. Mao

1, D. VanWyck

1, E. Gunn

1,

M. Correa1, R. Mendelsohn

2;

1Johnson and

Johnson, Skillman, NJ, 2 Rutgers, State

University of New Jersey, Newark, NJ.

97

Colloidal and Surface Forces IV: Biological Systems

Tuesday, June 12, 2012, 9:50 AM - 11:50 AM Maryland 109

Organizers: Darrell Velegol, Noshir Pesika Presider: Darrell Velegol

9:50 217. Manipulating proteins and cells with receptor-like nano-constructs. M. Santore; University of Massachusetts Amherst, Amherst, MA. Keynote Lecture

10:30 218. Effects of surface compositional and

structural heterogeneity on particle-particle and particle-protein interactions. R. Huang; Baylor University, Waco, TX.

10:50 219. Highly specific M13 bacteriophage as targeted binders to thiamethoxam organic crystals. W. Cho

1, J. Fowler

2, E. M. Furst

1;

1University of Delaware, Newark, DE,

2Syngenta Crop Protection, Greensboro, NC.

11:10 220. Chemical trapping of amino acid surfactants: Laying the foundation for a chemical method for membrane protein structure determination. Y. Zhang, L. S. Romsted; Rutgers, The State University of New Jersey, Piscataway, NJ.

11:30 221. Towards a new unified theory of disease - The clinical significance of the Jones-Ray effect. R. M. Davidson

1, S. Seneff

2;

1PhyNet

Incorporated, Longview, TX, 2Department of

Electrical Engineering and Computer Science, Massachusetts Institute of Technology, Cambridge, MA.

98

Electrokinetics II: Bioanalytical Applications


Organizers: Zachary Gagnon, Todd Squires Presider: Zachary Gagnon

9:50 222. Next generation proteomics: Towards high-throughput protein analysis via microfluidic integration. A. Herr; University of California, Berkeley, Berkeley, CA. Keynote Lecture

10:30 223. Characterization of electrokinetic effect in biomolecule detection by nanosensors at ultralow concentration. Y. Liu

1, W. Hu

2;

1Lehigh University, Bethlehem, PA,

2University

of Texas at Dallas, Dallas, TX.

10:50 224. High resolution genetic and epigenetic analysis by mapping DNA quantity into electrophoretic mobility through quantum dot nanotether. Y. Zhang

1, T. Wang

2;

1Johns

Hopkins School of Medicine, Baltimore, MD, 2Johns Hopkins University, Baltimore, MD.

11:10 225. Frequency-modulated depletion electrokinetics at nano constrictions for rapid protein pre-concentration. K. Liao

1, M.

Tsegaye1, C. Chou

2, N. S. Swami

1;

1University

of Virginia, Charlottesville, VA, 2Academia

Sinica, Taipei, Taiwan.

11:30 226. Nanoparticle gel electrophoresis. R. J. Hill, F. Li; McGill University, Montreal, QC, Canada.

11:50 227. Streaming potential investigations of novel materials: Nafion polymer films. A. C. Barbati, B. J. Kirby; Cornell University, Ithaca, NY.

99

Environmental Aspects IV: Transport in Porous Media


Organizers: William Johnson, Kai Loon Chen Presider: William Johnson

9:50 228. Evaluating the impact of ionic strength on the surface interaction dynamics of flagellated and non-flagellated bacteria using column studies and inverse modeling. T. Bevard

1, N.

Ju2, A. Massoudieh

1, T. Kamai

3, T. Nguyen

2, T.

Ginn3;

1Catholic University of America,

Washington, D.C., 2University of Illinois at

Urbana-Champaign, Urbana, IL, 3University of

California, Davis, Davis, CA.

10:10 229. Transportation of dehalococcoides in porous media and deposition under the impact of mixed culture. H. Zhang, Y. Liu, A. Ulrich; University of Alberta, Edmonton, AB, Canada.

10:30 230. Deposition mechanisms of Escherichia coli O157:H7 on clay minerals in a parallel plate flow system. P. Cai

1, S. Walker

2;

1Huazhong Agricultural University, Wuhan,

China, 2University of California, Riverside,

Riverside, CA.

10:50 231. Transport of multi-walled carbon nanotubes through porous media. J. Yang, J. L. Bitter, D. H. Fairbrother, W. P. Ball; Johns Hopkins University, Baltimore, MD.

11:10 232. Linking colloid deposit morphology and clogging. E. J. Roth, D. C. Mays; University of Colorado Denver, Denver, CO.

11:30 233. Distinct effects of humic acid on transport and retention of TiO2 rutile nanoparticles in saturated sand columns. G. Chen

1, X. Liu

1, C. Su

2;

1National Research

Council Research Associate, Ada, OK, 2National

100

Risk Management Research Laboratory, Office of Research and Development, U. S. Environmental Protection Agency, Ada, OK.

11:50 234. Surface heterogeneity on hemispheres-in-cell model yields all experimentally-observed non-straining colloid retention mechanisms in porous media in the presence of energy barriers. H. Ma, E. Pazmino, W. P. Johnson; University of Utah, Salt Lake City, UT.

101

General Paper II: Emulsions


Organizers: Raymond R. Dagastine, Ilona Kretzschmar Presider: Raymond R. Dagastine

9:50 235. Emulsions formed from structured oils. N. L. Abbott; University of Wisconsin-Madison, Madison, WI. Keynote Lecture

10:30 236. Emulsions from an industrial perspective.

Y. Liu; Dow Corning Corporation, Midland, MI.

10:50 237. RAFT polymerization of emulsified microemulsions. K. Dahlke, S. Meester, J. O'Donnell; Iowa State University, Ames, IA.

11:10 238. Controlling the morphology of double emulsion-templated PLGA microcapsules. F. Tu, M. Lee, T. Brugarolas, K. Hribar, N. Kamat, J. Burdick, D. Lee; University of Pennsylvania, Philadelphia, PA.

11:30 239. A correlative cryo electron microscopy characterization of metastable “nanoemulsion” structure from microemulsions. H. Lee

1, E. D. Morrison

2, C. F.

Frethem1, A. V. McCormick

1;

1University of

Minnesota, Twin Cities, Minneapolis, MN, 2Ecolab, Eagan, MN.

11:50 240. Clay-armoured emulsion droplets: Nano-mechanical properties as a function of solution conditions. R. R. Dagastine, S. Tan, R. F. Tabor, L. Ong, G. W. Stevens; University of Melbourne, Parkville, Australia.

102

Molecular Assembly IV: Surfactant Self-Assemblies I

Tuesday, June 12, 2012, 9:50 AM - 12:10 PM Maryland 201


9:50 241. Photo-switchable surfactant solutions. H. Sakai; Tokyo University of Science, Noda, Chiba, Japan. Keynote Lecture

10:30 242. Understanding crystal network

development in systems containing surfactants and a crystallizing fatty acid. C. B. Street

1, P. C. Roozemond

2, K. D. Hermanson

3,

M. S. Vethamuthu3, N. J. Wagner

1, G. Peters

2,

K. Ananthapadmanabhan3;

1University of

Delaware, Newark, DE, 2Eindhoven University

of Technology, Eindhoven, Netherlands, 3Unilever Research and Development,

Trumbull, CT.

10:50 243. Effect of force field parameters on structure and shape of Sodium Dodecyl Sulfate (SDS) micelles simulated by molecular dynamic simulations. X. Tang

1, P. Koenig

2, R.

G. Larson1;

1University of Michigan, Ann

Arbor, MI, 2Procter and Gamble, Cincinnati,

OH.

11:10 244. Using plasmid DNA as a sensor of Hg nanoparticles. S. Varma

1, S. Majumder

1, G.

Chaini2;

1Institute of Physics, Bhubaneswar,

India, 2Utkal University, Bhubaneswar, India.

11:30 245. Heat transfer enhancement in PAO oil-based Cu nanofluids. K. Liu, J. Tatarko, G. A. Willing; University of Louisville, Louisville, KY.

11:50 246. Insight into slow vs. instant gelation of organic solvents by self-assembly of an organogelator. K. Diehn, H. Oh, R.

103

Hashemipour, S. Raghavan; University of Maryland, College Park, MD.

104

Rheology and Dynamics II: Connecting Structure and Rheology–Non-Linear Response


Organizers: Michael Solomon, Robert Leheny Presider: Robert Leheny

9:50 247. Development of microstructure/rheology relationships for complex fluids: Rheo-SALS, time resolved flow-SANS in the 1-2 plane and tOR-SANS applied to understand steady and transient flows in polymer-like micelles. N. Wagner

1, A. Gurnon

1, C. Lopez-Barron

1, A.

Eberle2, L. Porcar

3;

1University of Delaware,

Newark, DE, 2Center for Neutron Research,

National Institute of Standards and Technology, Gaithersburg, MD,

3L'Institut

Laue-Langevin, Grenoble, France. Keynote Lecture

10:30 248. Study of aggregational characteristics of emulsions on their rheological properties using lattice Boltzmann approach. S. Kondaraju

1, H. Farhat

2, S. Choi

1, J. Lee

1;

1Yonsei University, Seoul, Republic of Korea,

2Wayne State University, Detroit, MI.

10:50 249. Connecting shear thickening to changes in particle structure in chemical mechanical polishing slurries. N. C. Crawford

1, K. R.

Williams1, D. Boldridge

2, M. W. Liberatore

1;

1Colorado School of Mines, Golden, CO,

2Cabot Microelectronics Corporation, Aurora,

IL.

11:10 250. Microstructural origins of two-step yielding and strain-induced hardening in dilute colloidal gels. H. K. Chan, A. Mohraz; University of California, Irvine, Irvine, CA.

11:30 251. Role of load-bearing architecture in the viscoelastic yielding of gels. L. C. Hsiao, R. S.

105

Newman, S. C. Glotzer, M. J. Solomon; University of Michigan, Ann Arbor, MI.

11:50 252. Nonequilibrium thermodynamic modeling of flow-induced structural changes in worm-like micellar solutions. N. Germann, L. P. Cook, A. N. Beris, N. J. Wagner; University of Delaware, Newark, DE.

106

Surface Science IV


Organizers: Andrew V. Teplyakov, Howard Fairbrother Presider: Howard Fairbrother

9:50 253. Elastic and interfacial properties of n-alkylsilane monolayers on silicon substrates. B. G. Bush, F. W. Del Rio, C. Jaye, D. A. Fischer, R. F. Cook; National Institute of Standards and Technology, Gaithersburg, MD.

10:10 254. Au-Ag core-shell spherical nanoparticles: Synthesis and optical properties. L. Lu, D. V. Goia; Center for Advanced Materials Processing, Clarkson University, Potsdam, NY.

10:30 255. A new and flexible synthesis route for surface functionalized spherical toner particles via suspension polymerization. C. Speyerer

1,

K. Borchers2, S. Guettler

3, G. Tovar

1, T. Hirth

1,

A. Weber2;

1University of Stuttgart, Institute

for Interfacial Engineering, Stuttgart, Germany,

2Fraunhofer Institute for Interfacial

Engineering and Biotechnology, Stuttgart, Germany,

3Fraunhofer Institute for

Manufacturing Engineering and Automation, Stuttgart, Germany.

10:50 256. Combined quartz crystal microbalance with dissipation monitoring (QCM-D) technology and ellipsometry to quantify interfacial changes in polyelectrolyte multilayer films. A. Jaiswal, S. Hussey; Biolin Scientific Incorporated, Linthicum Heights, MD.

11:10 257. Experimental investigations of thermal pulsations in volatile drops. A. H. Persad

1, K.

Sefiane2, C. A. Ward

1;

1University of Toronto,

Toronto, ON, Canada, 2School of Engineering,

University of Edinburgh, Edinburgh, United Kingdom.

107

11:30 258. Novel patterned hydrogels using “breath figure” polymer structures as templates. J. S. Arora, T. Ponnusamy, V. T. John, T. Ahsan; Tulane University, New Orleans, LA.

11:50 259. Synthesis of stable ligand-free gold-palladium nanoparticles using an excess anion method. P. J. Miedziak

1, S.

Meenakshisundaram1, M. Morad

1, J.

Pritchard1, Q. He

2, J. K. Edwards

1, S. H. Taylor

1,

A. F. Carley1, D. W. Knight

1, C. J. Kiely

2, G. J.

Hutchings1;

1Cardiff University, Cardiff, United

Kingdom, 2Center for Advanced Materials and

Nanotechnology, Lehigh, PA.

108

Wetting IV: Dynamics


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Frieder Mugele

9:50 260. Reducing contact time of drops on super hydrophobic surfaces. R. Dhiman

1, J. C. Bird

2,

H. Kwon1, K. Varanasi

1;

1Massachusetts

Institute of Technology, Cambridge, MA, 2Boston University, Boston, MA.

10:10 261. Is superhydrophobicity always needed? Case of drop impact onto a surface. C. Antonini

1, F. Villa

1, I. Bernagozzi

1, A.

Amirfazli2, M. Marengo

1;

1University of

Bergamo, Dalmine, Italy, 2University of

Alberta, Edmonton, AB, Canada.

10:30 262. Spreading of nanofluids on solid surfaces: Dynamic analysis. K. Liu, A. Nikolov, D. Wasan; Illinois Institute of Technology, Chicago, IL.

