Toward Modular Molecular Composite Nanosystems
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1 Toward Modular Molecular Composite Nanosystems K. Eric Drexler, PhD U.C. Berkeley 26 April 2009 Intended take-away messages: Paths are now open toward complex, self-assembled, heterogenous nanosystems Diverse problems are ready for work, and their solutions will support a new technology base 1
2 The Battelle roadmap The circuit-board problem Modular molecular systems Challenges and directions Toward productive nanosystems Hosts: Oak Ridge Brookhaven Pacific Northwest December, 2007 Leadership: Battelle Memorial Institute 2
3 Organized by: Sponsors: Hosting National Labs: Roadmap partners: Productive Nanosystems: capabilities and applications Levels of Productive Capability Applications Control of monomer sequence in a chain Control of monomer positions in a solid Control of atomic positions in a solid Atomically Precise Products designer catalysts binders for directed self assembly polymeric nanoparticles ceramic nanoparticles semiconductor devices superstrong fibers molecular machines petabyte RAM chips engineered membranes smart therapeutic devices molecular electronic devices superstrong smart materials productive nanosystems water purification fuel cell membranes thin, flexible solar cell arrays programmable cell repair systems nanoelectric circuits aerospace composites advanced materials clean energy production clean water improved health care improved computation improved transportation 3
4 The Battelle roadmap The circuit-board problem Modular molecular systems Challenges and directions Toward productive nanosystems Specialized functional structures Porphyrins electronic, chemical, biological, structural, electronic, optical, optoelectronic, electromechanical, electrochemical... Nanotube segments Metal-oxide clusters Quantum dots Metal complexes 4
5 What we have: components Missing pieces: sockets & circuit boards Modular molecular composite nanosystems: ~ circuit boards ~ sockets ~ components * * and peptoids, other foldamers Combine components to build systems: 3D atomically precise scaffolds, easily re-configured 100s to 1000s of parts in addressable locations 5
6 The Battelle roadmap The circuit-board problem Modular molecular systems Challenges and directions Toward productive nanosystems Prospective molecular nanosystems: Components: Structure, sockets = DNA, protein, foldamers Active components = Nanoparticles, nanotubes, metal complexes... (+ DNA, protein, foldamers) Application systems: Gene readers, sensors, plasmonic circuits, LEDs, photovoltaics, fuel cells, digital memories, nanoparticle templates, chain synthetases, productive nanosystems... 6
7 Folding DNA to create nanoscale shapes and patterns Rothemund P.W.K., Nature, 440: (2006). Structural DNA nanotechnology: AFM image Paul Rothemund, Nature 440:297 (2006) 7
8 Structural DNA nanotechnology: Design Mark Sims, design using Nanoengineer-1 (2007) Fast, routine, reliable design & fabrication Paul Rothemund (2005). Mark and Erika Sims, August (2006) 8
9 Rapid chiral assembly of rigid DNA building blocks for molecular nanofabrication ~10nm R. P. Goodman et al., Science 310, (2005) NanoEngineer-1 (Open source, from Nanorex Inc.) 9
10 Design of a Novel Globular Protein Fold with Atomic-Level Accuracy Kuhlman et al., Science 302: (2003) RosettaDesign server for protein design Liu and Kuhlman, Nucleic Acids Res 34:W235 W238 (2006) 10
11 DNA/protein interface technology Zinc finger protein (blue) binding DNA (orange) Zinc-finger design software online Zinc Finger Consortium, 11
12 Computational de novo design and characterization of a four-helix bundle protein that selectively binds a non-biological cofactor F. V. Cochran et al., J Am Chem Soc,. 127: (2005) Modular molecular composite nanosystems: ~ circuit boards ~ sockets ~ components * * and peptoids, other foldamers 12
13 Young s modulus of some biomolecular and inorganic materials Protein! Meat! Young s modulus (GPa) Mechanical stiffness is a key parameter for restricting thermal fluctuations The Battelle roadmap The circuit-board problem Modular molecular systems Challenges and directions Toward productive nanosystems 13
14 Structural DNA engineering: ~100 nm scale; 10 6 atoms; 10 3 addressable binding sites; ~ instances per run ~$1,000 for major variant structures; ~1 day production cycle; good predictability; $/mg, prospect of $/kg (G. Church roadmap) Challenges and limitations: defect rate; stiffness/flexibility; substrate attachment; physical stability; need better design software; characterization bottleneck need more cryo-electron tomography facilities! Foldamer engineering: ~3 nm scale; 10 3 atoms; generalized binding capabilities; ~ instances per run Proteins: $? per structure; ~30 day production cycle (~1 day with cell-free translation systems); software design tools give moderate predictability; Peptoids: low equipment investment; ~$100 per structure; ~1 day production cycle; limited software design tools and predictability Challenges and limitations : defect rates; physical and chemical stability; need for better design software; characterization bottleneck 14
15 Special-structure development: nm scale; atoms; 1 to instances per production run Highly variable costs, production cycle times, characterization requirements Challenges and limitations: diversity of methodologies, lack of broad combinatorial design spaces Examples of potential applications: Nanochips in microsockets for general purpose digital systems (a major yield/reliability challenge) Epitaxial macromolecular crystals on nanolithographic patterns: stacked RAM cells for petabit chips (a lesser yield/reliability challenge) Gene readers, workbenches for nanoscience (moderate reliability typically OK) 15
16 Defect and stability issues, approaches: Defect reduction by solution-phase separation Solubility-engineering techniques and constraints Design to facilitate separation Stabilization by post-processing Transfer to non-aqueous or dry environment Cross-linking, coating, or embedding Dissolution, etching, or pyrolysis of organics The Battelle roadmap The circuit-board problem Modular molecular systems Design and design domains Toward productive nanosystems 16
17 Ribosome shown to scale: A ~25 nm nucleoprotein-based productive nanosystem for peptide foldamers Biomimetic targets: Productive nanosystems for artificial foldamers More advanced targets: Productive nanosystems for 2D, 3D structures Structural representations of (A) COF-1 and (B) COF-5 based on powder diffraction and modelling projected along their c axes (H atoms are omitted) Published by AAAS A range of crystalline structures (metal-organic frameworks) assembled from synthetic building blocks under mild conditions A. P. Côté et al., Science, 310: (2005) 17
18 Hosts: Oak Ridge Brookhaven Pacific Northwest December, 2007 Leadership: Battelle Memorial Institute For downloads: ericdrexler.com/roadmap Take-away messages revisited: Paths are now open toward complex, self-assembled, heterogenous nanosystems Diverse problems are ready for work, and their solutions will support a new technology base 18
19 On the web: Website: ericdrexler.com Blog: ericdrexler.com/blog Technology Roadmap: ericdrexler.com/roadmap 19
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