Structural and functional imaging of the heart is at the core of many basic, translational, and clinical studies. Cutting-edge developments in imaging systems, sample preparation techniques, and data analysis tools are key for understanding the heart and how it functions over scales, both spatial and temporal. Recent advancements in tissue processing and labelling enable high-resolution scans of large sample volumes and the tracking of cell identities, be they types or molecular profiles. This has given rise to an increasing awareness of what makes up our hearts, and the roles of various cell populations within. Furthermore, optogenetic approaches combined with developments in functional imaging techniques enable identification of the nature of interactions between various cells in the heart. Additionally, developments in imaging technologies are improving spatiotemporal resolution and increasing penetration depths in both the pre-clinical and clinical settings, giving a deeper understanding of the 4D nature of cardiac function than previously possible. Finally, data analysis tools, including machine learning approaches, are enabling high-throughput assessments of population dynamics and aiding in clinical decision making.
This methods collection is aimed at all researchers interested in preclinical and clinical imaging of cardiac structure and function. The protocols within the collection will focus on emerging approaches, tools, and techniques for looking at cardiac tissue, including sample preparation, imaging, and data analysis. This collection will encompass scales from the ultrastructural level to that of the whole organism and, by doing so, will enable researchers to better identify mechanisms, alterations, and implications in both health and disease.
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Cited by 7
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2022
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Néstor Pallares-Lupon1,2, Jason D. Bayer1,2, Bastien Guillot1,2, Guido Caluori1,2, Girish S. Ramlugun1,2, Kanchan Kulkarni1,2, Virginie Loyer1,2, Stephane Bloquet1,2, Dounia El Hamrani1,2, Jérôme Naulin1,2, Marion Constantin1,2, Pierre Dos Santos1,2,3, Olivier Bernus1,2, Pierre Jaïs1,2,3, Philippe Pasdois1,2, Richard D. Walton1,2
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Cited by 6
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2021
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Francesco Giardini*1, Erica Lazzeri*1, Camilla Olianti*1, Giada Beconi1, Irene Costantini1,2, Ludovico Silvestri1,3,4, Elisabetta Cerbai1,5, Francesco S. Pavone1,3,4, Leonardo Sacconi1,3,6
1European Laboratory for Non-Linear Spectroscopy, 2Department of Biology, University of Florence, 3National Institute of Optics, National Research Council, 4Department of Physics and Astronomy, University of Florence, 5Department of Neurosciences, Psychology, Drugs and Child Health, University of Florence, 6Institute for Experimental Cardiovascular Medicine, Faculty of Medicine, University of Freiburg
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Cited by 6
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2022
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Xiaolin Sun*1,2, Yimeng Hao*1,2, Jonathan Frederik Sebastian Kiekenap1, Jasper Emeis1, Marvin Steitz2, Alexander Breitenstein-Attach2, Felix Berger1,2, Boris Schmitt1,2,3
1Department of Pediatric Cardiology and Congenital Heart Disease, Charité University Medicine Berlin, 2Department of Pediatric Cardiology and Congenital Heart Disease, Deutsches Herzzentrum Berlin, 3DZHK (German Centre for Cardiovascular Research) and BMBF (German Ministry of Education and Research)
Optical Mapping of Action Potentials on the Surface of Beating Hearts
Jan Lebert1,
Jan Christoph*1
1University of California, San Francisco