tailoring surfaces : modifying surface composition and ... · msc centenary lecture series...
TRANSCRIPT
MSc Centenary Lecture Series
Tailoring SurfacesModifying Surface Composition and Structure for
Applications in Tribology, Biology and Catalysis
Nicholas D SpencerETH Zurich, Switzerland
TTC
ft j IISc"Pt*P^<J-vjj
\[p World Scientific
NEW JERSEY • LONDON • SINGAPORE BEIJING • SHANGHAI • HONG KONG TAIPEI • CHENNAI
xiii
Contents
Preface vii
Biography of Professor Nicholas D. Spencer ix
Acknowledgments xi
1. Introduction 1
la. Self-assembled monolayers 2
lb. Functionalizing surfaces with polymer brushes 5
lc. Using additives to modify surfaces in a self-repairing way 9
Id. Structure: a new dimension to surface tailoring 10
le. Spatial distributions on surfaces: from patterns to gradients 13
2. Chemical Modification of Surfaces 17
2a. Self-assembled monolayers: new approaches 17
Commentary
2.1. Self-Assembled Hexasaccharides: Surface Characterization of 19
Thiol-Terminated Sugars Adsorbed on a Gold Surface
M.C Fritz, G. Hahner, N.D. Spencer, R. Burli, A. Vasella
Langmuir, 1996; 12(25) pp 6074-6082
2.2. Highly Oriented, Self-Assembled Alkanephosphate Monolayers on Tantalum 28
(V) Oxide Surfaces
D. Brovelli, G. Hahner, L. Ruiz, R. Hofer, G. Kraus, A. Waldner,J. Schlosser, P. Oroszlan, M. Ehrat, N.D. Spencer
Langmuir, 1999; 15(13) pp 4324-4327
xiv Tailoring Surfaces
2.3. Structural Chemistry of Self-Assembled Monolayers of Octadecylphosphoric 32
Acid on Tantalum Oxide Surfaces
M. Textor, L. Ruiz, R. Hofer, A. Rossi, K. Feldman, G. Hahner, N.D. SpencerLangmuir, 2000; 16(7) pp 3257-3271
2.4. Alkyl Phosphate Monolayers, Self-Assembled from Aqueous Solution onto 47
Metal Oxide Surfaces
R. Hofer, M. Textor, N.D. Spencer,Langmuir, 2001; 17(13) pp 4014-4020
2.5. Self-Assembled Monolayers of Dodecyl and Hydroxy-Dodecyl Phosphates on 54
Both Smooth and Rough Titanium and Titanium Oxide Surfaces
S. Tosatti, R. Michel, M. Textor, N.D. Spencer
Langmuir, 2002; 18(9) pp 3537-3548
2.6. Influence of Alkyl Chain Length on Phosphate Self-Assembled Monolayers 66
Doris M. Spori, Nagaiyanallur V. Venkataraman, Samuele G. P. Tosatti,Firat Durmaz, Nicholas D. Spencer, Stefan Zurcher
Langmuir, 2007; 23(15) pp 8053-8060
2.7. Macroscopic Tribological Testing of Alkanethiol Self-Assembled Monolayers 74
(SAMs): Pin-on-Disk Tribometry with Elastomeric Sliding Contacts
Seunghwan Lee, Raphael Heeb, Nagaiyanallur V. Venkataraman,Nicholas D. Spencer
Tribology Letters; 2007; 28(3) pp 229-239
2.8. Fabricating Chemical Gradients on Oxide Surfaces by Means of Fluorinated, 85
Catechol-Based, Self-Assembled MonolayersMathias Rodenstein, Stefan Zurcher, Samuele G.P. Tosatti, Nicholas D. SpencerLangmuir, 2010; 26(21) pp 16211-16220
2b. Surfaces functionalized with polymer brushes for lubrication 95
Commentary
2.9. Boundary Lubrication of Oxide Surfaces by Poly(L-lysine)-g-Poly(Ethylene 97
Glycol) (PLL-g-PEG) in Aqueous Media
Seunghwan Lee, Markus Miiller, Monica Ratoi-Salagean, Janos Voros,Stephanie Pasche, Susan M. De Paul, Hugh A. Spikes, Marcus Textor,Nicholas D. Spencer
