X-ray Crystallography
This is the most commonly used of the structural biology disciplines. Surprisingly, when proteins, DNA, RNA, or complexes of these macromolecules are forced to precipitate out of solution, sometimes the individual macromolecules orientate into an ordered repeating lattice, or crystal. The technique of X-ray crystallography relies on this ability to grow crystals of the protein (or macromolecule) of interest. This is because the ordered lattice of a crystal allows scattering of X-rays (diffraction), which the crystallographer measures and then manipulates by computer to discern the three-dimensional atomic-level structure of the protein or macromolecule.
X-Ray Crystallography Image Gallery
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SB2X-ray diffraction patterns SB18Electron density map showing zinc coordination within PINCH1. Collaborative study by the Boggon and Calderwood laboratories. Chiswell et al, PNAS 2008; 105(52):20677-82 GS1In-house x-ray diffraction data collection. Image from the Ha Lab. GS2Setting up crystallization trays with a mosquito robotic system. Image from the Ha Lab. SB2X-ray diffraction patterns SB18Electron density map showing zinc coordination within PINCH1. Collaborative study by the Boggon and Calderwood laboratories. Chiswell et al, PNAS 2008; 105(52):20677-82 GS1In-house x-ray diffraction data collection. Image from the Ha Lab. GS2Setting up crystallization trays with a mosquito robotic system. Image from the Ha Lab. SB2X-ray diffraction patterns SB18Electron density map showing zinc coordination within PINCH1. Collaborative study by the Boggon and Calderwood laboratories. Chiswell et al, PNAS 2008; 105(52):20677-82 GS1In-house x-ray diffraction data collection. Image from the Ha Lab. GS2Setting up crystallization trays with a mosquito robotic system. Image from the Ha Lab.