10:50 263. Nanocapillary drops entrained by a moving tip. L. Guo

1, M. O. Robbins

1, S. Chen

2;

1Johns Hopkins University, Baltimore, MD,

2Peking University, Beijing, China.

11:10 264. Snap-in dynamics of single particles to the air-water interface. L. Chen, L. Heim, D. S. Golovko, E. Bonaccurso; Technical University Darmstadt, Darmstadt, Germany.

11:30 265. Influence of surface charges on early spreading of drops on flat solid surfaces. L. Chen

1, C. Li

1, G. K. Auernhammer

2, N. Vegt

1, E.

Bonaccurso1;

1Center of Smart Interfaces,

Technical University of Darmstadt, Darmstadt, Germany,

2Max Planck Institute for Polymer

Research, Mainz, Germany.

11:50 266. Detection of precursor film at an early stage of droplet spreading on smooth substrate. I. Ueno, S. Hashimoto, S. Kono, C.

109

Hong; Tokyo University of Science, Noda, Japan.

110

Assembly on the Nano- and Microscale V: Methods

Tuesday, June 12, 2012, 1:30 PM - 3:10 PM Maryland 110

Organizers: Orlin D. Velev, David Gracias Presider: Dimiter N. Petsev

1:30 267. Two-dimensional fractal structures formed by dipolar colloids. J. Byrom, S. L. Biswal; Rice University, Houston, TX.

1:50 268. A new approach for creating polymer hydrogels with zones of distinct chemical, mechanical and optical properties. S. Banik, N. Fernandes, P. Thomas, S. Raghavan; University of Maryland, College Park, MD.

2:10 269. A phase-field study of the freezing process in aqueous colloidal suspensions. F. Wendler

1, M. Jainta

1, M. Huber

2, B. Nestler

2;

1Karlsruhe University of Applied Sciences,

Karlsruhe, Germany, 2Karlsruhe Institute of

Technology, Karlsruhe, Germany.

2:30 270. Nucleation of strong interparticle nano-contacts in hydration hardening of gypsum. E. D. Shchukin; Johns Hopkins University, Baltimore, MD.

2:50 271. Shedding light on helical microtubules: Real-time observations of microtubule self-assembly by optical microscopy. H. Lee, H. Oh, J. Lee, S. R. Raghavan; University of Maryland, College Park, MD.

111

Biocolloids III: Nanoparticles

Tuesday, June 12, 2012, 1:30 PM - 3:10 PM Shaffer 300

Organizers: Justin Hanes, James Schneider Presider: James Schneider

1:30 272. Controlling gold nanoparticles with atomic precision. R. Jin; Carnegie Mellon University, Pittsburgh, PA. Keynote Lecture

2:10 273. Progress towards designing

photobiological fuel cells: Thin biocomposite coatings of live cells and latex particles deposited by continuous convective assembly. J. S. Jenkins, M. C. Flickinger, O. D. Velev; North Carolina State University, Raleigh, NC.

2:30 274. Tunable protein equilibrium nanoclusters by controlling colloidal interactions. A. U. Borwankar, M. A. Miller, A. K. Dinin, B. K. Wilson, T. A. Khan, T. M. Truskett, J. A. Maynard, K. P. Johnston; University of Texas at Austin, Austin, TX.

2:50 275. Characterization of nanoparticle distribution in microcirculation: The influence of blood cells and vascular geometry. Y. Liu, A. Thomas, J. Tan; Lehigh University, Bethlehem, PA.

112

Biointerfaces III: Cell Adhesion


Organizers: Kalina Hristova, Deborah Leckband Presider: Deborah Leckband

1:30 276. Traction microscopy of cells of the immune system. D. A. Hammer, B. Ricart, C. Chen, B. John, C. Hunter; University of Pennsylvania, Philadelphia, PA.

1:50 277. Rigidity sensing and mechanotransduction at cell-cell interfaces. D. Leckband, H. Tabdili, N. Shashikanth, I. Muhammed, N. Wang; University of Illinois at Urbana-Champaign, Urbana, IL.

2:10 278. Using shear and ionic strength to tune bacterial binding valency. B. Fang, M. M. Santore; University of Massachusetts Amherst, Amherst, MA.

2:30 279. Control cell adhesion with dynamic bilayer films. A. Kourouklis, H. Bermudez; University of Massachusetts Amherst, Amherst, MA.

2:50 280. Sensitivity of fibroblast cell directionality to surface charge uniformities on aligned electrospun nanofibers. Y. Su

1, V. Chaurey

1, F.

Block1, P. Chiang

2, E. Botchwey

1, C. Chou

2, N.

S. Swami1;

1University of Virginia,

Charlottesville, VA, 2Academia Sinica, Taipei,

Taiwan.

113

Environmental Aspects V: Nanoparticles II



1:30 281. Polyelectrolyte adsorption, surface forces, and colloidal aggregation. M. Borkovec; University of Geneva, Geneva, Switzerland. Keynote Lecture

2:10 282. Attachment efficiency prediction of engineered nanoparticle aggregation in aqueous dispersions using Maxwell approach. W. Zhang, Y. Chen; Georgia Institute of Technology, Atlanta, GA.

2:30 283. Electrokinetic method for estimation of nanoparticle coating layer thickness: Toward improved predictions of nanoparticle attachment. S. M. Louie, R. D. Tilton, G. V. Lowry; Carnegie Mellon University, Pittsburgh, PA.

2:50 284. Interaction of carbon nanotubes with model cell membranes: A QCM-D study. P. Yi, K. Chen; Johns Hopkins University, Baltimore, MD.

114

Langmuir Student Awards I


Selection: Eric Furst and Lynn Walker Judges: Steve Granick, John Walz, and David Whitten 1:30 285. Aggregation and interfacial behavior of

charged surfactants in ionic liquids. L. Chen, H. Bermudez; University of Massachusetts Amherst, Amherst, MA.

1:50 286. Synthesis of self-assembling nanoparticle clusters through polymeric steric stabilization. K. L. Larson-Smith, D. C. Pozzo; University of Washington, Seattle, WA.

2:10 287. Energy and diffusivity landscapes for colloidal crystal assembly. D. J. Beltran, M. A. Bevan; Johns Hopkins University, Baltimore, MD.

2:30 288. Dielectric spectroscopy of colloidal suspensions across the fluid-crystal transition. P. J. Beltramo, E. M. Furst; University of Delaware, Newark, DE.

2:50 289. Structure, rheology and optical properties of self-assembled micelle-nanoparticle plasmonic nanogels. T. Cong, A. Sambasivam, G. Zhou, R. Sureshkumar; Syracuse University, Syracuse, NY.

115

Microfluidics III: Colloids in Microfluidics



1:30 290. Colloidal microfluidics. P. Tabeling; Microfluidics MEMS and Nanostructures Laboratory, City of Paris Industrial Physics and Chemistry Higher Educational Institution, Paris, France. Keynote Lecture

2:10 291. Spatial manipulation of colloids in

microfluidic devices using acoustic standing waves. L. Gao

1,2, L. M. Johnson

2,3, C. W.

Shields, IV2,3

, G. P. Lopez1,2,3

; 1Department of

Mechanical Engineering and Materials Science,

2Triangle Material Research Science

and Engineering Center, 3Department of

Biomedical Engineering, Duke University, Durham, NC.

2:30 292. Microfluidic chip for phase diagram studies of colloidal particles. R. Aguade Cabanas, C. Girabawe, S. Fraden; Brandeis University, Waltham, MA.

2:50 293. Pinching of particle trajectories in a non-Brownian setting. S. R. Risbud, M. Luo, J. Frechette, G. M. Drazer; Johns Hopkins University, Baltimore, MD.

116

Molecular Assembly V: DNA-Mediated Systems



1:30 294. Diffusionless transformations in DNA-directed colloidal crystals. J. C. Crocker, M. T. Ung, W. B. Rogers, I. Jenkins, T. Sinno; University of Pennsylvania, Philadelphia, PA.

1:50 295. DNA-driven assembly of phospholipid bilayer nanodiscs: A scaffold towards gold nanowires. N. Geerts

1, P. A. Beales

2, T. K.

Vanderlick1;

1Yale University, New Haven, CT,

2University of Leeds, Leeds, United Kingdom.

2:10 296. Cell gelation by self-assembly of biopolymers. V. Javvaji

1, M. B. Dowling

2, F.

Huang1, I. M. White

1, S. R. Raghavan

1;

1University of Maryland, College park, MD,

2Remedium Technology, College park, MD.

2:30 297. Watching DNA tile nanotube nucleation and polymerization in real time. R. Schulman; Johns Hopkins University, Baltimore, MD.

2:50 298. Rational design of DNA functionalized colloidal particles. I. Jenkins, J. C. Crocker, T. Sinno; University of Pennsylvania, Philadelphia, PA.

117

Particles at Fluid Interfaces III: Novel Materials and Applications II


Organizers: Kathleen Stebe, Anthony Dinsmore Presider: Anthony Dinsmore

1:30 299. Powdered emulsions, oil powders and oil foams stabilized solely by particles. B. P. Binks; Surfactant and Colloid Group, Department of Chemistry, University of Hull, Hull HU6 7RX, United Kingdom. Keynote Lecture

2:10 300. Functional responsive foams stabilized

with particles of engineered structure and properties. S. Lam

1, E. Blanco

1, S. K.

Smoukov1, K. P. Velikov

2, O. D. Velev

1;

1North

Carolina State University, Raleigh, NC, 2Utrecht University, Utrecht, Netherlands.

2:30 301. Magnetic Pickering emulsions stabilized by bare and surface-modified Fe3O4

nanoparticles. J. Zhou1, X. Qiao

1, B. P. Binks

2,

K. Sun1;

1State Key Laboratory of Metal Matrix

Composites, Shanghai Jiao Tong University, Shanghai 200240, China,

2Surfactant and

Colloid Group, Department of Chemistry, University of Hull, Hull HU6 7RX United Kingdom

2:50 302. Are responsive Pickering emulsions special? W. Richtering; RWTH Aachen University, Aachen, Germany.

118

Wetting V: Soft Surfaces


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Elmar Bonaccurso, Jr.

1:30 303. Elastocapillary dynamics. H. A. Stone; Princeton University, Princeton, NJ. Keynote Lecture

2:10 304. Wetting on soft solids: Young or

Neumann? R. Style, E. Dufresne; Yale University, New Haven, CT.

2:30 305. How does a polymer solution dissolve into its own solvent? E. Brini

1, S. Garoff

2, N. F.

van der Vegt1;

1 Technische Universität

Darmstadt, Darmstadt, Germany, 2Carnegie

Mellon University, Pittsburgh, PA.

2:50 306. Analytical approach to the equation of state for interfacial tensions. R. David, A. Neumann; University of Toronto, Toronto, ON, Canada.

119

Assembly on the Nano- and Microscale VI: Assembly


Organizers: Orlin D. Velev, David Gracias Presider: Benjamin Yellen

3:40 307. Flash nano-precipitation of polystyrene nanoparticles. C. Zhang, V. J. Pansare, R. K. Prud'homme, R. D. Priestley; Princeton University, Princeton, NJ.

4:00 308. Hierarchically nanostructured material synthesis using droplet templating. D. N. Petsev

1, N. J. Carroll

2, P. Atanassov

1, W.

Patterson1;

1University of New Mexico,

Albuquerque, NM, 2Harvard University,

Cambridge, MA.

4:20 309. Kinetic arrest of anisotropic particles. M. M. Panczyk, N. J. Wagner, E. M. Furst; University of Delaware, Newark, DE.

4:40 310. Method to align layers of colloidal silver nano-fibers. L. Kreminska

1, J. Stromer

1, A.

Golovin2;

1University of Nebraska Kearney,

Kearney, NE, 2City University of New York,

New York, NY.

5:00 311. Dielectrophoretic tweezers as a platform for molecular force spectroscopy in a highly parallel format. P. Cheng, M. J. Barret, P. M. Oliver, D. Cetin, D. V. Vezenov; Lehigh University, Bethlehem, PA.

120

Biointerfaces IV: Membrane Properties



3:40 312. Polymer mediated interactions between model myelin lipid bilayers. X. Banquy, D. Lee, K. Kristianson, M. Gebbie, J. Israelachvili; University of California, Santa Barbara, Santa Barbara, CA.

4:00 313. Effective colloidal potentials mediated by specific biomacromolecular interactions. G. A. Duncan, M. A. Bevan; Johns Hopkins University, Baltimore, MD.

4:20 314. Diffusion in hydrogel-supported phospholipid bilayer membranes. R. J. Hill, C. Wang; McGill University, Montreal, QC, Canada.

4:40 315. Monitoring the lateral dynamics of cell membrane domains through plasmon coupling microscopy. G. Rong, B. M. Reinhard; Boston University, Boston, MA.

5:00 316. Effect of chain branching on ion transport through lipid bilayer membranes. S. Wang, R. G. Larson; University of Michigan, Ann Arbor, MI.

121

Electrokinetics III: Behavior of Particles and Interfaces


Organizers: Zachary Gagnon, Todd Squires Presider: Orlin D. Velev

3:40 317. Remote powering and steering of self-propelling microcircuits by modulated electric field. R. Sharma, O. D. Velev; North Carolina State University, Raleigh, NC.

