| | The Nanotechnology-Biology Interface: Exploring Models for |
| | 1,12 | | MB | Oversight |
| | 50 | | stron |
| | 4333 | | ID | University of Minnesota |
| | 2006 | | rok |
| | Table of Contents |
| | Introduction v |
| | Executive Summary 1 |
| | Agenda . 9 |
| | Participants List . 13 |
| | Section 1. Sensors 19 |
| | Abstract: Nanosensors for Detection of Aquatic Toxins . 21 |
| | Robert E. Gawley |
| | Environmental Benefits: Nanosensors for Detection of Aquatic Toxins 22 |
| | Robert E. Gawley |
| | Abstract: Real-Time Chemical Composition Measurements of Fine and Ultrafine Airborne Particles . |
| | 23 |
| | Murray V. Johnston |
| | Environmental Benefits: Real-Time Chemical Composition Measurements of Fine and Ultrafine |
| | Airborne Particles . 24 |
| | Murray V. Johnston |
| | Abstract: Ultrasensitive Pathogen Quantification in Drinking Water Using Highly Piezoelectric PMN- |
| | PT Microcantilevers 26 |
| | Wan Y. Shih, W.-H. Shih, R. Mutharasan, Y. Lee |
| | Environmental Benefits: Ulrasensitive Pathogen Quantification in Drinking Water Using Highly |
| | Piezoelectric PMN-PT Microcantilevers 27 |
| | Wan Y. Shih, W.-H. Shih, R. Mutharasan, Y. Lee |
| | Abstract: A Nanocontact Sensor for Heavy Metal Ion Detection 28 |
| | Nongjian Tao |
| | Environmental Benefits: A Nanocontact Sensor for Heavy Metal Ion Detection . 29 |
| | Nongjian Tao |
| | Abstract: Nanostructured Porous Silicon and Luminescent Polysiloles as Chemical Sensors for |
| | Carcinogenic Chromium(VI) and Arsenic(V) . 30 |
| | William C. Trogler, Michael J. Sailor |
| | Environmental Benefits: Nanostructured Porous Silicon and Luminescent Polysiloles as Chemical |
| | Sensors for Carcinogenic Chromium(VI) and Arsenic(V) . 31 |
| | William C. Trogler |
| | Section 2. Treatment 33 |
| | Abstract: Nanoscale Biopolymers With Tunable Properties for Improved Decontamination and |
| | Recycling of Heavy Metals . 35 |
| | Wilfred Chen, Ashok Mulchandani, Mark Matsumoto |
| | Environmental Benefits: Nanoscale Biopolymers With Tunable Properties for Improved |
| | Decontamination and Recycling of Heavy Metals 36 |
| | Wilfred Chen |
| | Nanotechnology and the Environment: Applications and Implications STAR Progress Review |
| | Workshop |
| | Abstract: Synthesis, Characterization and Catalytic Studies of Transition Metal Carbide |
| | Nanoparticles as Environmental Nanocatalysts 37 |
| | S. Ismat Shah, J.G. Chen |
| | Environmental Benefits: Synthesis Characterization and Catalytic Studies of Transition Metal |
| | Carbides Nanoparticles as Environmental Nanocatalysts. 38 |
| | S. Ismat Shah, J.G. Chen |
| | Abstract: Simultaneous Environmental Monitoring and Purification Through Smart Particles 39 |
| | Wolfgang M. Sigmund, Chang-Yu Wu, David Mazyck |
| | Environmental Benefits: Simultaneous Environmental Monitoring and Purification Through Smart |
| | Particles 40 |
| | Wolfgang M. Sigmund, Chang-Yu Wu, David Mazyck |
| | Section 3. Remediation 41 |
| | Abstract: Membrane-Based Nanostructured Metals for Reductive Degradation of Hazardous |
| | Organics at Room Temperature . 43 |
| | Dibakar Bhattacharyya, Leonidas G. Bachas, Stephen M. C. Ritchie |
| | Environmental Benefits: Membrane-Based Nanostructured Metals for Reductive Degradation of |