Tribology Letters; 2003; 15(3) pp 231-239
2.10. The Influence of Molecular Architecture on the Macroscopic Lubrication 106
Properties of the Brush-like Co-Polyelectrolyte Poly(L-Lysine)-g-Poly (EthyleneGlycol) (PLL-g-PEG) Adsorbed on Oxide Surfaces
M. Miiller, S. Lee, H.A. Spikes, N.D. Spencer
Tribology Letters; 2003; 15(4) pp 395-405
Contents xv
2.11. Lubrication Properties of a Brush-Like Copolymer as a Function of the 117
Amount of Solvent Absorbed Within the Brush
M. Miiller, X. Yan, S. Lee, S. Perry, N.D. Spencer
Macromolecules; 2005; 38(13) pp 5706-5713
2.12. Aqueous Lubrication of Polymers: Influence of Surface Modification 125S. Lee, N.D. Spencer
Tribology International; 2005; 38, pp 922-930
2.13. Self-Healing Behavior of a Polyelectrolyte-Based Lubricant Additive for 134
Aqueous Lubrication of Oxide Materials
Seunghwan Lee, Markus Miiller, Raphael Heeb, Stefan Ziircher,Samuele Tosatti, Michael Heinrich, Fabian Amstad, Sebastian Pechmann,Nicholas D. Spencer
Tribology Letters; 2006; 24(3) pp 217-223
2.14. Poly(L-lysine)-g-Poly(Ethylene Glycol) (PLL-g-PEG): A Versatile Aqueous 141
Lubricant Additive for Tribosystems Involving ThermoplasticsSeunghwan Lee, Nicholas D. SpencerLubrication Science; 2008; 20 pp 21-34
2.15. Sweet, Hairy, Soft, and Slippery 155
Seunghwan Lee, Nicholas D. Spencer
Science; 2008; 319 pp 575-576
2.16. Nanotribology of Surface-Grafted PEG Layers in an Aqueous Environment 157
Tanja Drobek, Nicholas D. Spencer
Langmuir, 2008 24(4) pp 1484-1488
2.17. End-grafted Sugar Chains as Aqueous Lubricant Additives: 162
Synthesis and Macrotribological Tests of Poly(L-Lysine)-graft-Dextran(PLL-g-dex) CopolymersChiara Perrino, Seunghwan Lee, Nicholas D. Spencer
Tribology Letters; 2009; 33(2) pp 83-96
2.18. Aqueous Lubrication of SiC and SisN4 Ceramics, Aided by a Brush-Like 176
Copolymer Additive, Poly(L-lysine)-g-Poly(Ethylene Glycol) (PLL-g-PEG)Whitney Hartung, Antonella Rossi, Seunghwan Lee, Nicholas D. Spencer
Tribology Letters; 2009; 34(3) pp 201-210
2.19. Room-Temperature, Aqueous-Phase Fabrication of Poly(Methacrylic acid) 186
Brushes by UV-LED-Induced, Controlled Radical Polymerization with High
Selectivity for Surface-bound Species
Raphael Heeb, Robert M. Bielecki, Seunghwan Lee, Nicholas D. SpencerMacromolecules; 2009; 42(22) pp 9124-9132
xvi Tailoring Surfaces
2.20 Macrotribological Studies of Poly(L-lysine)~graft-Poly(Ethylene Glycol) in 195
Aqueous Glycerol Mixtures
Prathima C Nalam, Jarred N Clasohm, Alireza Mashaghi, Nicholas D. Spencer
Tribology Letters; 2010; 37(3) pp 541-552
2.21. Tribological Properties of Poly(L-lysine)-g-Poly(Ethylene Glycol) films: 207
Influence of Polymer Architecture and Adsorbed Conformation
Scott S. Perry, X. Yan, F. T. Limpoco, Markus Muller, Seunghwan Lee,Nicholas D. Spencer
ACS Applied Materials and Interfaces; 2009; 1(6) pp 1224-1230
2c. Surface modification with biomolecules and its control 214
Commentary
2.22. Covalent Attachment of Cell-Adhesive, (Arg-Gly-Asp)-Containing Peptides 215
to Titanium Surfaces
S.J. Xiao, M. Textor, N.D. Spencer, H. Sigrist
Langmuir, 1998; 14(19) pp 5507-5516