4:00 318. Electrohydrodynamics at aqueous interfaces: Controlling solute concentration in microfluidic devices. Z. Gagnon; Johns Hopkins University, Baltimore, MD.

4:20 319. Advective symmetry breaking in phoretic migration of a colloidal particle. A. S. Khair; Carnegie Mellon University, Pittsburgh, PA.

4:40 320. Two dimensional assembly of symmetric colloidal dimers under electric field. F. Ma, S. Wang, N. Wu; Colorado School of Mines, Golden, CO.

5:00 321. Imaging amperometry based on ensembles of colloidal particles. R. M. Rock, P. J. Sides, D. C. Prieve; Carnegie Mellon University, Pittsburgh, PA.

122

Environmental Aspects VI: Nanoparticles III


Organizers: William Johnson, Kai Loon Chen Presider: David Mays

3:40 322. Biofilm formation and biodegradation of polymer-carbon nanotube composites. D. G. Goodwin, Jr.; Johns Hopkins University, Baltimore, MD.

4:00 323. Disaggregation of heteroaggregates comprising carbon nanotubes and hematite nanoparticles. K. Huynh, K. Chen; Johns Hopkins University, Baltimore, MD.

4:20 324. Impact of sunlight and humic acid on the deposition kinetics of aqueous fullerene nanoparticles (nC60). X. Qu, P. J. Alvarez, Q. Li; Rice University, Houston, TX.

4:40 325. Clay particles destabilize engineered nanoparticles in aqueous environments. D. Zhou, A. A. Keller; University of California, Santa Barbara, Santa Barbara, CA.

5:00 326. Copper sorption and availability in iron oxide colloids formed under conditions present in a constructed wetland. T. Vadas, J. Zhang; University of Connecticut, Storrs, Mansfield, CT.

123

General Papers III: Particles and Assembly II


Organizers: Raymond R. Dagastine, Ilona Kretzschmar Presider: Ilona Kretzschmar

3:40 327. Novel non-close-packed structures assembled by isotropic spheres with anisotropic interactions induced by the electric field. F. Ma, N. Wu; Colorado School of Mines, Golden, CO.

4:00 328. Motion of Janus particles in electric fields and their application as filler materials in dielectric elastomers. H. Chen, I. Kretzschmar; City College of New York, New York, NY.

4:20 329. Brownian motion of boomerang-shaped colloidal particles. A. Chakrabarty, F. Wang, J. Selinger, Q. Wei; Liquid Crystal Institute and Department of Chemical Physics, Kent State University, Kent, OH.

4:40 330. Relative insignificance of aggregation state in the colloidal interaction between particles and surface. S. Lin, M. R. Wiesner; Duke University, Durham, NC.

5:00 331. Controlled release from functional colloidosomes. J. S. Sander, A. R. Studart; Eidgenössische Technische Hochschule Zürich, Zürich, Switzerland.

124

Langmuir Student Awards II


Selection: Eric Furst and Lynn Walker Judges: Steve Granick, John Walz, and David Whitten 3:40 332. Dynamics of adsorption of particles to

fluid-fluid interfaces in a microchannel. A. P. Kotula, S. L. Anna; Carnegie Mellon University, Pittsburgh, PA.

4:00 333. Role of draining channels in hydrodynamic interactions. R. Gupta, J. Frechette; Johns Hopkins University, Baltimore, MD.

4:20 334. Characterization of proteins at interfaces by chiral sum frequency generation spectroscopy. L. Fu, D. Xiao, V. S. Batista, E. C. Yan; Yale University, New Haven, CT.

4:40 335. Robust and enantiospecific molecular self-assembly on metal surfaces. A. D. Jewell, E. C. H. Sykes; Tufts University, Medford, MA.

5:00 336. Non-isothermal ice-crystallization kinetics in the gas-diffusion layer of a proton-exchange-membrane fuel cell. T. J. Dursch

1,

M. A. Ciontea1, G. J. Trigub

1, C. J. Radke

1, A. Z.

Weber2;

1University of California, Berkeley,

Berkeley, CA, 2Lawrence Berkeley National

Laboratory, Berkeley, CA.

125

Molecular Assembly VI: Surfactant Self-Assemblies II



3:40 337. Molecular thermodynamics of coacervation and coacervate rheological properties. D. Li

1, N. Wagner

1, B. Schubert

2;


2Procter

& Gamble Company, Cincinnati, OH.

4:00 338. Conducting organic nanofilms via ionic self-assembly. T. G. Dane, C. F. Faul, W. H. Briscoe; University of Bristol, Bristol, United Kingdom.

4:20 339. Hydrophilic functionalization of alumina surfaces using ω-hydroxyalkanoic acids self-assembled monolayers. N. F. Sullivan, D. L. Allara; Pennsylvania State University, State College, PA.

4:40 340. Metal-lustrous organic crystals formed from azobenzene and stilbene derivatives. Y. Kondo, K. Nakajima, S. Ogura; Tokyo University of Science, Tokyo, Japan.

126

Rheology and Dynamics III: New Microscopic Methods for Rheology and Dynamics


Organizers: Michael Solomon, Robert Leheny Presider: Ali Mohraz

3:40 341. Migration and structural evolution during confined flow of attractive colloidal suspensions. R. Pandey, J. C. Conrad; University of Houston, Houston, TX.

4:00 342. On-chip characterization of shear and extensional viscosities of protein solutions. P. Sarangapani

1, J. Pathak

1, S. Hudson

2, K.

Migler2;

1MedImmune, Gaithersburg, MD,

2National Institute of Standards and

Technology, Gaithersburg, MD.

4:20 343. Fluid properties probed by analysis of the correlations between the fluctuations in deflection of two cantilevers. W. A. Ducker, M. Radiom, B. Robbins, J. Walz, M. Paul; Virginia Polytechnic Institute and State University, Blacksburg, VA.

4:40 344. Dynamics of a disturbed sessile drop measured by atomic force microscopy (AFM). P. M. McGuiggan

1, D. A. Grave

1, J. S. Wallace

2,

S. Cheng3, A. Prosperetti

1, M. O. Robbins

1;


2MACS Consulting, Germantown, MD,

3Sandia

National Laboratories, Albuquerque, NM.

5:00 345. The effect of rheology modifiers on particle contact dynamics. P. S. Bhosale, J. C. Berg; University of Washington, Seattle, WA.

127

Wetting VI: Surface Active Materials


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Vicki Chen

3:40 346. Autophobing on liquid subphases. R. Sharma

1, R. Kalita

1, T. Corcoran

2, S. Garoff

1, E.

Peterson1, T. Przybycien

1, R. Tilton

1;

1Carnegie

Mellon University, Pittsburgh, PA, 2University

of Pittsburgh, Pittsburgh, PA.

4:00 347. Role of the substrate surface energy in superspreading. A. Nikolov, D. Wasan; Illinois Institute of Technology, Chicago, IL.

4:20 348. Adsorption and wetting properties of surfactant solutions at superhydrophobic surfaces in air and liquid environment. M. Ferrari

1, L. Liggieri

1, F. Ravera

1, E. Santini

1, E.

Guzman1, M. Krasowska

2;

1Consiglio Nazionale

delle Ricerche- Istituto per l'Energetica e le Interfasi, Genova, Italy,

2Ian Wark Research

Institute, University of South Australia, Adelaide, Australia.

4:40 349. Wettability alteration of a steel surface by surface active crude oil compounds. S. Richter, P. Ajmera, F. Ayello, W. Robbins, S. Nesic; Ohio University, Athens, OH.

5:00 350. Oil recovery enhancement through surfactant-slug induced wettability alteration. P. Mwangi, D. Rao; Louisiana State University, Baton Rouge, LA.

128

Unilever Award

Tuesday, June 12, 2012, 5:30 PM - 6:30 PM Shriver 103

5:30 351. Biocolloids in medicine: From cancer therapy to bacterial infection treatment. L. Zhang; Department of Nanoengineering, University of California, San Diego, La Jolla, CA.

129

Victor K. LaMer Award

Wednesday, June 13, 2012, 8:20 AM - 9:20 AM Shriver 103

8:20 352. Phospholipids, assemblies, and active transport. B. Wang; University of Illinois at Urbana-Champaign, Urbana, IL.

130

Assembly on the Nano- and Microscale VII: Magnetic and Electric Field Assisted Assembly

Wednesday, June 13, 2012, 9:50 AM - 12:10 PM Maryland 110

Organizers: Orlin D. Velev, David Gracias Presider: Ilona Kretzschmar

9:50 353. Magnetic assembly of higher order colloidal super lattices. Y. Yang

1,2, L. Gao

1,2, G.

P. Lopez2,3

, B. B. Yellen1,2,4,5

; 1Department of

Mechanical Engineering and Materials Science,

2Triangle Material Research Science

and Engineering Center, 3Department of

Biomedical Engineering, Duke University, Durham, NC,

4University of Michigan –

Shanghai Jiao Tong University Joint Institute, 5Shanghai Jiao Tong University, Shanghai,

China.

10:10 354. Magnetic printing: A new noncontact patterning formed with nanoparticles. J. Kim, T. Ahn; Korea Advanced Institute of Science and Technology, Daejeon, Republic of Korea.

10:30 355. Rapid assembly in the synthesis of hollow submicron magnetically responsive particles with a novel bilayer structure. Y. Wang, B. Sunkara, J. Zhan, J. He, G. L. McPherson, V. T. John; Tulane University, New Orleans, LA.

10:50 356. Tunable interaction potential using paramagnetic colloids in an AC-field. D. Du, D. Li, S. L. Biswal; Rice University, Houston, TX.

11:10 357. Binary colloidal structures assembled through Ising interactions. K. Khalil

1, A.

Sagastegui1, L. Yu

2, M. Tahir

1, B. Wiley

1, J.

Socolar1, B. Yellen

1;

1Duke University,

Durham, NC, 2University of Michigan -

Shanghai Jiao Tong University Joint Institute, Shanghai, China.

11:30 358. Control of anisotropic reinforcement particles for a new family of bioinspired

131

materials. R. M. Erb, J. Segmehl, R. Grisch, A. R. Studart; Eidgenössische Technische Hochschule Zürich, Zürich, Switzerland.

11:50 359. Feedback controlled colloidal crystal assembly via electric field and depletion mediated interactions. T. D. Edwards, M. A. Bevan; Johns Hopkins University, Baltimore, MD.

132

Biocolloids IV: Drug Delivery

Wednesday, June 13, 2012, 9:50 AM - 12:10 PM Shaffer 304

Organizers: Justin Hanes, James Schneider Presider: Jordan J. Green Presider: Laura Ensign

9:50 360. Paper-based sensor to detect and deactivate pathogens. M. S. Khan, T. G. van de Ven; McGill University, Montreal, QC, Canada.

10:10 361. Polymer structure and nucleic acid structure considerations in non-viral nucleic acid delivery. S. Y. Tzeng, A. Quinones-Hinojosa, J. J. Green; Johns Hopkins University School of Medicine, Baltimore, MD.

10:30 362. Colloids for drug delivery to the vagina. L. Ensign, B. Tang, Y. Wang, T. Tse, T. Hoen, R. Cone, J. Hanes; Johns Hopkins University, Baltimore, MD.

10:50 363. Doxorubicin release kinetics of polymer-liposome nanocapsules. T. Trongsatitkul

1, M.

Ruano-Aldea2, K. Der

1, F. Ortega

2, B. M.

Budhlall1;

1University of Massachusetts

Lowell, MA, 2Complutense University of

Madrid, Madrid, Spain.

11:10 364. Conservative and dissipative forces between mucus and differently coated drug particles. J. Swavola, M. A. Bevan; Johns Hopkins University, Baltimore, MD.

11:30 365. Colloidal polyeletrolyte complexes of chitosan for the delivery of bioactive molecules. T. Delair

1, R. Polexe

1, F. Gaudin

2,

B. Verrier2;

1University of Lyon, Villeurbanne

cedex, France, 2University of Lyon/Institute of

Biology and Chemistry of Proteins, Villeurbanne cedex, France.

11:50 366. Biopolymer “hooks” to create coatings on liposomes. R. Zheng

1, J. Zhan

1, M. B.

133

Dowling2, S. R. Raghavan

2, N. S. Pesika

1, J. St

Dennis1, P. Venkataraman

1, J. He

1, V. T. John

1;

1Tulane University, New Orleans, LA,

2University of Maryland, College Park, MD.

134

Colloidal and Surface Forces V: Functional Colloids


Organizers: Darrell Velegol, Noshir Pesika Presider: John Walz

9:50 367. Investigating depletion induced self-assembly of colloidal SWCNTs for purification and as a model colloidal nanoparticle. C. Khripin, N. Arnold-Medabalimi, M. Zheng; National Institute of Standards and Technology, Gaithersburg, MD.

10:10 368. Magnetic transport, mixing, and release of cargo with tailored nanoliter droplets. J. S. Sander, R. M. Erb, C. Denier, A. R. Studart;Eidgenössische Technische Hochschule Zürich, Zürich, Switzerland.

10:30 369. Three dimensional self-assembly using polyhedral building blocks. S. Pandey, J. Randhawa, D. H. Gracias; Johns Hopkins University, Baltimore, MD.

