Cardiac Morphogenesis
Cardiac Morphogenesis - Related Videos
02:50
Morphogenesis
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2026
Plant morphogenesis—the development of a plant’s form and structure—involves several overlapping developmental processes, including growth and cell differentiation. Precursor cells differentiate into specific cell types, which are organized into the tissues and organ systems that make up the functional plant. Plant growth and cell differentiation are under complex hormonal control. Plant hormones regulate gene expression, often in response to environmental stimuli. For example, many plants...
09:16
Analyzing Craniofacial Morphogenesis in Zebrafish Using 4D Confocal Microscopy
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Cited by 18 •
2014
Time-lapse confocal imaging is a powerful technique useful for characterizing embryonic development. Here, we describe the methodology and characterize craniofacial morphogenesis in wild-type, as well as pdgfra, smad5, and smo mutant embryos.
08:25
Visualization of Streptococcus pneumoniae within Cardiac Microlesions and Subsequent Cardiac Remodeling
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Cited by 11 •
2015
Streptococcus pneumoniae forms discrete non-purulent microscopic lesions in the heart. Outlined is the protocol for a murine model of cardiac microlesion formation. Instruction is provided on microlesion visualization using microscopy, discrimination between early and late microlesions, and methods to detect cardiac remodeling in hearts of convalescent animals.
15:45
Cardiac Stress Test Induced by Dobutamine and Monitored by Cardiac Catheterization in Mice
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Cited by 11 •
2013
We describe the protocol to perform a cardiac stress test induced by dobutamine and monitored by cardiac catheterization in normal mice. Also we show its application to unmask subclinical cardiac disease in high fat diet-induced obese mice.
04:40
Creation of Cardiac Tissue Exhibiting Mechanical Integration of Spheroids Using 3D Bioprinting
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Cited by 55 •
2017
This protocol describes 3D bioprinting of cardiac tissue without the use of biomaterials. 3D bioprinted cardiac patches exhibit mechanical integration of component spheroids and are highly promising in cardiac tissue regeneration and as 3D models of heart disease.
FAQs
Cardiac progenitor cells provide the cellular starting point for embryonic heart development. Their specification establishes a cardiac developmental identity, while their migration positions them for subsequent tissue organization. These coordinated events help create the cellular arrangement needed for heart tube formation and later remodeling, making progenitor behavior an important focus in studies of early cardiac development.
Gene signaling and mechanical forces guide cardiac development through complementary influences. Signaling coordinates developmental decisions and directs how tissues grow, while mechanical forces affect tissue bending, shaping, and remodeling. Considering both factors helps explain how the embryonic heart acquires organized structure rather than developing through genetic instructions or physical forces in isolation.
After the heart tube forms, it undergoes looping, chamber development, and septation. These successive changes reorganize the initially developing structure into a more mature arrangement. Studying their sequence helps developmental biologists connect early tissue movements with the eventual separation and organization required for a functional cardiac organ.
Congenital heart defects can arise when the coordinated events of cardiac development do not proceed normally. Disruptions in progenitor specification or migration, heart tube looping, chamber development, septation, signaling, or tissue remodeling may alter the developing architecture. Examining these processes provides a developmental framework for investigating how structural abnormalities originate before birth.
Experimental studies can follow the progression from cardiac progenitor specification and migration through heart tube formation, looping, chamber development, and septation. They also examine how signaling and mechanical forces influence growth and remodeling. Tracking these stages helps researchers relate cellular and tissue-level events to the formation of cardiac structure and function.
Within developmental biology, cardiac morphogenesis offers a way to investigate how a complex organ acquires coordinated structure and function. The process connects cell specification, migration, tissue growth, bending, partitioning, and maturation. This subject also links basic developmental mechanisms with explanations for congenital heart defects and broader studies of organ formation.
Models of cardiac morphogenesis provide developmental guidance for research in tissue engineering and regenerative medicine. By examining how cardiac tissues form, bend, partition, and mature, investigators can draw on natural processes of growth and remodeling. Such models may also inform efforts to develop therapies addressing abnormal heart development, while connecting developmental knowledge with applied cardiac research.
Research on cardiac morphogenesis can clarify how cardiac structure and function arise and how errors in development produce congenital heart defects. Its experimental models additionally support investigation of tissue engineering, regenerative medicine, and therapies for abnormal heart development. Together, these outcomes make the topic relevant to both fundamental developmental science and translational cardiac research.