生物样品湿敏感纳米层析成像气候室的设计与实现。

IF 3 3区 物理与天体物理
Journal of Synchrotron Radiation Pub Date : 2025-09-01 Epub Date: 2025-08-18 DOI:10.1107/S1600577525006484
Martin Nopens, Imke Greving, Silja Flenner, Linnea Hesse, Jan Lüdtke, Michael Altgen, Gerald Koch, Johannes Beruda, Sabrina Heldner, Hannes Köhm, Sergej Kaschuro, Andrea Olbrich, Jakob Benedikt Mietner, Fabian Scheckenbach, Jördis Sieburg-Rockel, Andreas Krause
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引用次数: 0

摘要

深入了解生物标本的结构组成和生长对生物基和可持续材料系统的发展变得越来越重要。全场纳米计算机断层扫描特别适合这一目的,因为它允许在高空间分辨率下进行非破坏性3D成像。然而,大多数生物样品被水功能化,并对气候条件的任何变化做出敏感反应,特别是相对湿度,通过调整其材料水分含量。迄今为止,只有有限数量的断层扫描仪器为用户提供现场气候控制选项。然而,这些都受到相对湿度状态范围的限制,改变气候状态所需的长时间,或者光束的阻碍或衰减。在这里,第一个完全自动化的气候细胞现场现场纳米层析成像提出。它是在P05成像光束线上的纳米层析成像站设计、建造和集成的,由heron在德国的DESY存储环PETRA III运营。高度灵活和无窗的设计允许木质化植物细胞壁的湿度依赖性膨胀和收缩进行原位研究,使用相衬纳米断层扫描。这个气候室的概念可以很容易地集成到其他设置中。它工作在0-90%的相对湿度范围内,可控制在10-50℃的温度范围内。气候条件可以随时调整,远程控制箱使用湿度发生器。结果表明,所开发的装置在不同湿度的层析扫描整个过程中保持稳定的气候,并且不会阻碍样品或阻碍成像条件。在层析研究过程中,样品在气流中保持稳定,并表现出典型的细胞壁膨胀和收缩行为,这取决于平衡水分含量。这种新的气候细胞现在可供P05纳米断层扫描仪器的所有用户使用,用于调理样品,服务于广泛的科学应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Design and implementation of a climate chamber for moisture sensitive nanotomography of biological samples.

Design and implementation of a climate chamber for moisture sensitive nanotomography of biological samples.

Design and implementation of a climate chamber for moisture sensitive nanotomography of biological samples.

Design and implementation of a climate chamber for moisture sensitive nanotomography of biological samples.

Deep understanding of the structural composition and growth of biological specimens is becoming increasingly important for the development of bio-based and sustainable material systems. Full-field nano-computed tomography is particularly suitable for this purpose as it allows for non-destructive 3D imaging at high spatial resolution. However, most biological samples are functionalized by water and respond sensitively to any changes in climate conditions, specifically relative humidity, by adjusting their material moisture content. To date, only a limited number of tomography instruments offer an in situ climate control option to users. These, however, are limited either by the range of relative humidity states, the long times required to change the climate state, or obstruction or attenuation of the beam. Here, the first fully automatized climate cell for in situ full-field nanotomography is presented. It has been designed, built and integrated at the nanotomography station at the P05 imaging beamline, operated by Hereon at the DESY storage ring PETRA III, Germany. The highly flexible and windowless design allows the humidity dependent swelling and shrinking of lignified plant cell walls to be studied in situ, using phase contrast nanotomography. The concept of this climate chamber can easily be integrated into other setups. It operates in the relative humidity range of 0-90% and can be controlled in a temperature range of 10-50°C. Climate conditions can be adjusted at any time, remotely from the control hutch by using a humidity generator. Results show that the developed setup maintains a stable climate during the entire duration of a tomographic scan at different humidities and does not obstruct the sample or hinder the imaging conditions. During the tomographic investigation the sample remains stable in the flow of the air stream and shows typical cell wall swelling and shrinking behaviour depending on the equilibrium moisture content. This new climate cell is now available to all users of the P05 nanotomography instrument for conditioning samples, serving a wide range of scientific applications.

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来源期刊
Journal of Synchrotron Radiation
Journal of Synchrotron Radiation INSTRUMENTS & INSTRUMENTATIONOPTICS&-OPTICS
CiteScore
5.60
自引率
12.00%
发文量
289
审稿时长
1 months
期刊介绍: Synchrotron radiation research is rapidly expanding with many new sources of radiation being created globally. Synchrotron radiation plays a leading role in pure science and in emerging technologies. The Journal of Synchrotron Radiation provides comprehensive coverage of the entire field of synchrotron radiation and free-electron laser research including instrumentation, theory, computing and scientific applications in areas such as biology, nanoscience and materials science. Rapid publication ensures an up-to-date information resource for scientists and engineers in the field.
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