10:50 370. On the self-diffusiophoresis of colloidal motors driven by a surface catalytic reaction. N. Sharifi-Mood, J. Koplik, C. Maldarelli; Levich Institute, City College of New York, New York, NY.

11:10 371. Measurement of the hydrodynamic drag force on a microparticle approaching a flat plate in a nanoparticle dispersion - Observation of a separation-dependent effective viscosity. G. K. James, J. Y. Walz; Virginia Polytechnic Institute and State University , Blacksburg, VA.

11:30 440. Electrolyte dependent motion of a particle normal to an AC electrode. C. L. Wirth, P. J. Sides, D. C. Prieve; Carnegie Mellon University, Pittsburgh, PA.

135

11:50 372. Synthesis of hollow ellipsoidal silica nanostructures using a wet-chemical etching approach. H. Zhang, D. Akins; City College of New York, New York, NY.

136

Environmental Aspects VII: Transport in Porous Media - Applications



9:50 373. Pore-scale quantification of nanoparticle transport in saturated porous media using laser scanning cytometry. Y. Li, R. May; University of Nebraska-Lincoln, Lincoln, NE.

10:10 374. Influence of pH on the transport of silver nanoparticles in saturated porous media: Laboratory experiments and modeling. J. R. Flory

1, S. R. Kanel

1, L. Racz

1, C. A. Impellitteri

2,

R. G. Silva3, M. N. Goltz

1;

1Air Force Institute of

Technology, Wright Patterson Air Force Base, OH,

2U.S. Environmental Protection Agency

National Risk Management Research Laboratory, Cincinnati, OH,

3Shaw

Environmental and Infrastructure, Cincinnati, OH.

10:30 375. Colloid filtration in the presence of energy barriers: Discrete nanoscale surface charge heterogeneity modification of colloid filtration theory. E. F. Pazmino, H. Ma, W. P. Johnson; University of Utah, Salt Lake City, UT.

10:50 376. Fecal indicator bacteria transport and deposition in saturated and unsaturated porous media. G. Chen

1, S. Walker

2;

1National

Research Council Research Associate, Ada, OK, 2University of California, Riverside, Riverside,

CA.

11:10 377. Transport of nanoscale zero valent iron in vertical and horizontal columns. J. Li

1, S.

Ghoshal2;

1Department of Civil Engineering,

McGill University, Montreal, QC, Canada, 2McGill University, Montreal, QC, Canada.

137

11:30 378. Hydrophobically modified biopolymer as enhanced carrier for in situ groundwater remediation. R. Zheng

1, J. Zhan

1, S. R.

Raghavan2, B. Sunkara

1, P. Venkataraman

1, V.

T. John1;

1Tulane University, New Orleans, LA,

2University of Maryland, College Park, MD.

11:50 379. Colloid retention in the absence of energy barriers: Influence of porous media grain size distribution and colloid non-sphericity. E. F. Pazmino, H. Ma, W. P. Johnson; University of Utah, Salt Lake City, UT.

138

General Papers IV: Polymers and Polymer Colloids


Organizers: Raymond R. Dagastine, Ilona Kretzschmar Presider: Raymond R. Dagastine

9:50 380. Effect of monomer solubility on RAFT microemulsion polymerization kinetics and polymer properties. I. El-Hedok, J. O'Donnell; Iowa State University, Ames, IA.

10:10 381. A new polynomial fitting method for high accuracy contact angle measurements. E. Atefi, H. Tavana; University of Akron, Akron, OH.

10:30 382. One-step preparation of uniform cane-ball shaped water-swellable microgels containing poly(N-vinyl formamide). S. Thaiboonrod

1, F. Cellesi

1, R. V. Ulijn

2, B. R.

Saunders1;

1The University of Manchester,

Manchester, United Kingdom, 2University of

Strathclyde, Glasgow, United Kingdom.

10:50 383. Synthesis of nanofibers, rods, and other soft matter structures by shear nanospinning of polymer solutions. T. Tian

1, S. K. Smoukov

1,

J. Fowler2, O. D. Velev

1;

1North Carolina State

University, Raleigh, NC, 2Syngenta, Raleigh,

NC.

11:10 384. High viscosity polymeric dispersions of partially hydrolyzed poly(vinyl acetate): Crosslinking with trimethyl borate and system applications to conservation of art. L. V. Angelova

1, B. H. Berrie

2, R. G. Weiss

1;

1Georgetown University, Washington D.C.,

2Naitonal Gallery of Art, Washington D.C.

11:30 385. Passive microrheology: Non contact measurement of viscoelastic properties of biopolymers. C. Tisserand

1, G. Smart

2, M.

Fleury1, R. Ramsch

1;

1Formulaction, L'Union,

139

France, 2Formulaction Incorporated, Miami,

FL.

11:50 386. Nanoemulsion composite microgels for orthogonal encapsulation and release. H. Z. An, M. E. Helgeson, P. S. Doyle; Massachusetts Institute of Technology, Cambridge, MA.

140

Microfluidics IV: Drops and Bubbles in Microfluidics



9:50 387. Highly monodisperse o/w emulsions studied by NMR diffusometry. P. Wiroonpochit, T. Cocgrove, Y. Espidel, S. W. Prescott; University of Bristol, Bristol, United Kingdom.

10:10 388. A predictive model to estimate operating conditions for microscale tip streaming. T. M. Moyle, L. M. Walker, S. L. Anna; Carnegie Mellon University, Pittsburgh, PA.

10:30 389. Collective hydrodynamics of non-coalescing and coalescing drops in a microfluidic parking network. S. S. Bithi, W. Wang, M. Sun, S. A. Vanapalli; Texas Tech University, Lubbock, TX.

10:50 390. Droplet microfluidics using gas as the continuous phase. K. Jiang, D. DeVoe, S. Raghavan; University of Maryland, College Park, MD.

11:10 391. Microfluidic studies of red blood cell dynamics and microbubble emulsion. J. Wan; Rochester Institute of Technology, Rochester, NY.

11:30 392. Mixing in sessile drops merging on a surface. Y. Zhang, S. Oberdick, S. Garoff, S. L. Anna; Carnegie Mellon University, Pittsburgh, PA.

11:50 393. Dynamics and stability of oil films during droplet transport by electrowetting. J. Kleinert

1, V. Srinivasan

2, M. Pollack

2, V. K.

Pamula2, O. D. Velev

1;

1North Carolina State

University, Raleigh, NC, 2Advanced Liquid

141

Logic Incorporated, Research Triangle Park, NC.

142

Particles at Fluid Interfaces IV: Adsorption and Interfacial Coverage


Organizers: Kathleen Stebe, Anthony Dinsmore Presider: Kathleen Stebe

9:50 394. Measuring single nanoparticle wetting properties. L. Isa

1, F. Lucas

1, R. Wepf

1, E.

Reimhult2;

1Eidgenössische Technische

Hochschule Zürich, Zürich, Switzerland, 2University of Natural Resources and Life

Sciences Vienna, Vienna, Austria.

10:10 395. Nanoparticles at fluid interfaces: Self-assembly, stability, and disassembly. V. Garbin, J. C. Crocker, K. J. Stebe; University of Pennsylvania, Philadelphia, PA.

10:30 396. Nonspherical Janus particles at an oil-water interface. B. Park

1, C. Choi

2, C. Lee

2, D.

Lee1;

1University of Pennsylvania, Philadelphia,

PA, 2Chungnam National University, Daejeon,

Republic of Korea.

10:50 397. Flexible control of anisotropy in Janus particles. C. Choi, S. Kang, C. Lee; Chungnam National University, Daejeon, Republic of Korea.

11:10 398. Particle capture on grooved microfluidic surfaces with controlled charge heterogeneity. A. Chen, M. Santore; University of Massachusetts Amherst, Amherst, MA.

11:30 399. Small angle scattering analysis of nanoparticle adsorption of oil-water interfaces. K. L. Larson-Smith, D. C. Pozzo; University of Washington, Seattle, WA.

11:50 400. Nanoparticles at interfaces: Characterization with imaging ellipsometry and Brewster angle microscopy - A review. P. H. Thiesen; Accurion GmbH, Göettingen, Germany.

143

Rheology and Dynamics IV: Brownian Probes of Complex Fluid Behavior

Wednesday, June 13, 2012, 9:50 AM – 11:50 AM Shaffer 100

Organizers: Robert Leheny, Michael Solomon Presider: Michael Solomon

9:50 401. A colloidal model to visualize polymer dynamics. S. L. Biswal; Rice University, Houston, TX. Keynote Lecture

10:30 402. Passive microrheology: Non intrusive

measurement of emulsion and suspension stability. C. Tisserand

1, G. Smart

2, M. Fleury

1,

L. Brunel1, P. Bru

1, G. Meunier

1;

1Formulaction, L'Union, France,

2Formulaction

Incorporated, Miami, FL.

10:50 404. Granular fluid kinetics approach to modeling soft colloids and polymers. D. N. Petsev, J. O. Toro-Mendoza, F. van Swol; University of New Mexico, Albuquerque, NM.

11:10 405. Mechanical behavior and transport of nanoparticles in block copolymer micelle gels. V. A. Cheng, L. M. Walker; Carnegie Mellon University, Pittsburgh, PA.

11:30 406. Entanglement-controlled subdiffusion of colloidal nanoparticles within concentrated polymer solutions. H. Guo

1, G. Bourret

2, R. B.

Lennox2, M. Sutton

2, J. L. Harden

3, R. L.

Leheny1;

1Johns Hopkins University, Baltimore,

MD, 2McGill University, Montreal, QC, Canada,

3University of Ottawa, Ottawa, ON, Canada.

144

Wetting VII: Complex Surfaces, Contact Angles, and Contact Angle Hysteresis I


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Hans Juergen Butt

9:50 407. Droplet wetting behavior on grooved solid surfaces: From nanoscale to macroscale. A. Shahraz, A. Borhan, K. A. Fichthorn; Pennsylvania State University, University Park, PA.

10:10 408. Superhydrophobic and superhydrophilic areas to control water spreading on inorganic-organic hybrid polymer surface. S. Aura; Biolin Scientific, Espoo, Finland.

10:30 409. Wetting of droplet ensembles on solid surfaces. M. Ben Said

1, B. Nestler

2, M. Selzer

2,

H. Garcke3;

1University of Applied Sciences,

Karlsruhe, Germany, 2Karlsruhe Institute of

Technology, Karlsruhe, Germany, 3Universität

Regensburg, Regensburg, Germany.

10:50 410. Fog deposition and accumulation on flat and textured hydrophobic surfaces. T. S. Yu

1,

J. Park2, H. Lim

2, K. S. Breuer

1;

1Brown

University, Providence, RI, 2Korea Institute of

Machinery and Materials, Daejeon, Republic of Korea.

11:10 411. Morphological transitions of macroscopic capillary bridges in a slit pore geometry. D. J. Broesch, J. Frechette; Johns Hopkins University, Baltimore, MD.

11:30 412. Destiny of a drop on a fiber: From fundamental wetting physics towards cleaning oil spills. B. Eral

1, R. de Ruiter

2, J. de Ruiter

2, J.

Oh2, C. Semprebon

3, M. Brinkmann

3, F.

Mugele2;

1Massachusettes Institute of

Technology, Boston, MA, 2University of

Twente, Enschede, Netherlands, 3Max Planck

145

Institute Dynamics of Complex Fluids, Göttingen, Germany.

11:50 413. Effect of brine salinity on spreading, adhesion, and wettability in gas-condensate reservoirs. Y. Zheng, D. R. Rao; Louisiana State University, Baton Rouge, LA.

146

Assembly on the Nano- and Microscale VIII: Surfactants and Nanoparticles

Wednesday, June 13, 2012, 1:30 PM - 2:50 PM Maryland 110

Organizers: Orlin D. Velev, David Gracias Presider: Keith P. Johnston

1:30 414. Zinc oxide carbon nanotube composites for improved electrocatalytic detection of hydrogen peroxide. M. Wayu

1, R. T. Spidle

2,

K. Ghosh2, A. Wanekaya

2, C. C. Chusuei

1;

1Middle Tennessee State University,

Murfreesboro, TN, 2Missouri State University,

Springfield, MO.

1:50 415. Micellar interface mediated microphase mass transfer: A promising strategy for platinum metals separation process intensification by controllable self-assembly. K. Huang, H. Liu; Institute of Process Engineering, Chinese Academy of Sciences, Beijing, China.

2:10 416. Formation kinetics of oil-rich microemulsions: Rapid mixing study by time resolved SANS. H. F. Klemmer

1, T. Sottmann

1,

R. Strey1, I. Grillo

2;

1University of Cologne,

Cologne, Germany, 2Institute Laue-Langevin,

Grenoble, France.

2:30 418. Investigation of titanium dioxide nanoparticles immobilized in microgels by NEXAFS-microscopy. K. Henzler

1, P.

Guttmann1, Y. Lu

1, F. Polzer

2, M. Ballauff

1;

1Helmholtz-Zentrum Berlin GmbH, Berlin,

Germany, 2Humboldt University Berlin, Berlin,

Germany.

147

Biointerfaces V: Engineered Interfaces

Wednesday, June 13, 2012, 1:30 PM - 3:10 PM Shaffer 304


1:30 419. Effects of block copolymer properties on nanocarrier protection from in vivo clearance and correlation to complement activation. R. K. Prud'homme; Princeton University, Princeton, NJ.

