Professor Schuster brings to our fullerene research an extensive
background in physical organic chemistry and photochemistry, as well as some
experience in the field of neuroscience. He joined the Chemistry Department at New York University
in 1961 following graduate study at the California Institute of Technology with
John D. Roberts and a postdoctoral year with Howard Zimmerman at the University
of Wisconsin. He has been a Fellow of the Alfred P. Sloan Foundation and a National
Science Foundation Science Faculty Fellow, and recently Professor Schuster was elected to
Fellowship in the American Association for the Advancement of Science. He was a
Visiting Scientist at the Royal Institution in London with Sir George Porter,
Nobel Laureate (now Lord Porter), and a Visiting Professor at Yale University.
He has given invited lectures at universities and scientific institutions
throughout the United States and Europe, and has been an invited plenary
lecturer at many scientific meetings and symposia. He is a frequent reviewer of
manuscripts for many journals and proposals submitted to granting agencies.
Professor Schuster's research has been funded by the National Science Foundation, the U. S. Army
Research Office, the National Institutes of Health, NATO, and the Petroleum
Research Fund of the American Chemical Society. He has received the Golden Dozen
Teaching Award from the College of Arts and Science at NYU for outstanding
achievement as a teacher.
Although Professor Schuster has achieved particular recognition for his research
in organic photochemistry, he started actively working in the area of fullerene
chemistry in 1993 and is currently devoting his full efforts to this field.
Current research is focused on a number of aspects of fullerene chemistry,
including functionalization reactions, photochemistry, photoinduced electron transfer, spectroscopy,
kinetics, computations, and biological applications.
In the areas of photochemistry and photophysics, recent research
resulted in the discovery of [2+2] photocycloadditions of conjugated cyclic enones, 1,3-diones,
and electron rich alkenes to C60. These studies will be extended to C70
and higher fullerenes. The chemistry of C60 radical cations,
generated by electron transfer to photoexcited electron acceptors such as
9,10-dicyanoanthracene and acridinium salts, has been explored, and the decay
kinetics of these radical cations has been studied using transient absorption
spectroscopy. Intramolecular energy and electron transfer in porphyrin-fullerene
hybrids as a function of molecular topology is being studied, using a variety of
flexible and rigid spacers. Since these hybrids are excellent singlet oxygen
sensitizers, they have potential applications as antitumor agents through
photodynamic therapy.
A number of fullerene derivatives made at NYU have been shown to
have anti-HIV activity in the micromolar range, even in HIV-infected cell lines
which are resistant to AZT, while they show very low levels of toxicity toward a
variety of cell lines. It has been shown that the antiviral activity is
primarily due to
inhibition of HIV-protease. On the basis of computational studies involving
interaction of fullerenes with the HIV-protease, it is possible to design new
fullerene derivatives as targets for synthesis and as inhibitors of other enzyme
systems More generalized testing of fullerenes as antiviral agents is in
progress.
When he is not in his office, his lab, or the classroom,
Professor Schuster can often be found on the racquetball and tennis courts of the Coles
Sports Center at NYU. He is a serious pianist, studies with a leading teacher in
New York, and gives occasional solo piano recitals as well as appearances with
fellow chemist-musicians. He also writes the program notes for the American
Classical Orchestra in Connecticut. Both he and his wife, Carlotta, are
members of the James Beard Foundation and are experts on the restaurants of New
York and many other cities.