Prakash Kirti, Baddeley David, Eggeling Christian, Fiolka Reto, Heintzmann Rainer, Manley Suliana, Radenovic Aleksandra, Shroff Hari, Smith Carlas, Schermelleh Lothar
Delft Center for Systems and Control, Faculty of Mechanical, Maritime, and Materials Engineering, Technische Universiteit Delft, Delft, 2628 CN, The Netherlands.
Auckland Bioengineering Institute, University of Auckland, Auckland, 1010, New Zealand.
J Cell Sci. 2025 May 15;138(10). doi: 10.1242/jcs.263567. Epub 2025 May 27.
Super-resolution microscopy (SRM) has undeniable potential for scientific discovery, yet still presents many challenges that hinder its widespread adoption, including technical trade-offs between resolution, speed and photodamage, as well as limitations in imaging live samples and larger, more complex biological structures. Furthermore, SRM often requires specialized expertise and complex instrumentation, which can deter biologists from fully embracing the technology. In this Perspective, a follow-up to our recent Q&A article, we aim to demystify these challenges by addressing common questions and misconceptions surrounding SRM. Experts offer practical insights into how biologists can maximize the benefits of SRM while navigating issues such as photobleaching, image artifacts and the limitations of existing techniques. We also highlight recent developments in SRM that continue to push the boundaries of resolution. Our goal is to equip researchers with the crucial knowledge they need to harness the full potential of SRM.
超分辨率显微镜(SRM)在科学发现方面具有不可否认的潜力,但仍存在许多阻碍其广泛应用的挑战,包括分辨率、速度和光损伤之间的技术权衡,以及在对活样本和更大、更复杂的生物结构进行成像时的局限性。此外,SRM通常需要专业知识和复杂的仪器设备,这可能会阻碍生物学家充分采用这项技术。在这篇观点文章中,作为我们最近问答文章的后续,我们旨在通过解答围绕SRM的常见问题和误解来揭开这些挑战的神秘面纱。专家们提供了实用的见解,介绍了生物学家如何在应对诸如光漂白、图像伪影和现有技术局限性等问题的同时,最大限度地发挥SRM的优势。我们还强调了SRM的最新进展,这些进展不断突破分辨率的界限。我们的目标是为研究人员提供充分发挥SRM全部潜力所需的关键知识。