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principles
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crystal growth and characterization of materials
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crystallography in art and cultural heritage
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electron crystallography
high pressure
inorganic and mineral structures
international tables
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magnetic structures
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structural chemistry
synchrotron and xfel radiation
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congress

2020 iucr xxv
2017 iucr xxiv
2014 iucr xxiii
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2008 iucr xxi
2005 iucr xx
2002 iucr xix
1999 iucr xviii
1996 iucr xvii
1993 iucr xvi
1990 iucr xv
1987 iucr xiv
1984 iucr xiii
1981 iucr xii
1978 iucr xi
1975 iucr x
1972 iucr ix
1969 iucr viii
1966 iucr vii
1963 iucr vi
1960 iucr v
1957 iucr iv
1954 iucr iii
1951 iucr ii
1948 iucr i

people

nobel prize

all
agre
anfinsen
barkla
boyer
w.h.bragg
w.l.bragg
brockhouse
de broglie
charpak
crick
curl
davisson
debye
deisenhofer
geim
de gennes
hauptman
hodgkin
huber
karle
karplus
kendrew
klug
kobilka
kornberg
kroto
laue
lefkowitz
levitt
lipscomb
mackinnon
michel
novoselov
pauling
perutz
ramakrishnan
roentgen
shechtman
shull
skou
smalley
steitz
sumner
thomson
walker
warshel
watson
wilkins
yonath

resources

commissions

aperiodic crystals
biological macromolecules
charge, spin and momentum densities
crystallographic computing
crystal growth and characterization of materials
crystallographic nomenclature
crystallographic teaching
crystallography in art and cultural heritage
crystallography of materials
electron crystallography
high pressure
inorganic and mineral structures
international tables
journals
magnetic structures
mathematical and theoretical crystallography
neutron scattering
nmr crystallography
powder diffraction
small-angle scattering
structural chemistry
synchrotron radiation
xafs

- Full list of Nobel winners in crystallography
- P. Agre
- C. Anfinsen
- C.G. Barkla
- P.D. Boyer
- W.H. Bragg
- W.L. Bragg
- B.N. Brockhouse
- Prince L.-V. P. R. de Broglie
- G. Charpak
- F. Crick
- R. F. Curl Jr
- C. J. Davisson
- P. Debye
- J. Deisenhofer
- A. Geim
- P.G. de Gennes
- H.A. Hauptman
- D.C. Hodgkin
- R. Huber
- J. Karle
- M. Karplus
- J.C. Kendrew
- A. Klug
- B. Kobilka
- R.D. Kornberg
- H.W. Kroto
- M.T.F. von Laue
- R. Lefkowitz
- M. Levitt
- W.N. Lipscomb
- R. MacKinnon
- H. Michel
- K. Novoselov
- L. Pauling
- M.F. Perutz
- V. Ramakrishnan
- W. C. Röntgen
- D. Shechtman
- C.G. Shull
- J.C. Skou
- R.E. Smalley
- T. A. Steitz
- J.B. Sumner
- G.P. Thomson
- J.E. Walker
- A. Warshel
- J.D. Watson
- M.H.F. Wilkins
- A. E. Yonath

*for their outstanding achievements in the development of direct methods for the determination of crystal structures*

**Herbert A. Hauptman**

*Born New York City, 14 February 1917, died 23 October 2011*

Hauptman obtained a BS degree in mathematics from the City College of New York (1937) and an MA in mathematics from Columbia University (1939). After the war he commenced a collaboration with Jerome Karle at the Naval Research Laboratory in Washington, D.C. (1947) and at the same time enrolled in the PhD program at the University of Maryland, tackling the phase problem of X-ray crystallography, his doctoral dissertation being entitled "An *N*-Dimensional Euclidean Algorithm". By 1954 he had received his PhD and he and Dr Karle had laid the foundations of the direct methods in X-ray crystallography. Their 1953 monograph, "Solution of the Phase Problem I. The Centrosymmetric Crystal", contains the main ideas, the most important of which was the introduction of probabilistic methods, in particular the joint probability distributions of several structure factors, as the essential tool for phase determination.

In 1970 he joined the crystallographic group of the Medical Foundation of Buffalo, replacing Dr Dorita Norton as Research Director in 1972. During the early years of this period he formulated the neighborhood principle and extension concept, the latter independently proposed by Giacovazzo under the term "representation theory". These ideas laid the groundwork for the probabilistic theories of the higher order structure invariants and seminvariants which were further developed during the late 1970s by Hauptman and others. During the 1980s he initiated work on the problem of combining the traditional techniques of direct methods with isomorphous replacement and anomalous dispersion in an attempt to facilitate the solution of macromolecular crystal structures. This work continues to the present time. More recently he formulated the phase problem of X-ray crystallography as a minimal principle in the attempt to strengthen the existing direct methods techniques along with colleagues Charles Weeks, George DeTitta and others.

The Hauptman-Woodward Medical Institute has published an obituary.

The information on this page is based on content at Nobelprize.org © The Nobel Foundation. Photographs provided by the ACA

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