| | Hazardous Organics at Room Temperature . 44 |
| | Dibakar Bhattacharyya |
| | Abstract: Dendritic Nanoscale Chelating Agents: Synthesis, Characterization, Molecular Modeling |
| | and Environmental Applications 45 |
| | Mamadou S. Diallo, Lajos Balogh, William A. Goddard III, James H. Johnson, Jr. |
| | Environmental Benefits: Dendritic Nanoscale Chelating Agents: Synthesis, Characterization, |
| | Molecular Modeling and Environmental Applications 46 |
| | Mamadou S. Diallo, Lajos Balogh, William A. Goddard III, James H. Johnson, Jr. |
| | Abstract: Photochemical Reactivity of Ferritin for Cr(VI) Reduction 48 |
| | Daniel R. Strongin, Ivan Kim, Hazel-Ann Hosein, Trevor Douglas, Martin A. A. Schoonen |
| | Environmental Benefits: Photochemical Reactivity of Ferritin for Cr(VI) Reduction . 49 |
| | Daniel R. Strongin |
| | Abstract: Nanoscale Bimetallic Particles for In Situ Remediation 50 |
| | Wei-xian Zhang, Tina Masciangioli |
| | Environmental Benefits: Nanoscale Bimetallic Particles for In Situ Remediation . 51 |
| | Wei-xian Zhang |
| | Section 4. Other Areas . 53 |
| | Abstract: Plasmon Sensitized TiO2 Nanoparticles as a Novel Photocatalyst for Solar Applications . |
| | 55 |
| | George Chumanov |
| | Environmental Benefits: Plasmon Sensitized TiO2 Nanoparticles as a Novel Photocatalyst for Solar |
| | Applications . 56 |
| | George Chumanov |
| | Abstract: Development of Nanocrystalline Zeolite Materials as Environmental Catalysts: From |
| | Environmentally Benign Synthesis to Emission Abatement . 57 |
| | Sarah C. Larsen, Vicki H. Grassian |
| | Environmental Benefits: Development of Nanocrystalline Zeolite Materials as Environmental |
| | Catalysts: From Environmentally Benign Synthesis to Emission Abatement . 58 |
| | Sarah C. Larsen, Vicki H. Grassian |
| | Abstract: Ion-Induced Nucleation of Atmospheric Aerosols . 60 |
| | Peter H. McMurry, Fred Eisele |
| | Environmental Benefits: Ion-Induced Nucleation of Atmospheric Aerosols 61 |
| | Peter H. McMurry |
| | Abstract: Green Engineering of Dispersed Nanoparticles: Measuring and Modeling Nanoparticle |
| | Forces . 62 |
| | Darrell Velegol, Kristen Fichthorn |
| | Environmental Benefits: Green Engineering of Dispersed Nanoparticles: Measuring and Modeling |
| | Nanoparticle Forces . 63 |
| | Darrell Velegol |
| | Section 5. SBIR 65 |
| | Abstract: Development of High Surface Area Material and Filter Media 67 |
| | Jayesh Doshi |
| | Environmental Benefits: Development of High Surface Area Material and Filter Media . 68 |
| | Jayesh Doshi |
| | Abstract: Nanocomposite Anchored Plasticizers . 70 |
| | Andrew Myers |
| | Environmental Benefits: Nanoparticle Anchored Plasticizers 71 |
| | Andrew Myers |
| | Abstract: Combinatorial Screening of High-Efficiency Catalysts for Large-Scale Production of |
| | Pyrolytic Carbon Nanotubes . 72 |
| | Xiao-Dong Xiang |
| | Environmental Benefits: Combinatorial Screening of High-Efficiency Catalysts for Large-Scale |
| | Production of Pyrolytic Carbon Nanotubes . 73 |
| | Xiao-Dong Xiang |
| | Dinner Slide Presentation—Societal Implications of Nanobiotechnology 76 |
| | Debra Rolison |
| | Index of Authors, Plenary and Dinner Speakers . 83 |