1:50 420. Top-down synthesis of polyaspartamide linkers for single-step protein conjugation to organic and inorganic materials. H. Kong, C. Cha, J. Jeong, X. Tang, T. Saif; University of Illinois at Urbana-Champaign, Urbana, IL.

2:10 421. Particle-induced surfactant dysfunction: What particle concentrations matter? A. Farnoud, J. Fiegel; University of Iowa, Iowa City, IA.

2:30 422. The role of collective magnetic nanoparticle interactions in magnetic hyperthermia and MRI contrast agents. O. T. Mefford, IV, S. L. Saville, B. Qi, T. Lawton; Clemson University, Clemson, SC.

2:50 423. Keratin: Challenges and opportunities. J. Petkov

1, J. R. Lu

2, F. Pan

2;

1Unilever Research

and Development Port Sunlight, Wirral, United Kingdom,

2School of Physics and Astronomy,

Manchester University, United Kingdom.

148

Colloidal and Surface Forces VI: Fluidic Systems II


Organizers: Darrell Velegol, Noshir Pesika Presider: Kripa Varanasi

1:30 424. Structured water in polyelectrolyte dendrimers: Understanding small angle neutron scattering results through atomistic simulation. B. Wu

1, W. Chen

1, G. Smith

1, T.

Egami2, S. Smith

1, Y. Liu

3;

1Oak Ridge National

Laboratory, Oak Ridge, TN, 2Department of

Physics, University of Tennessee, TN, 3National

Institute of Standards and Technology, Gaithersburg, MD.

1:50 425. Thermocharging of colloids in an electrolyte solution. A. Majee, A. Würger; Laboratoire Ondes et Matière d'Aquitaine, Université de Bordeaux & Centre National de la Recherche Scientifique, Talence, France.

2:10 426. The nanomechanics and dynamics of nanoconfined liquids. S. H. Khan

1, P. M.

Hoffmann2;

1University of Peshawar,

Peshawar, Pakistan, 2Wayne State University,

Detroit, MI.

2:30 427. Diffusion in inhomogeneous fluids. F. van Swol; Sandia National Laboratories, Albuquerque, NM.

2:50 428. Direct force measurement between surfaces coated with cationic polyelectrolyte via microcontact printing. C. M. Pick, G. M. Drazer, J. Frechette; Johns Hopkins University, Baltimore, MD.

149

Electrokinetics IV: Fundamentals of Electrokinetic Flows


Organizers: Zachary Gagnon, Todd Squires Presider: Aditya S. Khair

1:30 429. Electrohydrodynamic cone-jet bridges. F. Liu, C. Chen; Duke University, Durham, NC.

1:50 430. Self-generated diffusioosmotic flows due to dissolving minerals. A. Kar, G. Wang, T. R. Kline, D. Velegol; Pennsylvania State University, University Park, PA.

2:10 431. Trace water effects on oxide particle charging in apolar media. M. M. Gacek, D. Bergsman, J. C. Berg; University of Washington, Seattle, WA.

2:30 432. Electrophoresis in non-Newtonian fluids. D. E. Posluszny, A. S. Khair, L. M. Walker; Carnegie Mellon University, Pittsburgh, PA.

2:50 433. Multiscale simulation of electroosmotic flow. L. Guo

1, M. O. Robbins

1, S. Chen

2, J. Liu

3;


2Peking University, Beijing, China,

3Washington State University, Pullman, WA.

150

Environmental Aspects VIII: Applications I


Organizers: William Johnson, Kai Loon Chen Presider: Sotira Yiacoumi

1:30 434. Mercury(II) removal from water with functionalised hydride silica sorbents. K. V. Katok

1, R. L. Whitby

1, S. V. Mikhalovsky

2, A. B.

Cundy2;

1Brighton University, Brighton, United

Kingdom, 2Nazarbayev University, Astana,

Kazakhstan.

1:50 435. Magnetic pollen grains as sorbents for facile removal of organic pollutants in aqueous media. B. R. Thio

1, K. Clark

2, A. A.

Keller3;

1Singapore University of Technology

and Design, Singapore, Singapore, 2Edgewood

Chemical Biological Center, Aberdeen Proving Ground, MD,

3University of California, Santa

Barbara, Santa Barbara, CA.

2:10 436. Neutron imaging of ions during capacitive deionization. K. Sharma

1, S. Yiacoumi

1, C.

Tsouris2, H. Bilheux

2, S. Voisin

2, R. Mayes

2, J.

Kiggans2, D. DePaoli

2, S. Dai

2;

1Georgia

Institute of Technology, Atlanta, GA, 2Oak

Ridge National Laboratory, Oak Ridge, TN.

2:30 437. Interfacial degradation of fluorene in atmospheric aqueous aerosols. F. S. Ehrenhauser, K. Khadapkar, M. J. Wornat, K. T. Valsaraj; Louisiana State University, Baton Rouge, LA.

2:50 438. Depletion induced aggregation and adhesion of bacteria by rod-shaped nanocrystalline cellulose (NCC). X. Sun, Y. Boluk, Y. Liu; University of Alberta, Edmonton, AB, Canada.

151

General Paper V: Adsorption and Wetting


Organizers: Raymond R. Dagastine, Ilona Kretzschmar Presider: Elmar Bonaccurso, Jr.

1:30 439. Model for evaporation of the precorneal tear film including osmotic effects. C. Peng, C. Cerretani, C. J. Radke; University of California, Berkeley, Berkeley, CA.

1:50 441. Self-cleaning by spontaneously jumping condensate. K. M. Wisdom

1, J. A. Watson

2, G.

S. Watson2, C. Chen

1;

1Duke University,

Durham, NC, 2James Cook University,

Townsville, Australia.

2:10 442. CO2 wettability and adhesion in geological reservoir systems. J. Mills, M. Sohrabi; Heriot-Watt University, Edinburgh, United Kingdom.

2:30 443. The role of interfacial exchange kinetics on moisture transmission in nanostructured porous media. B. Albaalbaki, R. J. Hill; McGill University, Montreal, QC, Canada.

152

Rheology and Dynamics V: Interfacial Systems


Organizers: Michael Solomon, Robert Leheny Presider: Sibani L. Biswal

1:30 444. Impact of chrysotile minerals on pulp rheology, Froth behavior and selective mineral separation. P. Patra

1, P. Somasundaran

1, D. R.

Nagaraj2;

1Columbia University, New York, NY,

2Cytec Industries, Incorporated, Stamford, CT.

1:50 445. Characterization of a model dispersant-oil-aqueous interface using convection and dilatational rheology. M. D. Reichert, L. M. Walker; Carnegie Mellon University, Pittsburgh, PA.

2:10 446. Structure-mechanical properties of adsorption layers stabilizing fluorinated emulsions. E. D. Shchukin; Johns Hopkins University, Baltimore, MD.

2:30 447. Investigation on the role of naphthenic acids on water-in-crude oil interfacial viscoelasticity through high-field NMR: Impact of aqueous phase ionic strength and composition. M. Moradi, E. Topchiy, T. E. Lehmann, V. Alvarado; University of Wyoming, Laramie, WY.

2:50 448. Multi-scale approach to colloidal systems (emulsions) design. D. C. Pradilla, A. Nieto, N. Murcia, O. Alvarez, PhD; Universidad de los Andes, Bogotá, Colombia.

153

Wetting VIII: Complex Surfaces, Contact Angles, and Contact Angle Hysteresis II


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Chuck Extrand

1:30 449. Wetting on the microscale: Microscopic versus macroscopic contact angles. P. Papadopoulos, X. Deng, L. Mammen, D. Drotlef, G. Battagliarin, C. Li, K. Muellen, K. Landfester, A. del Campo, H. Butt, D. Vollmer; Max Planck Institute for Polymer Research, Mainz, Germany.

1:50 450. Utilizing dynamic contact angle tensiometry to quantify the kinetics of switchable surface rearrangement. J. A. Kleingartner, H. Lee, G. H. McKinley, R. E. Cohen; Massachusetts Institute of Technology, Cambridge, MA.

2:10 451. AFM study of liquid wetting by constant diameter needleprobes. M. M. Yazdanpanah

1, R. Jalilian

1, R. Cohn

2;

1NaugaNeedles, Louisville, KY,

2University of

Louisville, Louisville, KY.

2:30 452. Photoinduced contact angle hysteresis of thin TiO2 films on microspheres. S. Rosenthal, P. McGuiggan; Johns Hopkins University, Baltimore, MD.

2:50 453. Oil drop shedding from solid substrates by shearing liquids. S. Madani, A. Amirfazli; University of Alberta, Edmonton, AB, Canada.

154

Assembly on the Nano- and Microscale IX: Colloidal Assembly II


Organizers: Orlin D. Velev, David Gracias Presider: Suk Tai Chang

3:40 454. Stable cluster formation in colloidal dispersions - Exploring the stability and spatial correlations in colloidal systems with finite size clusters. P. D. Godfrin

1, J. M. Kim

1, R.

Castañeda-Priego2, Y. Liu

1, N. J. Wagner

1;


2Universidad de Guanajuato, Léon, Mexico.

4:00 455. Size control in antisolvent crystallization. I. H. Leubner; Crystallization Consulting, Penfield, NY.

4:20 456. Brownian dynamics simulation of recognition kinetics between lock and key colloid particles. J. Liu, R. G. Larson; University of Michigan, Ann Arbor, MI.

4:40 457. Reversible biodegradable gold nanoclusters: Control of morphology by tuning colloidal interactions. K. P. Johnston, A. K. Murthy, R. Stover, A. U. Borwankar, J. M. Tam, J. O. Tam, R. Schramm, R. Nguyen, G. Nie, S. Gourisankar, L. L. Ma, K. V. Sokolov; University of Texas at Austin, Austin, TX.

5:00 458. Effects of polymer-coated Janus gold nanoparticles on the coalescence stability of immiscible polymer blends. C. Vannozzi; Chemical Engineering Department, University of California, Santa Barbara, Santa Barbara, CA.

155

Biocolloids V: General Papers

Wednesday, June 13, 2012, 3:40 PM - 5:20 PM Krieger 304

Organizers: Justin Hanes, James Schneider Presider: Yun Liu

3:40 459. Small-angle neutron scattering and neutron spin echo characterization of monoclonal antibody self-associations at high concentrations. E. J. Yearley

1, T. M. Scherer

2,

S. J. Shire2, I. Zarraga

2, Y. R. Gokarn

2, N. J.

Wagner1, Y. Liu

3;

1University of Delaware,

Newark, DE, 2Genentech, Incorporated, South

San Francisco, CA, 3National Institute of

Standards and Technology, Gaithersburg, MD.

4:00 460. Scattering functions for icosahedron and other platonic geometries. R. Pynn, B. Dragnea, X. Li; Indiana University, Bloomington, IN.

4:20 461. Kinetic investigation of nanoparticle bioassembly as a function of ligand design. S. Gupta

1, H. Andresen

2, M. M. Stevens

3;

1Indian

Institute of Technology Delhi, New Delhi, India,

2Epping Herman Fischer, Munich,

Germany, 3Imperial College, London, United

Kingdom.

4:40 462. Fetuin - A mediated formation and ripening of colloidal calciprotein particles. W. Richtering; RWTH Aachen University, Aachen, Germany.

5:00 463. Photostable bioimaging probes via Pickering emulsions. S. Muralidhara

1, N.

Pardhy1, M. Vegliante

2, K. Malu

1, P. Gaines

1, B.

M. Budhlall1;

1University of Massachusetts,

Lowell, MA, 2Villanova University, Villanova,

PA.

156

Colloidal and Surface Forces VII: Fundamentals II



3:40 464. Prospect for characterizing concentrated colloidal structures using spin-echo small angle neutron scattering. W. Chen

1, X. Li

2, C.

Shew3, Y. Liu

4, G. Smith

1, R. Pynn

2, B. Wu

1;

1ORNL, Oak Ridge, TN,

2Indiana University,

Bloomington, IN, 3City University of New York,

College of Staten Island, New York, NY, 4Center for Neutron Research, National

Institute of Standards and Technology, Gaithersburg, MD.

4:00 465. Analytical ultracentrifugation characterization of surfactant shells on single-wall carbon nanotubes. J. Fagan, V. Rastogi; National Institute of Standards and Technology, Gaithersburg, MD.

4:20 466. Linearization of the Poisson-Boltzmann equation in the domain of strong double-layer overlap. M. Fleharty, D. N. Petsev; University of New Mexico, Albuquerque, NM.

4:40 468. Effect of Al3+ ions on the surface forces in the wetting films of water formed on the silica. L. Pan, R. Yoon; Virginia Polytechnic Institute and State University, Blacksburg, VA.

157

Environmental Aspects IX: Applications II


Organizers: William Johnson, Kai Loon Chen Presider: Yusong Li

3:40 469. Naturally-functionalized antimicrobial flocculent made from Moringa Oleifera seeds. S. B. Velegol, H. Jerri, K. J. Adolfson, L. McCullough, D. Velegol; Pennsylvania State University, University Park, PA.

4:00 470. Effect of surface functionalization and water chemistry on the disinfection action of size-scaled silver nanoparticles. E. Fauss, J. Smith, N. S. Swami; University of Virginia, Charlottesville, VA,

4:20 471. Influence of polyaluminum chloride self-aggregation on flocculation performance. K. A. Swetland, M. L. Weber-Shirk, L. W. Lion; Cornell University, Ithaca, NY.