2.23. Microstructured Bioreactive Surfaces: Covalent Immobilization of Proteins 225
on Au(lll)/Silicon via Aminoreactive Alkanethiolate Self-Assembled MonolayersF. G. Zaugg, P. Wagner, P. Kernen, A. Vinckier, P. Groscurth, N.D. Spencer,G. Semenza
J. Mater. Sci: Mater, in Med.; 1999; 10(5) pp 255-263
2.24. Poly(L-lysine)-g-Poly(Ethylene Glycol) Layers on Metal Oxide Surfaces: 234
Attachment Mechanism and Effects of Polymer Architecture on Resistance to
Protein AdsorptionG.L. Kenausis, J. Voros, D.L. Elbert, N.P. Huang, R. Hofer, L. Ruiz,M. Textor, J.A. Hubbell, N.D. SpencerJ. Phys. Chem. B; 2000; 104(14) pp 3298-3309
2.25. Poly(L-lysine)-g-Poly(Ethylene Glycol) Layers on Metal Oxide Surfaces: 246
Surface Analytical Characterization and Resistance to Serum and
Fibrinogen AdsorptionN.P. Huang, R. Michel, J. Voros, M. Textor, R. Hofer, A. Rossi, D.L. Elbert,J.A. Hubbell, N.D. Spencer
Langmuir, 2001; 17(2) pp 489-498
2.26. Biotin-Derivatized Poly(L-lysine)-g-Poly(Ethylene Glycol): A Novel 256
Polymeric Interface for Bioaffinity SensingN.P. Huang, J. Voros, S.M. De Paul, M. Textor, N.D. SpencerLangmuir, 2002; 18(1) pp 220-230
Contents xvii
2.27. Poly(L-lysine)-g-Poly(Ethylene Glycol) Assembled Monolayers on Niobium 267
Oxide Surfaces: a Quantitative Study of the Influence of Polymer Interfacial
Architecture on Resistance to Protein Adsorption by ToF-SIMS and in situ OWLS
S. Pasche, S. M. De Paul, J. Voros, N. D. Spencer, M. Textor
Langmuir, 2003; 19(22) pp 9216-9225
2.28. Interaction Forces and Morphology of a Protein-Resistant Poly(ethylene 277
glycol) Layer
M. Heuberger, T. Drobek, N.D. SpencerBiophysical Journal; 2005; 88 pp 495-504
2.29. Relationship Between Interfacial Forces Measured by Colloid-Probe Atomic 287
Force Microscopy and Protein Resistance of Poly(L-lysine)-g-Poly(EthyleneGlycol) Co-PolymersS. Pasche, L. Meagher, N.D. Spencer, M. Textor, H.J. Griesser
Langmuir; 2005; 21, pp 6508-6520
2.30. Effects of Ionic Strength and Surface Charge on Protein Adsorption at 300
PEGylated Surfaces
S. Pasche, J. Voros, H. J. Griesser, N. D. Spencer, M. Textor
J. Phys. Chem B; 2005; 109(37) pp 17545-17552
2.31. Nitrilotriacetic Acid Functionalized Graft Copolymers: A Polymeric 308
Interface for Selective and Reversible Binding of Histidine-Tagged Proteins
G. Zhen, D. Falconnet, E. Kuennemann, J. Voros, N. D. Spencer,M. Textor, S. Ziircher
Adv. Func. Materials; 2006; 16(2), pp 243-251
2.32. A Biomimetic Alternative to PEG as an Antifouling Coating: Resistance to 317
Non-Specific Protein Adsorption of Poly(L-Lysine)-Graft-DextranChiara Perrino, Seunghwan Lee, Sung Won Choi, Atsushi Maruyama,Nicholas D. Spencer
Langmuir, 2008; 24 pp 8850-8856
2d. Lubricant additives as surface modifiers 324
Commentary
2.33. Growth of Tribological Films: in situ Characterization Based on 325
Attenuated Total Reflection Infrared SpectroscopyF.M. Piras, A. Rossi, N.D. Spencer
Langmuir, 2002; 18(17) pp 6606-6613
2.34. A Combinatorial Approach to Elucidating Tribochemical Mechanisms 333
Michael Eglin, Antonella Rossi, Nicholas D. Spencer
Tribology Letters; 2003; 15(3) pp 193-198
