Surface plasmon resonance (SPR) plays a dominant role in real-time interaction sensing of biomolecular binding events. This book focuses on a total system description including optics, fluidics and sensor surfaces. It covers all commercial SPR systems in the market. It is the first of its kind and fills a gap in the technical literature as no other handbook on SPR is currently available. The final chapter discussed new trends and a vision is given for future developments and needs of the SPR market. This excellent handbook provides comprehensive information with easy to use, stand-alone chapters and will be of great use to anyone one working with or affiliated to the technology.

1. Surface Plasmon Resonance: A General Introduction Nico J. de Mol and Marcel J.E. Fischer 2. The Role of Mass Transport Limitation and Surface Heterogeneity in the Biophysical Characterization of Macromolecular Binding Processes by SPR Biosensing Peter Schuck and Huaying Zhao 3. Amine Coupling Through EDC/NHS: A Practical Approach Marcel J.E. Fischer 4. High Affinity Immobilization of Proteins Using Biotin- and GST-based Coupling Strategies Stephanie Q. Hutsell, Randall J. Kimple, David P. Siderovski, Francis S. Willard, and Adam J. Kimple 5. A Capture Coupling Method for the Covalent Immobilization of Hexahistidine Tagged Proteins for Surface Plasmon Resonance Adam J. Kimple, Robin E. Muller, David P. Siderovski, and Francis S. Willard 6. Affinity Constants for Small Molecules from SPR Competition Experiments Nico J. de Mol 7. Surface Plasmon Resonance Signal Enhancement for Immunoassay of Small Molecules John S. Mitchell and Yinqiu Wu 8. High-Throughput Kinase Assay Based on Surface Plasmon Resonance Hiroyuki Takeda, Naoki Goshima, and Nobuo Nomura 9. SPR Biosensor as a Tool for Screening Prion Protein Binders as Potential Antiprion Leads Beining Chen 10. Carbohydrate-Lectin Interactions Assayed by SPR Eric Duverger, Nathalie Lamerant-Fayel, Natacha Frison, and Michel Monsigny 11. DNA Sensors Based on Mixed Self-Assembled DNA/Alkanethiol Films Sara Peeters and Tim Stakenborg 12. Preparation of Lipid Membrane Surfaces for Molecular Interaction Studies by Surface Plasmon Resonance Biosensors Mojca Podlesnik Besenicar and Gregor Anderluh 13. Capture of Intact Liposomes on Biacore Sensor Chips for Protein-Membrane Interaction Studies Vesna Hodnik and Gregor Anderluh 14. Surface Plasmon Resonance Spectroscopy for Studying the Membrane Binding of Antimicrobial Peptides Kristopher Hall and Marie-Isabel Aguilar 15. Surface Plasmon Resonance Spectroscopy in Determination of the Interactions between Amyloid ss Proteins (Ass) and Lipid Membranes Xu Hou, David H. Small, and Marie-Isabel Aguilar 16. Incorporation of a Transmembrane Protein into a Supported 3D-Matrix of Liposomes for SPR Studies Annette Graneli 17. Application of Surface Plasmon Resonance Spectroscopy to Study G-Protein Coupled Receptor Signalling Konstantin E. Komolov and Karl-Wilhelm Koch 18. Integration of SPR Biosensors with Mass Spectrometry (SPR-MS) Dobrin Nedelkov 19. SPR/MS: Recovery from Sensorchips for Protein Identification by MALDI-TOF Mass Spectrometry Jonas Borch and Peter Roepstorff

Surface plasmon resonance (SPR) has evolved into an exciting technique in biomolecular interaction analysis. The development of commercial SPR instruments has made the te- nique available to a wide scienti?c audience, and the number of publications in which the use of SPR is described is rapidly increasing. SPR is in use for many purposes from food quality control to the study of nanoparticles. Much research is now focused on devel- ing new SPR-related applications, e.g., SPR imaging, SPR arrays, SPR ?uorescence, and combinations of SPR with mass spectrometry and with electrochemistry. Biomolecular interaction analysis is at the core of many research projects. In principle, the setup of an SPR experiment is simple: There is a sensor surface to which one of the interacting partners (the ligand) is immobilized; the other partner (the analyte) is added in a ?ow or cell-like compartment. The binding phenomenon is monitored in real time as a change in SPR angle. An important issue is the choice of surface and the immobilization strategy. With SPR, it is possible to mimic the biological environment which is relevant for an interaction. For interactions in a water environment, sensor surfaces with hydrogels are available. Many biomolecular interactions take place in a membrane environment. For this, commercial sensor surfaces are available, or surfaces can be tailor-made. This volume contains several examples of building up of lipophilic surfaces. Nature abundantly makes use of multivalent interactions; multivalency can be mimicked on a sensor surface with immobilized ligands.