The Potential of Nanostructured Materials to Address the Challenge of a Sustainable Energy Resource

By Mildred S. Dresselhaus

Massachusetts Institute of Technology (MIT)

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Bio

Mildred Dresselhaus Mildred Dresselhaus is an Institute Professor of Electrical Engineering and Physics at MIT. Professor Dresselhaus has served as President of the American Association for the Advancement of Science, Treasurer of the US National Academy of Sciences, President of the American Physical Society and is currently Chair of the Governing Board of the American Institute of Physics. She is a member of the US National Academy of Engineering, as well as of the Engineering Sciences Section of the National Academy of Sciences, the American Philosophical Society, and a Fellow of the American Academy of Arts and Sciences, the American Physical Society, the IEEE, the Materials Research Society, the Society of Women Engineers, the American Association for the Advancement of Science, and American Carbon Society. She has received numerous awards, including the US National Medal of Science and 23 honorary doctorates worldwide. She served as the Director of the Office of Science at the US Department of Energy in 2000–2001. She is the co-author of four books on carbon science. Her research interests are in electronic materials, particularly in nanoscience and nanotechnology, with special regard to carbon related materials, novel forms of carbon, including fullerenes, carbon nanotubes, porous carbons, activated carbons and carbon aerogels, as well as other nanostructures, such as bismuth nanowires and the use of nanostructures in low dimensional thermoelectricity. She headed a national Department of Energy Study on "Basic Research Needs for the Hydrogen Economy," including hydrogen production, storage, and use. She recently cochaired a National Academy of Sciences Decadal Study on "Condensed Matter Materials Physics, CMMP2007"

Credits

Collaborators: George Crabtree, Argonne National Laboratory.

Sponsored by

Department of Physics: General Colloquium, Purdue University, West Lafayette, IN

Cite this work

Researchers should cite this work as follows:

  • Mildred S. Dresselhaus (2008), "The Potential of Nanostructured Materials to Address the Challenge of a Sustainable Energy Resource," https://nanohub.org/resources/3996.

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Location

Physics, Room 114, Purdue University, West Lafayette, IN

Tags

The Potential of Nanostructured Materials to Address the Challenge of a Sustainable Energy Resource
  • The Potential of Nanostructured Materials to Address the Challenge of a Sustainable Energy Resource 1. The Potential of Nanostructure… 0
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  • Outline 2. Outline 296.39639639639643
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  • My Entry to the Field: Energy: A National Initiative 3. My Entry to the Field: Energy:… 360.82749416082748
    00:00/00:00
  • Demographic Expansion 4. Demographic Expansion 486.31965298631968
    00:00/00:00
  • The World Energy Demand Challenge 5. The World Energy Demand Challe… 530.03003003003
    00:00/00:00
  • The Challenge of Fossil Fuel Supply and Security 6. The Challenge of Fossil Fuel S… 684.75141808475144
    00:00/00:00
  • The Challenge of Fossil Fuel Related Climate Change 7. The Challenge of Fossil Fuel R… 769.80313646980312
    00:00/00:00
  • The Energy Alternatives 8. The Energy Alternatives 932.4657991324658
    00:00/00:00
  • Assessing Energy Futures 9. Assessing Energy Futures 1087.5875875875877
    00:00/00:00
  • New Materials and Nanoscience will play a role 10. New Materials and Nanoscience … 1156.79012345679
    00:00/00:00
  • Why Nanostructural materials are important 11. Why Nanostructural materials a… 1383.7504170837506
    00:00/00:00
  • Outline 12. Outline 1536.9035702369035
    00:00/00:00
  • The Energy in Sunlight 13. The Energy in Sunlight 1549.049049049049
    00:00/00:00
  • Solar Energy Utilization 14. Solar Energy Utilization 1658.591925258592
    00:00/00:00
  • Basic Research Needs for Solar Energy 15. Basic Research Needs for Solar… 1850.0834167500834
    00:00/00:00
  • Revolutionary Photovoltaics: goal of 50% Efficient Solar Cell 16. Revolutionary Photovoltaics: g… 1920.6206206206207
    00:00/00:00
  • Solar Electric Challenge 17. Solar Electric Challenge 2076.81014347681
    00:00/00:00
  • Leveraging Photosynthesis for Efficient Energy Production 18. Leveraging Photosynthesis for … 2228.2615949282617
    00:00/00:00
  • Solar-Powered Catalysis for Fuel Formation 19. Solar-Powered Catalysis for Fu… 2304.6046046046049
    00:00/00:00
  • Solar Fuels: Solving the Storage Problem 20. Solar Fuels: Solving the Stora… 2363.0630630630631
    00:00/00:00
  • Energy Conversion Efficiency 21. Energy Conversion Efficiency 2399.5995995995995
    00:00/00:00
  • The Grid-the Triumph of 20th Century Engineering 22. The Grid-the Triumph of 20th C… 2486.0860860860862
    00:00/00:00
  • Thermoelectric Conversion 23. Thermoelectric Conversion 2729.92992992993
    00:00/00:00
  • The 21st Century: A Different Set of Challenges 24. The 21st Century: A Different … 2758.2916249582918
    00:00/00:00
  • Superconductivity for the 21st Century Grid 25. Superconductivity for the 21st… 2855.4554554554556
    00:00/00:00
  • Hydrogen as an Energy Carrier 26. Hydrogen as an Energy Carrier 2892.2255588922258
    00:00/00:00
  • Hydrogen Studies 27. Hydrogen Studies 3092.5592258925594
    00:00/00:00
  • Efficient Solar Water Splitting 28. Efficient Solar Water Splittin… 3141.8418418418419
    00:00/00:00
  • Solar Thermochemical Fuel Production 29. Solar Thermochemical Fuel Prod… 3176.4764764764768
    00:00/00:00
  • Sustainable Energy Resource 30. Sustainable Energy Resource 3196.52986319653
    00:00/00:00
  • Moore's Law for semiconductor electronics 31. Moore's Law for semiconductor … 3246.6132799466136
    00:00/00:00
  • Extension of Moore's Law to the Energy Industry 32. Extension of Moore's Law to th… 3384.4511177844511
    00:00/00:00
  • Moore's law for Solid-State Lighting 33. Moore's law for Solid-State Li… 3413.1464798131465
    00:00/00:00
  • Electricity Use: Solid State Lighting 34. Electricity Use: Solid State L… 3563.5301968635304
    00:00/00:00
  • Example of Moore's Law 35. Example of Moore's Law 3636.3363363363364
    00:00/00:00
  • Technological Advances in Solar Photovoltaics 36. Technological Advances in Sola… 3709.8765432098767
    00:00/00:00
  • Predicting Catalysts for Hydrogen Production, Storage or Fuel-Cell Utilizaton 37. Predicting Catalysts for Hydro… 3953.3867200533869
    00:00/00:00
  • Pt Catalysis: 10x Increase for Oxygen Reduction Reaction 38. Pt Catalysis: 10x Increase for… 4085.8858858858862
    00:00/00:00
  • Outline 39. Outline 4174.6746746746749
    00:00/00:00
  • Energy: A BIG Complex System 40. Energy: A BIG Complex System 4179.1124457791129
    00:00/00:00
  • Perspectie 41. Perspectie 4230.9976643309974
    00:00/00:00
  • Summary and Policy Issues 42. Summary and Policy Issues 4311.1111111111113
    00:00/00:00