4:40 472. A progressive approach on inactivation of bacteria using nanoparticles derived from colloidal chemistry. J. L. Liu, S. Bashir; Texas A&M University-Kingsville, Kingsville, TX.

5:00 473. Comparative surface thermodynamic analysis of new fluid phase formation in various confining geometries. L. Zargarzadeh, J. Elliott; University of Alberta, Edmonton, AB, Canada.

158

General Paper VI: Thermal Effects and Heat Transfer in Colloids


Organizers: Raymond R. Dagastine, Ilona Kretzschmar Presider: Rico Tabor

3:40 474. Effect of thermal treatment and moisture on silica nanoparticle charge in non-polar solvents. K. Tettey, D. Lee; University of Pennsylvania, Philadelphia, PA.

4:00 475. The role of nanofluids on the thermal conductivity of PNIPAm microgels. T. Trongsatitkul, B. M. Budhlall; University of Massachusetts, Lowell, MA.

4:20 476. A simple approach to modifying the phase separation temperature of aqueous PNIPAM. Z. Wang, R. Pelton; McMaster University, Hamilton, ON, Canada.

4:40 477. Effect of pore size and surface area on charge transport in electrochemical cells. S. Mathew, I. Kretzschmar; City College of New York, New York, NY.

5:00 478. Molecular dynamics simulation of binary hard sphere colloids near glass transition. F. van Swol

1, D. N. Petsev

2;

1Sandia National

Laboratories, Albuquerque, NM, 2University of

New Mexico, Albuquerque, NM.

159

Microfluidics V: Fabrication and General


Organizers: Shelley L. Anna, German Drazer Presider: Shahab Shojaei-Zadeh

3:40 479. Capillary driven transport in expanding porous media. D. N. Petsev, E. Benner; University of New Mexico, Albuquerque, NM.

4:00 481. Metal assisted plasma etching of micro and nanofluidic structures in silicon. T. James, J. Cho, Y. V. Kalinin, C. Chan, J. Randhawa, D. H. Gracias; Johns Hopkins University, Baltimore, MD.

4:20 482. 3D spatial control of chemistry by diffusion from precisely patterned and arrayed microcontainers. Y. V. Kalinin, D. H. Gracias; Johns Hopkins University, Baltimore, MD.

4:40 483. Microfluidic synthesis of macroporous polymer monolith immunobeads. K. Jiang, S. Raghavan, D. DeVoe; University of Maryland, College Park, MD.

160

Particles at Fluid Interfaces V: Rheology and Dynamics


Organizers: Kathleen Stebe, Anthony Dinsmore Presider: Valeria Garbin

3:40 484. Interfacial microrheology of protein layers during formation at the air-water interface. D. Allan

1, K. J. Stebe

2, D. H. Reich

1,

R. L. Leheny1;

1Johns Hopkins University,

Baltimore, MD, 2University of Pennsylvania,

Philadelphia, PA.

4:00 485. Probing the diffusion of nanoparticles and molecules at water-oil interfaces with fluorescence correlation spectroscopy. D. Wang

1, L. Pevzner

1, C. Li

1, C. Y. Li

2, K. Muellen

1,

H. Butt1, K. Koynov

1;

1Max Planck Institute for

Polymer Research, Mainz, Germany, 2Deptartment of Materials Science and

Engineering, Drexel University, Philadelphia, PA.

4:20 486. Role of nanoparticles aggregation and surface rheology in tailoring the stability of fluid interfaces. F. Gambinossi

1, M. Chanana

2,

E. Defnet3, S. E. Mylon

3, J. K. Ferri

1;

1Department of Chemical and Biomolecular

Engineering, Lafayette College, Easton, PA, 2Department of Physical Chemistry,

Universidad de Vigo, Vigo, Spain, 3Department

of Chemistry, Lafayette College, Easton, PA.

4:40 487. Measurement of interfacial elasticity using a microscale tensiometer. A. P. Kotula, M. D. Reichert, L. M. Walker, S. L. Anna; Carnegie Mellon University, Pittsburgh, PA.

5:00 488. Interfacial routes to colloidal gelation. M. N. Lee, H. K. Chan, J. A. Witt, A. Mohraz; University of California, Irvine, Irvine, CA.

161

Wetting IX: Drying, Evaporation, Condensation, and Deposition


Organizers: Stephen Garoff, Patricia M. McGuiggan Presider: Stephen Garoff

3:40 489. Water-harvesting mesh surfaces. K. Park, S. S. Chhatre, A. Deng, R. E. Cohen, G. H. McKinley; Massachusetts Institute of Technology, Cambridge, MA.

4:00 490. Influence of wettability and surface functional groups on pattern formation in dried sessile droplets of nanofluids. F. Carle, D. Brutin; Laboratoire Institut Universitaire des Systèmes Thermiques Industriels UMR7343 Centre National de la Recherche Scientifique, Marseille Cedex 13, France.

4:20 491. Imaging internal flows in a drying polymer solution drop on hydrophobic/hydrophilic surfaces using SR-OCT. S. Manukyan, I. V. Roisman, C. Tropea; Center of Smart Interfaces, Darmstadt, Germany.

4:40 492. Pillar formation from drying poly(ethylene oxide) droplets. K. A. Baldwin, D. J. Fairhurst; NottinghamTrent University, Nottingham, United Kingdom.

5:00 493. Droplet condensation growth on nanotextured surfaces encapsulated with an immiscible liquid. S. Anand, A. Paxson, D. Smith, K. Varanasi; Massachusetts Institute of Technology, Cambridge, MA.

162

163

Author Index

164

Abbott, N. L. 235 Abe, M. 153, 154, 185, 203 Adamiak, K. 142 Adolfson, K. J. 469 Aguade Cabanas, R. 292 Ahn, T. 198, 354 Ahsan, T. 258 Aikawa, S. 185 Ajmani, G. 114 Ajmera, P. 349 Akins, D. 372 Albaalbaki, B. 443 Alexander, C. 129 Allan, D. 484 Allara, D. L. 339 Alvarado, V. 447 Alvarez, O. 448 Alvarez, P. J. 324 Alvarez Mitre, F. D. 167 Ambrusch, M. J. 195 Amegashie, A. 145, 180 Amirfazli, A. 261, 453 An, H. Z. 386 Anacleto, P. 208 Anand, S. 493 Ananthapadmanabhan, K. 242 Andresen, H. 461 Angelova, L. V. 384 Anna, S. L. 332,388, 392, 487 Antonini, C. 261 Apblett, A. 49 Arifin, E. 53 Arimitsu, K. 185 Arnold-Medabalimi, N. 367 Arora, J. S. 258 Arya, C. 123 Asa-Awuku, A. 163 Asaro, F. 81 Atanassov, P. 308 Atefi, E. 381 Attard, P. 111 Auernhammer, G. K. 175, 265 Aura, S. 408

Awad, T. S. 201 Ayello, F. 349 Baber, A. E. 138 Babu, T. 120, 179 Bae, W. 97 Bagal, A. 102 Baldwin, K. A. 159, 492 Ball, W. P. 231 Ballauff, M. 418 Banik, S. 268 Banquy, X. 312 Barbati, A. C. 227 Barclay, M. 93 Barnard, J. A. 107 Barrett, M. J. 13, 311 Bashir, S. 472 Batista, V. S. 334 Battagliarin, G. 449 Bazant, M. Z. 71 Beales, P. A. 295 Behrens, S. H. 106, 176 Beltramo, P. J. 288 Beltran, D. J. 287 Ben Said, M. 409 Benner, E. 479 Bennett, S. 24 Bera, T. 64 Berg, J. C. 345, 431 Berger, R. 166 Bergsman, D. 431 Beris, A. N. 252 Bermudez, H. 279, 285 Bernagozzi, I. 261 Bernate, J. A. 125 Berrie, B. H. 384 Bevan, M. A. 3, 18, 287, 313, 359,364 Bevard, T. 228 Bharath, S. 47, 91 Bhosale, P. S. 345 Bilheux, H. 436 Binks, B. P. 299, 301 Bird, J. C. 95, 260 Biswal, S. L. 135, 267, 356, 401 Bithi, S. S. 389 Bitter, J. L. 18, 231

165

Blanco, E. 300 Block, F. 280 Boldridge, D. 249 Boluk, Y. 438 Bommarius, A. S. 106 Bonaccurso, E. 175, 264, 265 Bong, D. 36 Borchers, K. 255 Boreyko, J. 96 Borhan, A. 407 Borkovec, M. 281 Borwankar, A. U. 274, 457 Botchwey, E. 280 Botto, L. 39 Boucher, M. B. 138 Bourgeat-Lami, E. 119 Bourret, G. 406 Bowen, K. H. 139 Braun, P. 2 Braun, P. V. 103 Breedveld, V. 51 Breuer, K. S. 410 Brini, E. 305 Brinkmann, M. 412 Briscoe, W. H. 338 Broesch, D. J. 411 Brostoff, L. 137 Brown, G. 25 Bru, P. 402 Brugarolas, T. 155, 169, 238 Brum, J. 191 Brunel, L. 402 Brutin, D. 490 Budhlall, B. M. 363, 463, 475 Burdick, J. 238 Bush, B. G. 253 Butt, H. J. 166, 175, 449, 485 Byrom, J. 267 Cai, P. 230 Canady, A. L. 65 Carle, F. 490 Carley, A. F. 259 Carroll, N. J. 308 Carroll, R. L. 190 Castañeda-Priego, R. 454 Castle, G. 142 Cellesi, F. 129, 382

Cerretani, C. 439 Cetin, D. 311 Cha, C. 420 Chabal, Y. J. 44 Chaimovich, A. 16 Chaini, G. 244 Chakrabarty, A. 329 Chan, C.-C. 481 Chan, D. 17 Chan, H. K. 250, 488 Chanana, M. 486 Chang, S. 61, 158, 171, 178, 193 Chao, K. P. 135 Char, K. 144, 97 Chaudhary, K. 194 Chaurey, V. 280 Cheetham, A. G. 35, 79, 160 Chen, A. 398 Chen, C. 215 Chen, C. 276 Chen, C. H. 96, 429, 441 Chen, G. 233, 376 Chen, H. 328 Chen, K. 77, 147, 284, 323 Chen, L. 264, 265 Chen, L. 285 Chen, Q. 194 Chen, S. 263, 433 Chen, V. 53, 78 Chen, W. R. 424, 464 Chen, X. 31 Chen, Y. 88 Chen, Y. 282 Cheng, C. M. 124 Cheng, P. 311 Cheng, S. 344 Cheng, V. A. 405 Cheng, X. 124 Chhatre, S. S. 489 Chiang, P. C. 280 Chiang, T. Y. 209 Chmelka, B. 16 Cho, J. 158 Cho, J. H. 99, 481 Cho, S. R. 61, 171 Cho, W. 219

166

Choi, C. H. 55, 60 Choi, C. H. 396, 397 Choi, K. 171, 178 Choi, K. H. 199 Choi, S. 103 Choi, S. 248 Chou, C. F. 225, 280 Chusuei, C. C. 414 Ciontea, M. A. 336 Clark, K. 435 Cohen, R. E. 50, 56, 450, 489 Cohn, R. 451 Cone, R. 362 Cong, T. 289 Conrad, J. C. 341 Contreras, A. E. 76 Cook, L. P. 252 Cook, R. F. 253 Corcoran, T. 214, 346 Correa, M. 216 Corti, D. S. 14 Cosgrove, T. 387 Crawford, N. C. 249 Crocker, J. C. 294, 298, 395 Cui, H. 35, 79, 160 Cundy, A. B. 434 D'Souza, W. D. 9 Dagastine, R. R. 17, 70, 240 Dahlke, K. 237 Dai, L. 92 Dai, S. 436 Dane, T. G. 338 Daou, M. C. 213 David, R. 306 Davidson, R. M. 197, 221 Defnet, E. 486 Delair, T. 365 del Campo, A. 449 Del Rio, F. W. 253 Deng, A. 489 Deng, X. 449 Denier, C. 368 DePaoli, D. 436 Der, K. 363 de Ruiter, J. 412 de Ruiter, R. 412 Deserno, M. 40

Desert, A. 119 Devendra, R. 170 DeVoe, D. 390, 483 Dhiman, R. 56, 260 Dickey, M. D. 98, 210 Diehn, K. 246 Dietrich, S. 38 Dinin, A. K. 274 Discher, D. 32 Dmochowski, I. 207 Donaldson, S. 16 Dong, G. 53, 78 Dong, J. 14 Dorfman, K. D. 27 Dowling, M. B. 102, 296, 366 Doyle, P. S. 386 Dragnea, B. 460 Drazer, G. 122, 125, 170, 293, 428 Drotlef, D. 449 Du, D. 356 Du, K. 55 Ducker, W. A. 19, 109, 343 Dufresne, E. 304 Duguet, E. 119 Duits, M. 183 Duncan, G. A. 18, 313 Dursch, T. J. 336 Ebeling, D. 66 Eberle, A. 67, 247 Edwards, J. K. 259 Edwards, T. D. 359 Egami, T. 424 Eguchi, S. 203 Ehrenhauser, F. S. 437 Eita, M. 206 El-Hedok, I. 380 Elimelech, M. 75 Elliott, J. 473 Endo, T. 153 Ensign, L. 362 Eral, B. 412 Erb, R. M. 358, 368 Espidel, Y. 387 Extrand, C. 52, 184 Fagan, J. 192, 465

