Abstract

Radiation damage and cryogenic sample environment are an experimental limitation observed in the traditional X-ray crystallography technique. However, the serial crystallography (SX) technique not only helps to determine structures at room temperature with minimal radiation damage, but it is also a useful tool for profound understanding of macromolecules. Moreover, it is a new tool for time-resolved studies. Over the past 10 years, various sample delivery techniques and data collection strategies have been developed in the SX field. It also has a wide range of applications in instruments ranging from the X-ray free electron laser (XFEL) facility to synchrotrons. The importance of the various approaches in terms of the experimental techniques and a brief review of the research carried out in the field of SX has been highlighted in this editorial.

Highlights

  • Radiation damage and cryogenic sample environment are an experimental limitation observed in the traditional X-ray crystallography technique

  • Cryocrystallographic methods have been widely used during diffraction data collection in studies related to macromolecule crystallography [15,16]

  • Cryogenic data collection reduces the rate of radiation damage and extends the life of the crystal when exposed to X-rays [17]

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Summary

Introduction

Radiation damage and cryogenic sample environment are an experimental limitation observed in the traditional X-ray crystallography technique. Data collection process using the conventional X-ray crystallography technique with a single crystal has technical limitations, such as radiation damage and maintenance of a cryogenic environment [6]. X-ray diffraction data collection performed at room temperature causes K-shell photo-ionization and Auger decay of the macromolecule [7,8].

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