4.7 Review

Myocardial slices come to age: an intermediate complexity in vitro cardiacmodel for translational research

期刊

CARDIOVASCULAR RESEARCH
卷 116, 期 7, 页码 1275-1287

出版社

OXFORD UNIV PRESS
DOI: 10.1093/cvr/cvz341

关键词

Myocardial slices; Translational research; In vitro heart models; Culture; Mechanical load

资金

  1. British Heart Foundation [FS/18/37/33642]

向作者/读者索取更多资源

Although past decades have witnessed significant reductions in mortality of heart failure together with advances in our understanding of its cellular, molecular, and whole-heart features, a lot of basic cardiac research still fails to translate into clinical practice. In this review we examine myocardial slices, a novel model in the translational arena. Myocardial slices are living ultra-thin sections of heart tissue. Slices maintain the myocardium's native function (contractility, electrophysiology) and structure (multicellularity, extracellular matrix) and can be prepared from animal and human tissue. The discussion begins with the history and current advances in the model, the different interlaboratory methods of preparation and their potential impact on results. We then contextualize slices' advantages and limitations by comparing it with other cardiac models. Recently, sophisticated methods have enabled slices to be cultured chronically in vitro while preserving the functional and structural phenotype. This is more timely now than ever where chronic physiologically relevant in vitro platforms for assessment of therapeutic strategies are urgently needed. We interrogate the technological developments that have permitted this, their limitations, and future directions. Finally, we look into the general obstacles faced by the translational field, and how implementation of research systems utilizing slices could help in resolving these.

作者

我是这篇论文的作者
点击您的名字以认领此论文并将其添加到您的个人资料中。

评论

主要评分

4.7
评分不足

次要评分

新颖性
-
重要性
-
科学严谨性
-
评价这篇论文

推荐

Article Cardiac & Cardiovascular Systems

Living myocardial slices: a novel multicellular model for cardiac translational research

Filippo Perbellini, Thomas Thum

EUROPEAN HEART JOURNAL (2020)

Article Cardiac & Cardiovascular Systems

Comparison of warfarin versus DOACs in patients with concomitant indication for oral anticoagulation undergoing TAVI; results from the ATLAS registry

Konstantinos Kalogeras, Richard J. Jabbour, Neil Ruparelia, Samuel Watson, Tito Kabir, Toru Naganuma, Manolis Vavuranakis, Sunao Nakamura, Iqbal S. Malik, Ghada Mikhail, Miles Dalby, Vasileios Panoulas

JOURNAL OF THROMBOSIS AND THROMBOLYSIS (2020)

Review Cardiac & Cardiovascular Systems

Non-coding RNAs: emerging players in cardiomyocyte proliferation and cardiac regeneration

Naisam Abbas, Filippo Perbellini, Thomas Thum

BASIC RESEARCH IN CARDIOLOGY (2020)

Article Biochemistry & Molecular Biology

Integrative Bioinformatic Analyses of Global Transcriptome Data Decipher Novel Molecular Insights into Cardiac Anti-Fibrotic Therapies

Maximilian Fuchs, Fabian Philipp Kreutzer, Lorenz A. Kapsner, Saskia Mitzka, Annette Just, Filippo Perbellini, Cesare M. Terracciano, Ke Xiao, Robert Geffers, Christian Bogdan, Hans-Ulrich Prokosch, Jan Fiedler, Thomas Thum, Meik Kunz

INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES (2020)

Review Cardiac & Cardiovascular Systems

A practical guide for investigating cardiac physiology using living myocardial slices

S. A. Watson, A. Dendorfer, T. Thum, F. Perbellini

BASIC RESEARCH IN CARDIOLOGY (2020)

Review Cardiac & Cardiovascular Systems

Resident cardiac macrophages: crucial modulators of cardiac (patho)physiology

M. Sansonetti, F. J. G. Waleczek, M. Jung, T. Thum, F. Perbellini

BASIC RESEARCH IN CARDIOLOGY (2020)

Article Cardiac & Cardiovascular Systems

Remodelling of adult cardiac tissue subjected to physiological and pathological mechanical load in vitro

Fotios G. Pitoulis, Raquel Nunez-Toldra, Ke Xiao, Worrapong Kit-Anan, Saskia Mitzka, Richard J. Jabbour, Sian E. Harding, Filippo Perbellini, Thomas Thum, Pieter P. de Tombe, Cesare M. Terracciano

Summary: We developed a novel methodology to study chronic load in vitro by using a bioreactor that can recreate the electromechanical events of in vivo pressure-volume loops. Rat living myocardial slices (LMS) were cultured for 3 days with the bioreactor to simulate physiological load, pressure-overload, or volume-overload. The results showed that both pressure- and volume-overloaded LMS exhibited decreased contractility, with volume-overload showing more pronounced effects. Cardiomyocyte hypertrophy and dysregulation of signaling pathways were also observed.

CARDIOVASCULAR RESEARCH (2022)

Article Urology & Nephrology

Nephro-Zebra: acute kidney injury secondary to rhabdomyolysis-a rare and reversible cause

Samuel A. Watson, Kerry-Lee Rosenberg, Kate Bramham, Helen Alston

JOURNAL OF NEPHROLOGY (2022)

Article Physiology

MyoLoop: Design, development and validation of a standalone bioreactor for pathophysiological electromechanical in vitro cardiac studies

Fotios G. Pitoulis, Jacob J. Smith, Blanca Pamias-Lopez, Pieter P. de Tombe, Danika Hayman, Cesare M. Terracciano

Summary: The central question of this study is whether cardiac tissues can be cultured under conditions that do not simulate the mechanical load the heart is exposed to in vivo. The main finding is the development of a culture bioreactor called MyoLoop that can keep living heart tissue alive in vitro under continuous electromechanical stimulation. MyoLoop can simulate the cardiac cycle on a beating slice during culture, recreating the in vivo workload of the heart in vitro. MyoLoop is a novel translational platform for cardiac studies.

EXPERIMENTAL PHYSIOLOGY (2023)

Article Multidisciplinary Sciences

Label-free quantitative SWATH-MS proteomic analysis of adult myocardial slices in vitro after biomimetic electromechanical stimulation

M. A. Zabielska-Kaczorowska, A. E. Bogucka, K. Macur, P. Czaplewska, S. A. Watson, F. Perbellini, C. M. Terracciano, R. T. Smolenski

Summary: In this study, a special in vitro model using ultrathin cardiac slices was used to investigate the proteomic changes in response to electromechanical stimulation. The findings revealed significant alterations related to mitochondrial respiration, energy metabolism, and muscle contraction in stretched slices and fresh myocardial slices cultured without electromechanical stimulation.

SCIENTIFIC REPORTS (2022)

暂无数据