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National University of Singapore


Breaking cell symmetry

Researchers discover that cortical tension plays a key role in clustering proteins and establishing cell polarity. This force-driven mechanism allows cells to establish polarity without wasting energy by actively transporting proteins or cellular components.

SourceNational University of Singapore·JournalNature Cell Biology·DateNov 6, 2017

NUS scientists identify optimal areas for conservation and agriculture in the tropics

The study identified the Atlantic Forest, Gulf of Guinea, and Thailand as regions where agricultural conversion provides higher benefits than environmental costs. In contrast, Latin America, insular Southeast Asia, and Madagascar are considered economically viable conservation targets due to low agricultural benefits and high environme...

SourceNational University of Singapore·JournalPLOS Biology·DateJul 26, 2017

NUS study: Safer to ride in yellow taxis

A recent study by National University of Singapore researchers found that yellow taxis have significantly fewer accidents than blue taxis due to their higher visibility. This could lead to substantial cost savings for taxi operators, with an estimated annual savings of S$2 million.

SourceNational University of Singapore·JournalProceedings of the National Academy of Sciences·DateMar 6, 2017

Illuminating the contacts

Researchers used super-resolution imaging to map the organization of cadherin-based adhesions in cells. The study revealed a multi-layered structure with compartments separated by an interface layer containing vinculin, which plays a key role in fine-tuning mechanical properties.

SourceNational University of Singapore·JournalNature Cell Biology·DateFeb 15, 2017

Stability without junctions

Researchers discovered that cadherin clusters prevent cortical deformation by acting as structural anchors in the cell membrane. This new function of non-junctional cadherin clusters regulates cortical movement and stability, allowing for essential processes like cytokinesis to occur without dramatic changes.

SourceNational University of Singapore·JournalCurrent Biology·DateDec 27, 2016

Cell extrusion mechanisms

Researchers discovered two distinct mechanisms of cell extrusion from epithelial sheets, with low-density cell crawling and lamellipodia extension being the predominant mechanism at low cell density, while purse-string contraction takes over at high densities.

SourceNational University of Singapore·JournalCurrent Biology·DateOct 31, 2016

A moving story of FHL2 and forces

Researchers from NUS have unraveled the molecular story of FHL2 and its relocation to the nucleus in response to ECM stiffness, influencing protein synthesis and cell proliferation. This study provides new insights into the regulation of cell growth in soft environments.

SourceNational University of Singapore·JournalProceedings of the National Academy of Sciences·DateOct 21, 2016

Elongation by contraction

Scientists have found that cell boundary elongation is driven by the activity of actomyosin networks in neighboring cells, not within the same cell. This discovery sheds light on the complex processes involved in tissue development and organ specialization.

SourceNational University of Singapore·JournalCurrent Biology·DateAug 22, 2016

NUS scientists discover that modifications to protein RUNX3 may promote cancer growth

Scientists at NUS Cancer Science Institute discovered that phosphorylation of the tumour suppressor gene RUNX3 promotes cancer progression by allowing cell division. The study's findings suggest a potential way to increase the effectiveness of cancer therapy by targeting Aurora Kinase, an enzyme involved in the modification.

SourceNational University of Singapore·JournalProceedings of the National Academy of Sciences·DateJul 14, 2016

Shaping lumens by force

A team of scientists from Singapore and France has revealed the underlying mechanism for the formation and growth of epithelial tubes. They found that the shape and size of these tubes are governed by mechanical forces arising from cell interaction with the extracellular matrix, influencing lumen morphology and elongation direction.

SourceNational University of Singapore·JournalNature Cell Biology·DateFeb 23, 2016

Spin dynamics in an atomically thin semi-conductor

Researchers at the National University of Singapore and Yale-NUS College have established the mechanisms for spin motion in molybdenum disulfide. This discovery resolves a research question on electron spin properties in single layers of 2D materials, paving the way for next-generation spintronics devices with lower energy consumption.

SourceNational University of Singapore·JournalPhysical Review Letters·DateFeb 1, 2016

Adhesion ABC

Cells form early adhesions from integrin clusters, a consistent size of 100 nanometres, even on soft or hard surfaces. These modular units enable cells to sense and migrate on surfaces with different rigidity, a hallmark of metastasis.

SourceNational University of Singapore·JournalDevelopmental Cell·DateJan 5, 2016

NUS study shows the causes of mangrove deforestation in Southeast Asia

A recent NUS study examines the factors leading to mangrove deforestation in Southeast Asia between 2000 and 2012. The researchers found that rice agriculture in Myanmar and oil palm plantations in Malaysia and Indonesia are major drivers of this deforestation, posing future threats to the region's mangrove ecosystems.

SourceNational University of Singapore·JournalProceedings of the National Academy of Sciences·DateJan 4, 2016

Choreographing the dance of electrons

Researchers at NUS have discovered a method to manipulate electrons in thin semiconductors by encapsulating them in atomically thin materials and applying external electric and magnetic fields. This technique enables reversible control of electron behavior, paving the way for new applications in high-temperature superconductivity.

Study by NUS researchers unravels new interactions affecting TGF-β pathway in humans

Researchers at NUS Cancer Science Institute found that USP15 protein regulates the TGF-β pathway by interacting with SMURF2. This interaction enhances stability of the TGF-β receptor and leads to increased cancer progression. The study suggests USP15 as a novel therapeutic target for treating cancers with hyperactivated TGF-β pathways.

SourceNational University of Singapore·JournalScientific Reports·DateDec 20, 2015