xviii Tailoring Surfaces
2.35. X-Ray Photoelectron Spectroscopy Analysis of Tribostressed Samples in the 339
Presence of ZnDTP: A Combinatorial Approach
Michael Eglin, Antonella Rossi, Nicholas D. Spencer
Tribology Letters; 2003; 15(3) pp 199-209
2.36. Combined in situ (ATR FT-IR) and ex situ (XPS) Study of the 350ZnDTP-Iron Surface Interaction
F. Piras, A. Rossi, Nicholas D. Spencer
Tribology Letters; 2003; 15(3) pp 181-191
2.37. Surface Analytical Studies of Surface-Additive Interactions, by Means of 361
in situ and Combinatorial ApproachesA. Rossi, M. Eglin, P.M. Piras, K. Matsumoto, N.D. SpencerWear, 2004; 256(6) pp 578-584
2.38. Pressure Dependence of ZnDTP Tribochemical Film Formation: A 368
Combinatorial ApproachRoman Heuberger, Antonella Rossi, Nicholas D. Spencer
Tribology Letters; 2007; 28(2) 209
2.39. Reactivity of Triphenyl Phosphorothionate in Lubricant Oil Solution 382
Filippo Mangolini, Antonella Rossi, Nicholas D. Spencer
Tribology Letters; 2009; 35(1) pp 31-43
2e. Surface Modification for Lubrication of implants 395
Commentary
2.40. Protein-Mediated Boundary Lubrication in Arthroplasty 396
M. Heuberger, M. R. Widmer, E. Zobeley, R. Glockshuber, N.D. Spencer
Biomaterials; 2005; 26 pp 1165-1173
2.41. The Adsorption and Lubrication Behavior of Synovial Fluid Proteins and 405
Glycoproteins on the Bearing Surface Materials of Hip ReplacementsMarcella Roba, Marco Naka, Emanuel Gautier, Nicholas D. Spencer,Rowena Crockett
Biomaterials; 2009; 30 pp 2072-2078
2.42. Friction, Lubrication, and Polymer Transfer Between UHMWPE and 412
CoCrMo Hip-Implant Materials: A Fluorescence Microscopy StudyRowena Crockett, Marcella Roba, Marco Naka, Beat Gasser, Daniel Delfosse,Vinzenz Frauchiger, Nicholas D. SpencerJ. Biomed. Mat. Res. A; 2009; 89A(4) pp 1011-1018
Contents xix
2.43. A Novel Low-Friction Surface For Biomedical Applications: Modification of 420
Poly(Dimethyl-Siloxane) (PDMS) with Polyethylene Glycol(PEG)-Dopa-LysineKanika Chawla, Seunghwan Lee, Bruce P. Lee, Jeffrey L. Dalsin,Phillip B. Messersmith, Nicholas D. SpencerJ. Biomed. Mat. Res.; 2009; 90A(3) pp 742-749
3. Effects of Surface Morphology and Structure 428
3a. The influence of atomic-scale structure on catalytic activity 428
Commentary
3.1. Structure Sensitivity in the Iron Single Crystal Catalyzed Synthesis 429
of Ammonia
N.D. Spencer, R.C. Schoonmaker, G.A. SomorjaiNature; 1981; 294 pp 643-644
3.2. Iron Single Crystals as Ammonia Synthesis Catalysts: Effect of Surface 431
Structure on Catalyst ActivityN.D. Spencer, R.C. Schoonmaker, G.A. SomorjaiJ. Catalysis; 1982; 74 pp 129-135
3b. Surface structure and wetting 438
Commentary
3.3. Beyond the Lotus Effect: Roughness Influences on Wetting Over a Wide 439
Surface-Energy RangeDoris M. Spori, Tanja Drobek, Stefan Ziircher, Mirjam Ochsner,
Christoph Sprecher, Andreas Miihlebach, Nicholas D. Spencer
Langmuir, 2008; 24(10) pp 5411-5417
3.4. Cassie-State Wetting Investigated by Means of a Hole-to-Pillar-Density 446
Gradient
Doris M. Spori, Tanja Drobek, Stefan Ziircher, Nicholas D. Spencer
Langmuir, 2010; 26(12) pp 9465-9473
