Z. Korszun (1987)
The tertiary structure of azurin from Pseudomonas denitrificans as determined by Cu resonant diffraction using synchrotron radiation.Journal of molecular biology, 196 2
S. Sheriff, W. Hendrickson (1987)
Location of iron and sulfur atoms in myohemerythrin from anomalous‐scattering measurementsActa Crystallographica Section B-structural Science, 43
S. Harada, M. Yasui, K. Murakawa, N. Kasai, Y. Satow (1986)
Crystal Structure Analysis of Cytochrome c' by the Multiwavelength Anomalous Diffraction Method Using Synchrotron RadiationJournal of Applied Crystallography, 19
A. Herzenberg, H. Lau (1967)
Anomalous scattering and the phase problemActa Crystallographica, 22
C. Cork, R. Hamlin, W. Vernon, N. Xuong (1975)
A xenon-filled multiwire arc detector for X-ray diffractionActa Crystallographica Section A, 31
P. Argos, F. Matthews (1973)
Uses of native anomalous scatterer in a protein structure determinationActa Crystallographica Section B Structural Crystallography and Crystal Chemistry, 29
(1986)
Structure of d-selenolanthionine determined directly from multiwavelength anomalous diffraction of brems-strahlung
J. Karle (1967)
Anomalous scatterers in X-ray diffraction and the use of several wavelengths.Applied optics, 6 12
D. Cromer (1983)
Calculation of anomalous scattering factors at arbitrary wavelengthsJournal of Applied Crystallography, 16
M. Rossmann (1961)
The position of anomalous scatterers in protein crystalsActa Crystallographica, 14
Y. Okaya, R. Pepinsky (1956)
New Formulation and Solution of the Phase Problem in X-Ray Analysis of Noncentric Crystals Containing Anomalous ScatterersPhysical Review, 103
(1982)
Resolved-anomalous phase determination in macromolecular crystallography. In: “Computational Crystallography.” (D. Sayre, ed
(1975)
The determination of phases of erythrocruorin using the two-wavelength method with iron as anomalous scatterer
S. Raman (1959)
Theory of the anomalous dispersion method of determining the structure and absolute configuration of non-centrosymmetric crystalsProceedings of the Indian Academy of Sciences - Section A, 50
D. Cromer, D. Liberman (1970)
Relativistic Calculation of Anomalous Scattering Factors for X RaysJournal of Chemical Physics, 53
(1985)
Analysis of protein structure from diffraction measurement at multiple wavelengths
Janet Smith, A. Pahler, W. Hendrickson (1987)
Multiple-wavelength phase determination in protein crystallographyActa Crystallographica Section A, 43
W. Hendrickson (1984)
Measurement and use of anomalous X-ray scatteringActa Crystallographica Section A, 40
M. Sahasrabudhe, S. Prema, K. Madyastha, M. GOLLERKERI, S. Rao (1971)
Development of a Specific Anti-leukaemic Serum for the Treatment of Leukaemia in ClinicsNature, 232
W. Hendrickson, M. Teeter (1981)
Structure of the hydrophobic protein crambin determined directly from the anomalous scattering of sulphurNature, 290
C. Mitchell (1957)
Phase determination by the two‐wavelength method of Okaya & PepinskyActa Crystallographica, 10
W. Hoppe, V. Jakubowski (1975)
Anomalous Scattering
W. Hendrickson, W. Love, J. Karle (1973)
Crystal structure analysis of sea lamprey hemoglobin at 2 Å resolutionJournal of Molecular Biology, 74
W. Hendrickson, W. Love, G. Murray (1968)
Crystal forms of lamprey hemoglobin and crystalline transitions between ligand states.Journal of molecular biology, 33 3
S. Ramaseshan, K. Venkatesan, N. Mani (1957)
The use of anomalous scattering for the determination of crystal structures-KMnO4Proceedings of the Indian Academy of Sciences - Section A, 46
W. Hendrickson, W. Love (1971)
Structure of lamprey haemoglobin.Nature: New biology, 232 33
R. James (1948)
The Optical principles of the diffraction of X-rays
R. Phizackerley, C. Cork, E. Merritt (1986)
An area detector data acquisition system for protein crystallography using multiple-energy anomalous dispersion techniquesNuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment, 246
R. Kahn, R. Fourme, R. Bosshard, M. Chiadmi, J. Risler, O. Dideberg, J. Wery (1985)
Crystal structure study of Opsanus tau parvalbumin by multiwavelength anomalous diffractionFEBS Letters, 179
R. Honzatko, W. Hendrickson, W. Love (1985)
Refinement of a molecular model for lamprey hemoglobin from Petromyzon marinus.Journal of molecular biology, 184 1
N. Xuong, S. Freer, R. Hamlin, C. Nielsen, W. Vernon (1978)
The electron stationary picture method for high-speed measurement of reflection intensities from crystals with large unit cellsActa Crystallographica Section A, 34
R. Narayan, S. Ramaseshan (1981)
Optimum choice of wavelengths in the anomalous scattering technique with synchrotron radiationActa Crystallographica Section A, 37
R. Phizackerley, C. Cork, R. Hamlin, C. Nielsen, W. Vernon, N. Xuong, V. Perez-mendez (1980)
Progress report on the development of an area detector data acquisition system for X-ray crystallography and other X-ray diffraction experiments☆Nuclear Instruments and Methods, 172
L. Bouscasse, R. Phan-tan-luu, E. Vincent, E. Metzger (1973)
Technique d'optimisation de l'energie SCF en fonction des exposants de slaterInternational Journal of Quantum Chemistry, 7
L. Templeton, D. Templeton, R. Phizackerley, K. Hodgson (1982)
L3-edge anomalous scattering by gadolinium and samarium measured at high resolution with synchrotron radiationActa Crystallographica Section A, 38
J. Phillips, K. Hodgson (1980)
The use of anomalous scattering effects to phase diffraction patterns from macromoleculesActa Crystallographica Section A, 36
The molecular structure of lamprey hemoglobin was previously determined and refined by conventional crystallographic analysis. In this study, the structural analysis has been repeated in the course of developing the method of multiwavelength anomalous diffraction (MAD) for phase determination. New experimental and analytical procedures that were devised to perform this determination should have general applicability. These include an experimental design to optimize signal strength and reduce systematic errors, experimental evaluation of anomalous scattering factors, and a least‐squares procedure for analyzing the MAD data. MAD phases for the structure at 3Å resolution are as accurate overall as the multiple isomorphous replacement (MIR) phases determined previously.
Proteins: Structure Function and Bioinformatics – Wiley
Published: Jan 1, 1988
Keywords: ; ; ;
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