167

Fairbrother, D. H. 18, 93, 114, 139, 231 Fairhurst, D. J. 159, 492 Fairman, R. A. 165 Fang, B. 278 Fang, J. 64 Fang, J. 67 Fang, Y. 188 Farhat, H. 248 Farnoud, A. 421 Faul, C. F. 338 Fauss, E. 470 Fechtmann, M. C. 115 Fell, D. 175 Feng, T. C. 170 Fernandes, N. 268 Ferrari, M. 348 Ferri, J. K. 182, 486 Fichthorn, K. A. 407 Fiegel, J. 421 Fischer, D. A. 253 Fleharty, M. 466 Fleury, M. 385, 402 Flickinger, M. C. 146, 273 Flory, J. R. 374 Forbes, T. 123 Forcino, R. 191 Forry, S. 123 Fourkas, J. 127 Fowler, J. 219, 383 Fraden, S. 292 Franses, E. I. 14 Frechette, J. 133, 145, 164, 180, 293, 333, 411, 428 Fredrickson, G. H. 128 Frenkel, E. E. 116 Frethem, C. F. 239 Frischknecht, A. L. 128 Fu, L. 334 Fukukita, Y. 185 Furst, E. M. 68, 85, 219, 288, 309 Gacek, M. M. 431 Gagnon, Z. 318 Gaines, P. 463 Gambinossi, F. 486 Gangwal, S. 22

Gantefoer, G. 139 Gao, F. 214 Gao, L. 10, 291, 353 Gao, X. 186 Garbin, V. 395 Garcke, H. 409 Garoff, S. 214, 305, 346, 392 Gaskell, K. J. 137 Gaudin, F. 365 Gebbie, M. 312 Geerts, N. 295 Gellman, A. J. 46 Gericke, A. 213 Germann, N. 252 Ghosh, K. 414 Ghoshal, S. 377 Ginn, T. 228 Girabawe, C. 292 Glotzer, S. C. 118, 251 Godfrin, P. D. 454 Goia, D. V. 254 Gokarn, Y. R. 459 Golovin, A. 310 Golovko, D. S. 264 Goltz, M. N. 374 Gong, J. 120 Goodwin, D. 114 Goodwin, D. G. 322 Gorr, H. M. 107 Gourisankar, S. 457 Gracias, D. H. 99, 208, 369, 481, 482 Granick, S. 194 Grave, D. A. 344 Green, J. J. 12, 361 Grieser, F. 17 Grillo, I. 416 Grisch, R. 358 Grzybowski, B. A. 205 Gu, Q. 152 Gu, Y. 101 Guettler, S. 255 Gullapalli, S. 135 Gultepe, E. 208 Gunn, E. 216 Guo, H. 84, 406 Guo, L. 263, 433

168

Gupta, R. 164, 333 Gupta, S. 461 Gurnon, A. 247 Guttmann, P. 418 Guzman, E. 348 H. Sykes, E. C. 335 Hammer, D. A. 207, 276, 34 Hanes, J. 362 Harden, J. L. 84, 406 Hashemipour, R. 246 Hashimoto, S. 266 Hata, S. 181 Havenith, M. 62 He, J. 120, 127, 179 He, J. 355, 366 He, Q. 259 He, Y. 162 He, Z. 121 Heim, L. O. 264 Heinrich, F. 213 Helgeson, M. E. 386 Henzler, K. 418 Hermanson, K. D. 242 Herr, A. 222 Herrera-Alonso, M. 37 Hess, D. W. 51 Hilal, R. 206 Hill, R. J. 226, 314, 443, 74 Hirth, T. 255 Hoek, E. M. 113 Hoen, T. 362 Hoffmann, P. M. 426 Honda, R. 21 Hong, C. 266 Hou, J. 78 Hribar, K. 238 Hristova, K. 212 Hsiao, L. C. 251 Hsu, J. P. 73 Hu, T. 187 Hu, W. 223 Huang, C. H. 115 Huang, F. 296 Huang, H. 114 Huang, K. 415 Huang, R. 218 Huang, Y. 83, 172

Huang, Y. J. 200 Hubal, E. A. 22 Huber, D. L. 128 Huber, M. 269 Hudson, S. 342 Hung, C. 9 Hunter, C. 276 Hur, S. M. 128 Hussey, S. 256 Hutchings, G. J. 259 Huynh, K. 147, 323 Iarikov, D. 109 Ichikawa, Y. 57 Imhof, A. 30 Impellitteri, C. A. 374 Isa, L. 394 Israelachvili, J. 16, 312 Izumoto, R. 203 Jacangelo, J. 114 Jaggernauth, G. E. 165 Jainta, M. 269 Jaiswal, A. 256 Jalilian, R. 451 James, G. K. 371 James, T. 481, 99 Javvaji, V. 296, 88 Jaye, C. 253 Jenkins, I. 294, 298 Jenkins, J. S. 146, 273 Jeong, J. 33, 420 Jerri, H. 469 Jewell, A. D. 335 Ji, S. 69 Jiang, K. 390, 483 Jiang, L. 28 Jin, K. 110 Jin, R. 272 John, B. 276 John, V. T. 116, 258, 355, 366, 378 Johnson, L. M. 10, 63, 291 Johnson, W. P. 234, 375, 379 Johnston, K. P. 274, 457 Ju, N. 228 Juarez, J. J. 3, 194 Kadossov, E. B. 49 Kalinin, Y. V. 481, 482

169

Kalita, R. 214, 346 Kamai, T. 228 Kamat, N. 207, 238 Kanel, S. R. 374 Kang, S. M. 397 Kar, A. 430 Karker, N. 209 Katok, K. V. 434 Kaur, K. 148 Kelkar, A. V. 14 Keller, A. A. 24, 325, 435 Khadapkar, K. 437 Khair, A. S. 319, 432 Khalil, K. 357 Khan, M. S. 360 Khan, S. H. 426 Khan, T. A. 274 Khanal, A. 214 Khripin, C. 367 Kiely, C. J. 259 Kiggans, J. 436 Kim, D. 101 Kim, J. 177 Kim, J. D. 149, 198, 354 Kim, J. M. 67, 454 Kim, N. 158, 171, 61 Kim, S. 61, 171, 178 Kim, S. 61, 171, 178 Kim, S. 97, 144 Kim, S. 193 Kim, Y. 199 Kim, Y. 202 Kirby, B. J. 227 Kleinert, J. 393 Kleingartner, J. A. 450 Klemmer, H. F. 416 Klimek, R. 193 Kline, T. R. 430 Knapp, E. A. 104 Knight, D. W. 259 Ko, Y. 61, 158, 171, 178 Koenig, P. 243 Kojima, K. 181 Kondaraju, S. 248 Kondo, Y. 181, 340 Kong, H. 33, 420 Kono, S. 157, 266

Koplik, J. 189, 370 Koshiishi, Y. 154 Kotula, A. P. 332, 487 Kourouklis, A. 279 Koynov, K. 485 Kralj, J. 123 Krasowska, M. 348 Kreimer, R. 200 Kreminska, L. 310 Kretzschmar, I. 7, 121, 189, 328, 477 Kristianson, K. 312 Kumar, N. 183 Kuo, Y. C. 9 Kupgan, G. 49 Kweon, H. 202 Kwon, H. M. 260, 95 Kyriakou, G. 138 Lam, S. 300 Lambert, O. 119 Landfester, K. 449 Lansalot, M. 119 Lapitsky, Y. 83, 172 Lapointe, C. P. 15 Larson, R. G. 28, 82, 105, 243, 316, 456 Larson-Smith, K. L. 286, 399 Laupheimer, M. 130 Lawton, T. 422 Lawton, T. J. 138 Leary, T. 31 Leckband, D. 103, 277 Lee, C. S. 396, 397 Lee, D. 101, 155, 169, 396, 474 Lee, D. 312 Lee, H. 174 Lee, H. 450 Lee, H. S. 239 Lee, H. Y. 271 Lee, I. 202 Lee, J. 158 Lee, J. 248 Lee, J. H. 271 Lee, M. 238 Lee, M. N. 134, 488 Lee, S. 169

170

Leggett, G. 63 Leheny, R. L. 15, 39, 406, 484, 84 Lehmann, T. E. 447 Lennox, R. B. 406 Leubner, I. H. 168, 455 Levard, C. 25 Lewis, J. 194 Li, C. 265 Li, C. 449, 485 Li, C. Y. 485 Li, D. 337 Li, D. 356 Li, F. 226 Li, J. 117 Li, J. 377 Li, L. 51 Li, Q. 76, 324 Li, X. 139 Li, X. 460, 464 Li, Y. 373 Liao, K. T. 225 Liberatore, M. W. 249 Liddle, J. 3 Liggieri, L. 348 Lim, H. 410 Lim, M. 147 Lin, K. Y. 117 Lin, S. 330 Lin, Y. A. 79 Lion, L. W. 471 Liu, C. 162 Liu, C. 175 Liu, F. 429 Liu, H. 415 Liu, J. 433 Liu, J. 456 Liu, J. L. 472 Liu, K. 245 Liu, K. L. 262 Liu, R. 129 Liu, T. 166 Liu, X. 233 Liu, Y. 55 Liu, Y. 100, 120 Liu, Y. 124, 223, 275 Liu, Y. 179

Liu, Y. 229, 438 Liu, Y. 236 Liu, Y. 424 Liu, Y. 454, 459, 464 Liu, Z. 207 Lock, L. 35, 160 Lockie, H. 70 Lohr, M. A. 41 Lopez, G. P. 10, 63, 291, 353 Lopez-Barron, C. 247 Lösche, M. 213 Louie, S. M. 283 Lowry, G. V. 20, 25, 283 Lu, J. R. 215, 423 Lu, L. 254 Lu, Y. 418 Lucas, F. 394 Luo, M. 133, 145, 180, 293 Ma, F. 4, 320, 327 Ma, H. 234, 375, 379 Ma, L. L. 457 Ma, R. 25 MacIntire, I. 88 Madani, S. 453 Mahmoudi, S. R. 142 Majee, A. 173, 425 Majetich, S. 5, 59 Majumder, S. 244 Maldarelli, C. 31, 104, 370 Mallia, V. A. 167 Malu, K. 463 Mammen, L. 449 Manikantan, H. 29 Mansouri, J. 53 Manukyan, S. 491 Mao, G. 216 Marengo, M. 261 Marsh, K. 114 Martin, J. 187 Massoudieh, A. 228 Mastropietro, D. J. 19 Materer, N. 49 Mathai, P. 3 Mathew, S. 477 Matsuda, W. 185 Matsumura, A. 185 May, R. 373

171

Mayes, R. 436 Maynard, J. A. 274 Mays, D. C. 232 McCormick, A. V. 239 McCullough, L. 469 McDermott, J. J. 209 McFarlane, J. 202 McGuiggan, P. M. 344, 452 McKinley, G. H. 50, 56, 450, 489 Mclean, S. 70 McPherson, G. L. 355 Meenakshisundaram, S. 259 Meester, S. 237 Mefford, O. T. 422 Mendelsohn, R. 216 Mendes, P. M. 208 Meunier, G. 402 Miedziak, P. J. 259 Migler, K. 342 Mikhalovsky, S. V. 434 Milcovich, G. 81 Miller, J. B. 46 Miller, M. A. 274 Mills, J. 442 Mino, Y. 57, 58 Minoshima, H. 203 Miyahara, M. T. 57, 58 Mohraz, A. 43, 134, 250, 488 Moon, S. 52, 184 Morad, M. 259 Moradi, M. 447 Morales, D. 98, 210 Morfesis, A. 156 Morrison, E. D. 239 Moses, L. 207 Moyle, T. M. 388 Muellen, K. 449, 485 Mugele, F. 66, 141, 183, 412 Muhammed, I. 277 Muhammed, M. 206 Mulhearn, W. 101 Mumm, D. R. 134 Muralidhara, S. 463 Murcia, N. 448 Murthy, A. K. 457 Mwangi, P. 350

Mylon, S. E. 486 Na, C. 117 Nagaraj, D. R. 444 Nah, S. 127 Nakajima, K. 340 Nanda, H. 213 Nesic, S. 349 Nestler, B. 269, 409 Neto, C. 111 Neumann, A. 306 Newman, R. S. 251 Nguyen, R. 457 Nguyen, T. 228 Nie, G. 457 Nie, J. 162 Nie, Z. 120, 127, 179 Nieto, A. 448 Nikolov, A. 262, 347 Nobbmann, U. 156 Nolte, A. J. 169 Norris, S. 159 O'Donnell, J. 237, 380 Oberdick, S. D. 5, 392 Ogura, S. 340 Oh, H. 246, 271 Oh, J. 412 Oh, S. G. 199 Ohmori, T. 185 Oliver, P. M. 311 Olivier, G. 133 Ong, L. 240 Ortega, F. 363 Padungthon, S. 26 Palleau, E. A. 98, 210 Pamula, V. K. 393 Pan, F. 423 Pan, L. 468 Panczyk, M. M. 309 Pandey, R. 341 Pandey, S. 369 Pansare, V. J. 307 Papadopoulos, P. 449 Pardhy, N. 463 Park, B. 396 Park, C. 149 Park, C. H. 199 Park, J. 6

