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Nicholas A. Kotov

Nicholas A. Kotov
2021
Born (1965-08-29) August 29, 1965 (age 58)
Moscow, USSR
NationalityAmerican
Alma materMoscow State University
Known forself-assembling materials, layer-by-layer assembly, nanotechnology
Scientific career
FieldsChemistry, Chemical Engineering, Materials Science, Nanotechnology, Biomedical Engineering
InstitutionsUniversity of Michigan
Thesis Photoelectrochemical Effects at the Interface of the Two Immiscible Electrolyte Solutions
Doctoral advisorMikhail Kuzmin
Other academic advisorsJanos H. Fendler

Nicholas A. Kotov (born August 29, 1965, in Moscow, USSR) is the Irving Langmuir Distinguished Professor of Chemical Sciences and Engineering at the University of Michigan in Ann Arbor, MI, USA.[1] Prof. Nicholas Kotov demonstrated that the ability to self-organize into complex structures is the unifying property of all inorganic nanostructures.[2][3] He has developed a family of bioinspired composite materials with a wide spectrum of properties that were previously unattainable in classical materials.[4] These composite biomimetic materials are exemplified by his nacre-like ultrastrong yet transparent composites,[5][6] enamel-like, stiff yet vibration-isolating composites, and cartilage-like membranes with both high strength and ion conductance.[6][7][8][9]

  1. ^ "Nicholas A. Kotov | Michigan Engineering". Engin.umich.edu. Retrieved 2013-10-08.
  2. ^ "acs.org". cen.acs.org. Retrieved 2021-02-10.
  3. ^ "Nicholas Kotov of University of Michigan is 2020 Alpha Chi Sigma Award Recipient". www.aiche.org. 2020-10-12. Retrieved 2021-02-10.
  4. ^ "Kotov wins the Stephanie L. Kwolek Award". Michigan Engineering. May 20, 2016. Retrieved 2021-02-10.
  5. ^ "U-M research: New plastic is strong as steel, transparent". EurekAlert!. Retrieved 2021-02-10.
  6. ^ a b "New Plastic is Transparent and Strong as Steel". NetComposites. Retrieved 2021-02-10.
  7. ^ "Membrane inspired by bone and cartilage efficiently produces electricity from saltwater". ScienceDaily. Retrieved 2021-02-10.
  8. ^ "Inspired by the Tissues of Living Organisms, Researchers Take One Step Closer to Harvesting "Blue Energy"". Yale E360. Retrieved 2021-02-10.
  9. ^ "ten15am.org".

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