Zaidel-Bar Group

What are Contractile Fibers?

What are Contractile Fibers? Certain myosin isoforms (i.e. myosin II) form bipolar assemblies via the extended coiled-coil domains in the heavy chains (see also “thick filaments”). Actin “thin filaments” with opposite polarity associate with [...]

By Management|Nov 30th, 2023|Categories: Cytoskeleton Dynamics, MBInfo|Comments Off on What are Contractile Fibers?

How is actomoysin contractility regulated?

How does the contractome protein network regulate actomyosin contractility? Non-muscle myosin II isoforms have a similar structure and function to their muscle equivalents. However, their interaction with actin serves to generate cellular forces rather [...]

By Management|Nov 30th, 2023|Categories: Cytoskeleton Dynamics, MBInfo|Comments Off on How is actomoysin contractility regulated?

What are Blebs?

What are Blebs? Blebs are blister-like protrusions that occur at the cell surface (reviewed in [1]). Blebs form, and function, in a series of defined steps. They typically grow to a length of around [...]

By Management|Nov 30th, 2023|Categories: Cytoskeleton Dynamics, MBInfo|Comments Off on What are Blebs?

What is Actomyosin?

What is Actomyosin? Actomyosin refers to the actin-myosin complex that forms within the cytoskeleton. Actomyosin is inherently contractile, with the myosin motor protein able to pull on actin filaments. This property gives rise to [...]

By Management|Nov 30th, 2023|Categories: Cytoskeleton Dynamics, MBInfo|Comments Off on What is Actomyosin?

What are lamellipodia and lamella?

What are lamellipodia and lamella? The lamellipodia and lamella are plate-like extensions of the cell that play crucial roles in both cell motility and migration, and mechanosensing. These structures form and function over distinct [...]

By Management|Nov 30th, 2023|Categories: Cytoskeleton Dynamics, MBInfo|Comments Off on What are lamellipodia and lamella?

How do filopodia move dynamically?

What causes filopodia retraction and collapse? Binding of filopodia to certain ligands or substratum may hinder filament assembly, thereby leading to changes that promote retraction, collapse or growth cone turning [1][2]. For example, substrate [...]

By Management|Nov 30th, 2023|Categories: Cytoskeleton Dynamics, MBInfo|Comments Off on How do filopodia move dynamically?

Ding Wei Yung

Alumni

Principal Investigator

Ronen Zaidel-Bar

Research Interests

Cell-Matrix and Cell-Cell Mechanotransduction, Molecular Mechanisms of Mechanobiology

Wei Yung’s interest lies in understanding the sophistication of cells as robust machines. Using C. elegans, a 1mm nematode, as a model system, he investigates the cellular machinery underlying newly fertilized zygotes that drives critical force-dependent processes such as polarization and cytokinesis.

Biography

Wei Yung completed his Bachelor’s degree in Bioengineering (Second Class Upper) from the National University of Singapore in 2012. In his honors dissertation under the co-supervision of Professor James Goh and Professor Wong Hee Kit, he optimized the conditions required for the construction of interbody spinal fusion device using primary adipose stem cells seeded in a biodegradable polycaprolactone/tricalcium sulphate (PCL/TCP) scaffold. The work was presented in the Bioengineering Showcase 2012 and he was awarded the Best Poster Award. After he was enrolled in the Mechanobiology Graduate Program, he joined Dr. Zaidel-Bar’s Cell Adhesion and Morphogenesis Lab and is currently searching for novel genes involved in regulating C. elegans early embryogenesis.

By Management|2019-01-09T13:14:35+08:00Jan 1st, 2013|Categories: Alumni|Comments Off on Ding Wei Yung

About the National University of Singapore

About NUSA leading global university centred in Asia, NUS is Singapore's flagship university, offering a global approach to education and research with a focus on Asian perspectives and expertise.

About the Mechanobiology Institute, National University of Singapore

About MBIOne of four Research Centres of Excellence at NUS, MBI is working to identify, measure and describe how the forces for motility and morphogenesis are expressed at the molecular, cellular and tissue level.
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