172

Park, J. 410 Park, K. C. 489 Park, Y. 171 Parthasarathy, R. 34 Passaro, R. A. 170 Pathak, J. 342 Patra, P. 444 Patterson, W. 308 Paul, M. 343 Paunov, V. N. 22 Pawanrat, N. 175 Paxson, A. T. 112, 493 Pazmino, E. F. 234, 375, 379 Pelton, R. 476 Penfield, K. 196 Peng, B. 30 Peng, C. C. 439 Perez, M. 120 Perica, K. 12 Persad, A. H. 257 Pesika, N. 110, 366 Peters, G. 242 Petersen, K. 54 Peterson, E. 214, 346 Petkov, J. 423 Petsev, D. N. 308, 404, 466, 478, 479 Pevzner, L. 485 Pick, C. M. 428 Polexe, R. 365 Pollack, M. 393 Polzer, F. 418 Ponce, A. A. 137 Ponnusamy, T. 258 Porcar, L. 247 Posluszny, D. E. 432 Pozzo, D. C. 87, 286, 399 Pradilla, D. C. 448 Prescott, S. W. 387 Price, A. D. 128 Priestley, R. D. 151, 307 Prieve, D. C. 72, 321, 440 Pritchard, J. 259 Priyadarshini, D. 46 Prosperetti, A. 344 Prosser, J. H. 169 Prud'homme, R. K. 8, 131,

307, 419 Przybycien, T. 65, 214, 346 Pynn, R. 460, 464 Qi, B. 422 Qian, S. 73 Qiao, X. 301 Qu, X. 324 Quéré, D. 94 Quinones-Hinojosa, A. 361 Racz, L. 374 Radiom, M. 343 Radke, C. J. 336, 439 Raghavan, S. 9, 88, 102, 116, 123, 246, 268, 271, 296, 366, 378, 390, 483 Ramakrishnan, S. 84 Ramsch, R. 385 Randhawa, J. 369, 481 Rao, D. 350 Rao, D. R. 350, 413 Rastogi, V. 465 Ravaine, S. 119 Ravera, F. 348 Rawson, J. 207 Razavi, S. 189 Razmjou, A. 53, 78 Reich, D. H. 15, 484 Reichert, M. D. 445, 487 Reimhult, E. 394 Reinhard, B. M. 315 Ren, B. 7 Ren, W. 54 Reutt-Robey, J. 45, 47, 91, 140 Reza-Garduno, E. 56 Rezvantalab, H. 132 Ricart, B. 276 Richardson, K. E. 83 Richter, A. P. 22 Richter, S. 349 Richtering, W. 302, 462 Risbud, S. R. 293 Robbins, B. 343 Robbins, M. O. 108, 263, 344, 433 Robbins, W. 349 Rock, R. M. 321

173

Rogers, W. B. 294 Roisman, I. V. 491 Romsted, L. S. 152, 201, 220 Rong, G. 315 Roozemond, P. C. 242 Rosenberg, S. 93 Rosenthal, S. 452 Ross, A. H. 213 Roth, E. J. 232 Rothstein, I. Z. 40 Routzahn, A. L. 190 Rovner, J. B. 15 Ruano-Aldea, M. 363 Rubin, J. 106 Sagastegui, A. 357 Saif, T. 420 Saintillan, D. 6, 29 Sakai, H. 153, 154, 185, 203, 241 Sakai, K. 153, 154, 185 Sakamoto, K. 185 Sambasivam, A. 80, 289 Samorajski, J. 200 Sander, J. S. 331, 368 Sangwai, A. V. 80 San Miguel, A. 176 Santini, E. 348 Santore, M. 217, 278, 398 Santos, L. 37 Sarangapani, P. 342 Saunders, B. 11, 86, 129, 382 Saville, S. L. 422 Scherer, T. M. 459 Schneck, J. P. 12 Schramm, R. 457 Schubert, B. 337 Schulman, R. 297 Searson, P. 200, 212 Sefiane, K. 257 Segmehl, J. 358 Selinger, J. 329 Selzer, M. 409 Semprebon, C. 412 Seneff, S. 197, 221 Sengupta, A. 126 SenGupta, A. K. 26 Seo, Y. 83

Sevilla, A. B. 164 Shahidan, N. N. 129 Shahraz, A. 407 Shakesheff, K. M. 129 Shao, Q. 45 Sharifi-Mood, N. 370 Sharma, K. 436 Sharma, R. 193, 317 Sharma, R. 214, 346 Sharp, T. 108 Shashikanth, N. 277 Shchukin, E. D. 270, 446 Shekhar, P. 213 Shell, M. S. 16 Shenoy, S. 213 Shew, C. Y. 464 Shi, Z. 48 Shields, C. W. 291 Shin, S. 174 Shindel, M. M. 43 Shire, S. J. 459 Shivapooja, P. 63 Shojaei-Zadeh, S. 115, 132, 195 Sides, P. J. 72, 321, 440 Silva, R. G. 374 Sinno, T. 294, 298 Smart, G. 385, 402 Smith, D. 493 Smith, G. 424, 464 Smith, J. 56 Smith, J. 470 Smith, S. 424 Smoukov, S. K. 300, 383 Socolar, J. 357 Sohrabi, M. 442 Sokolov, K. V. 457 Sokuler, R. 175 Solomon, M. J. 251 Somasundaran, P. 444 Song, W. 47, 91 Sorida, N. 153 Sottmann, T. 130, 416 Spalla, O. 119 Speyerer, C. 255 Spidle, R. T. 414 Srinivasan, S. 50

174

Srinivasan, V. 393 St Dennis, J. 366 Stebe, K. J. 39, 395, 484 Stegemeier, J. 25 Stevens, G. W. 240 Stevens, M. M. 461 Still, T. 41 Stone, H. A. 303 Stover, R. 457 Stoyanov, S. 22 Street, C. B. 242 Strey, R. 416 Stromer, J. 310 Stubenrauch, C. 130 Studart, A. R. 331 Studart, A. R. 358, 368 Style, R. 304 Su, C. 233 Su, Y. H. 280 Suh, K. 97, 144 Sullivan, N. F. 339 Sun, K. 301 Sun, M. 389 Sun, X. 438 Sunkara, B. 355, 378 Sunshine, J. C. 12 Sureshkumar, R. 80,289 Sutton, M. 406 Swami, N. S. 225, 280, 470 Swavola, J. 364 Swetland, K. A. 471 Sykes, C. H. 138 Tabdili, H. 277 Tabeling, P. 290 Taber, D. F. 90 Tabor, R. 17, 240 Tadmor, R. 161 Tahir, M. 357 Takahashi, H. 181 Takamatsu, Y. 154 Tam, J. M. 457 Tam, J. O. 457 Tan, J. 275 Tan, S. 240 Tanaka, A. 203 Tang, B. 362 Tang, J. 116

Tang, L. 77 Tang, X. 139 Tang, X. 243 Tang, X. 420 Tang, Y. 92 Tatarko, J. 245 Tavana, H. 381 Taveau, J. C. 119 Taylor, S. H. 259 Teplyakov, A. V. 89, 90 Terada, K. 154 Tettey, K. 474 Tezuka, Y. 185 Thaiboonrod, S. 382 Therien, M. 207 Thiesen, P. H. 400 Thill, A. 119 Thio, B. R. 435 Thomas, A. 124, 275 Thomas, P. 268 Tian, F. 90 Tian, T. 383 Tilton, R. D. 20, 65, 214, 283, 346 Tisserand, C. 385, 402 Tizazu, G. 63 Tona, A. 123 Topchiy, E. 447 Torigoe, K. 153, 185, 203 Toro-Mendoza, J. O. 404 Toro-Vazquez, J. F. 167 Tovar, G. 255 Trigub, G. J. 336 Trongsatitkul, T. 363, 475 Tropea, C. 491 Truskett, T. M. 274 Tse, T. 362 Tsegaye, M. 225 Tskipuri, L. 45 Tsouris, C. 202, 436 Tu, F. 238 Tzeng, S. Y. 361 Ueno, I. 266 Ulijn, R. V. 382 Ulrich, A. 229 Ung, M. T. 294 Vadas, T. 326

175

Valsaraj, K. T. 437 van Blaaderen, A. 30 van den Ende, D. 66 van der Vegt, N. F. 305 van de Ven, T. G. 360 van Heiningen, J. A. 74 van Swol, F. 404, 427, 478 Vanapalli, S. A. 177, 389 Vanderlick, T. K. 295 Vannozzi, C. 150, 458 VanWyck, D. 216 Varanasi, K. K. 56, 95, 112, 260, 493 Vargo, K. 34 Varma, S. 244 Vegliante, M. 463 Vegt, N. 265 Velegol, D. 209, 430, 469 Velegol, S. B. 469 Velev, O. D. 22, 98, 146, 193, 210, 273, 300, 317, 383, 393 Velikov, K. P. 300 Venkataraman, P. 116, 366, 378 Verrier, B. 365 Vethamuthu, M. S. 242 Vezenov, D. 13, 311 Villa, F. 261 Voisin, S. 436 Vollmer, D. 449 Vutukuri, H. 30 Wagner, N. J. 67, 242, 247, 252, 309, 337, 454, 459 Walker, A. V. 48 Walker, L. M. 388, 405, 432, 445, 487 Walker, S. 230, 376 Wallace, J. S. 344 Walters, R. 216 Walz, J. 69, 343, 371 Wan, J. 391 Wanekaya, A. 414 Wang, B. 352 Wang, C. Y. 314 Wang, D. 485 Wang, F. 329

Wang, G. 430 Wang, H. 117 Wang, L. 117 Wang, L. 183 Wang, N. 277 Wang, S. 4, 320 Wang, S. 82, 105, 316 Wang, S. W. 43 Wang, T. H. 143, 224 Wang, W. 389 Wang, Y. 139, 362 Wang, Y. 355 Wang, Z. 476 Ward, C. A. 257 Wasan, D. 262, 347 Watanabe, S. 57, 58 Watari, N. 28 Wathuthanthri, I. 55 Watson, G. S. 441 Watson, J. A. 441 Wayu, M. 414 Weber, A. 255 Weber, A. Z. 336 Weber-Shirk, M. L. 471 Wei, Q. H. 329 Wei, Z. 179 Weigandt, K. 87 Weiss, R. G. 167, 188, 384 Wen, T. 59 Wendler, F. 269 Wepf, R. 394 Whitaker, K. A. 85 Whitby, R. L. 434 White, G. M. 190 White, I. M. 296 Wiedman, G. R. 212 Wiesner, M. R. 23, 330 Wiley, B. 357 Williams, K. R. 249 Willing, G. A. 245 Wilson, B. K. 274 Wimley, W. 212 Wiroonpochit, P. 387 Wirth, C. L. 440 Wirth, S. M. 20 Wisdom, K. M. 441 Witt, J. A. 134, 488

176

Wong, G. 211 Wong, K. 72 Wong, M. S. 135 Wornat, M. J. 437 Wu, B. 424, 464 Wu, J. 76 Wu, N. 4, 320, 327 Würger, A. 173, 425 Xiao, D. 334 Xiao, Y. 23 Xu, H. 215 Xu, W. 55, 60 Xu, Z. 188 Xue, C. 103 Xue, Z. 83 Yan, E. C. 334 Yan, N. 188 Yang, H. M. 149 Yang, J. 231 Yang, S. 124 Yang, Y. 353 Yang, Y. J. 174 Yao, L. 39 Yazdanpanah, M. M. 451 Ye, Y. 78 Yearley, E. J. 459 Yedlapalli, S. 190 Yeh, L. H. 73 Yellen, B. B. 353, 357 Yi, P. 284 Yiacoumi, S. 202, 436 Yodh, A. 1, 41 Yolcu, C. 40 Yoon, C. 99 Yoon, H. 97, 144 Yoon, R. H. 468 Yu, L. 357 Yu, Q. 63 Yu, S. 105 Yu, T. S. 410 Yunker, P. J. 41 Zargarzadeh, L. 473 Zarraga, I. 459 Zavadil, K. 47 Zeller, H. J. 182 Zhan, J. 355, 366, 378 Zhang, C. 151, 307

Zhang, H. 229 Zhang, H. 372 Zhang, J. 326 Zhang, L. 351 Zhang, P. 120 Zhang, W. 282 Zhang, Y. 143, 224 Zhang, Y. 220 Zhang, Y. 392 Zhao, X. 215 Zheng, M. 367 Zheng, R. 366, 378 Zheng, Y. 413 Zhou, D. 325 Zhou, G. 289 Zhou, J. 301 Zhu, L. 111 Zou, S. 92 Zueger, J. M. 107 Zukoski, C. F. 204

177

Notes

178

Notes

179

Notes

180

Notes

181

Notes

182

Notes

Date post:	31-May-2020
Category:	Documents
Upload:	others
View:	1 times
Download:	0 times

Welcome Message - ACS · 10 SUNDAY, 10 JUNE 2012 Pre-registration packet pick-up (12:00 - 7:30PM)...

Documents