3c. Surface structural effects on cells 455
Commentary
3.5. Systematic Study of Osteoblast and Fibroblast Response to Roughness by 456
Means of Surface-Morphology Gradients
Tobias P. Kunzler, Tanja Drobek, Martin Schuler, Nicholas D. Spencer
Biomaterials; 2007; 28, pp 2175-2182
XX Tailoring Surfaces
3.6. Systematic Study of Osteoblast Response to Nanotopography by Means of 464
Nanoparticle-Density Gradients
Tobias P. Kunzler, Christoph Huwiler, Tanja Drobek, Janos Voros,Nicholas D. Spencer
Biomaterials; 2007; 28 pp 5000-5006
4. Spatial Control of Surface Modification 471
4a. Surface gradients 471
Commentary
4.1. A Simple, Reproducible Approach to the Preparation of Surface-Chemical 473
Gradients
5. Morgenthaler, S. Lee, S. Zurcher, N. D. Spencer
Langmuir, 2003; 19(25) pp 10459-10462
4.2. Submicron Structure of Surface-Chemical Gradients Prepared by a 477
Two-Step Immersion Method
S. M. Morgenthaler, S. Lee, N. D. Spencer
Langmuir, 2006; 22(6) pp 2706-2711
4.3. Order and Composition of Methyl-Carboxyl and Methyl-Hydroxyl 483
Surface-Chemical Gradients
Nagaiyanallur V. Venkataraman, Stefan Zurcher, Nicholas D. Spencer
Langmuir, 2006; 22(9) pp 4184-4189
4.4. Fabrication of Material-Independent Morphology Gradients for 489
High-Throughput Applications
Tobias P. Kunzler, Tanja Drobek, Christoph M. Sprecher, Martin Schuler,Nicholas D. Spencer
Applied Surface Science; 2006; 253 pp 2148-2153
4.5. Poly(L-lysine)-g-Poly(Ethylene Glycol) Based Surface Chemical 495
Gradients — Preparation, Characterization and First ApplicationsSara Morgenthaler, Christian Zink, Brigitte Stadler, Janos Voros,Seunghwan Lee, Nicholas D. Spencer, Samuele G.P. Tosatti
Biointerphases; 2007; 1(4) pp 156-165
4.6. Fabrication of Multiscale, Surface-Chemical Gradients by Means of 505
Photocatalytic LithographyNicolas Blondiaux, Stefan Zurcher, Martha Liley, Nicholas D. Spencer
Langmuir, 2007; 23(7) pp 3489-3494
Contents xxi
4.7. Punctionalizable Nano-Morphology Gradients via Colloidal Self-Assembly 511
Christoph Huwiler, Tobias Kiinzler, Marcus Textor, Janos Voros,Nicholas D. Spencer
Langmuir, 2007; 23(11) pp 5929-5935
4.8. Surface-Chemical and -Morphological Gradients (Review Article) 518Sara Morgenthaler, Christian Zink, Nicholas D. Spencer
Soft Matter, 2008; 4 pp 419-434
4.9. Spatial Tuning of Metal Work Function by Means of Alkanethiol and 534
Fluorinated Alkanethiol Gradients
Nagaiyanallur V. Venkataraman, Stefan Ziircher, Antonella Rossi,Seunghwan Lee, Nicola Naujoks, Nicholas D. SpencerJournal of Physical Chemistry C; 2009; 113(14) pp 5620-5628
4.10. Orthogonal, Three-Component, Alkanethiol-based, Surface-Chemical 543
Gradients on Gold
Eva Beurer, Nagaiyanallur V. Venkataraman, Antonella Rossi,Florian Bachmann, Roman Engeli, Nicholas D. Spencer
Langmuir, 2010; 26(11) pp 8392-8399
4b. Surface patterns 551
Commentary
4.11. Selective Molecular Assembly Patterning: A New Approach to 553
Micro- and Nanochemical Patterning of Surfaces for Biological ApplicationsR. Michel, J.W. Lussi, G. Csiics, I. Reviakine, G. Danuser, B. Ketterer,J.A. Hubbell, M. Textor, N.D. Spencer
Langmuir, 2002; 18(8) pp 3281-3287
4.12. Microcontact Printing of Macromolecules with Submicrometer Resolution 560
by Means of Polyolefin StampsGabor Csiics, Tobias Kiinzler, Kirill Feldman, Franck Robin,Nicholas D. Spencer
Langmuir, 2003; 19(15) pp 6104-6109
4.13. Diffusion of Alkanethiols in PDMS and its Implications on Microcontact 566
Printing (/iCP)T. Balmer, H. Schmid, R. Stutz, E. Delamarche, B. Michel, N.D. Spencer,H. Wolf
Langmuir, 2005; 21(2) pp 622-632
4.14. Closing the Gap Between Self-Assembly and Microsystems Using 577
Self-Assembly, Transfer, and Integration (SATI) of Particles
T. Kraus, L. Malaquin, E. Delamarche, H. Schmid, N. D. Spencer, H. Wolf
Adv. Materials; 2005; 17 pp 2438-2442
xxii Tailoring Surfaces
4.15. Nanoparticle Printing with Single-Particle Resolution 582
Tobias Kraus, Laurent Malaquin, Heinz Schmid, Walter Riess,Nicholas D. Spencer, Heiko Wolf
Nature Nanotechnology; 2007; 2 pp 570-576
4.16. Selective Assembly of Sub-Micron Polymer Particles 589
Cyrill Kuemin, K. Cathrein Hiickstadt, Emanuel Lortscher, Antje Rey,Andrea Decker, Nicholas D. Spencer, Heiko Wolf
Advanced Materials; 2010; 22(25) pp 2804-2808
5. Methods for Characterizing Surface Modifications 594
5a. Roughness characterization 594
Commentary
5.1. Wavelength-Dependent Measurement and Evaluation of Surface 595
Topographies: Application of a New Concept of Window Roughness and
Surface Transfer Function
M. Wieland, P. Hanggi, W. Hotz, M. Textor, B.A. Keller, N.D. SpencerWear, 2000; 237(2) pp 231-252
5b. Chemical characterization by scanning-probe methods 617
Commentary
5.2. The Sensitivity of Frictional Forces to pH on a Nanometer Scale — A 618
Lateral Force Microscopy StudyA. Marti, G. Hahner, N.D. SpencerLangmuir, 1995; 11 pp 4632-4635
5.3. The Influence of pH on Friction between Oxide Surfaces in Electrolytes, 622
Studied with Lateral Force Microscopy: Application as a Nanochemical
Imaging TechniqueG. Hahner, A. Marti, N.D. Spencer
THbology Letters; 1997; 3(4) pp 359-365
5.4. Towards a Force Spectroscopy of Polymer Surfaces 629
K. Feldman, T. Tervoort, P. Smith, N.D. Spencer
Langmuir, 1998; 14(2) pp 372-378
5.5. Probing Resistance to Protein Adsorption of Oligo(Ethylene 636
Glycol)-Terminated Self-Assembled Monolayers by Scanning Force MicroscopyK. Feldman, G. Haehner, N.D. Spencer, P. Harder, M. Grunze
J. Amer. Chem. Soc.; 1999; 121(43) pp 10134-10141
Contents xxiii
5c. Following surface reactions in a UHV chamber 644
Commentary
5.6. Improved Instrumentation to Carry Out Surface Analysis and to Monitor 645
Chemical Surface Reactions in situ on Small Area Catalysts over a Wide
Range of Pressures (10~8 - 105 torr)A.L. Cabrera, N.D. Spencer, E. Kozak, P.W. Davies, G.A. SomorjaiRev. Sci. Instr.; 1982; 53(12) pp 1888-1893
5.7. A Simple, Controllable Source for Dosing Molecular Halogens in UHV 651
N.D. Spencer, P.J. Goddard, P.W. Davies, M. Kitson, R.M. Lambert
J. Vac. Sci. TechnoL; 1983; 1(3) pp 1554-1555
5.8. Molecular Beam Reactive Scattering of Br2 from Pd(lll) Using an 653
Electrochemical Effusive Source
W.T. Tysoe, N.D. Spencer, R.M. Lambert
Surface Sci.; 1982; 120(2) pp 413-426