The Biological & Environmental Science & Engineering Division is very pleased to announce the appointment of yet another exemplary faculty - Prof. Christian Froekjaer Jensen.

Treating wastewater with solar irradiation shows promise in reducing two E. coli strains but a resilient strain persists.

The Biological & Environmental Science & Engineering Division is very pleased to announce the appointment of Prof. Simon Krattinger.

Promising electrochemical technologies for cleaning wastewater are boosted by discovery of extremophilic microbes in the Red Sea.

A method for creating nanoparticles without using solvents could lead to environmentally friendly electronics.

The world’s warmest sea is heating up faster than the global average, which could challenge the ability of the Red Sea’s organisms to cope.

A combination of morphological and molecular approaches gives researchers a first glimpse of Red Sea larval fish communities.

Microbes are dispersed widely over the oceans with islands acting as stepping-stones to help transport of land-based organisms.

Symbiotic giant bacteria enable Red Sea surgeonfish to specialize their diets.

Emerging technologies are poised to transform how we observe the Earth.

Coral ecosystems may be able to adapt rapidly to climate change through natural plastic responses.

When faced with high salinity, the tiny plant cells within coral tissue alter their metabolites to better cope with stress.

Surface wettability has little effect on atmospheric water gathering, but edge structure is crucial.

Herbal remedy plants native to Saudi Arabia are shown to have potential as treatments for cancer.

Extreme Systems Microbiology Lab and the Shaybah Producing Department initiate a pioneering ecological research project at Shaybah Wildlife Sanctuary.

Protection zones for coasts and oceans are an effective way to help marine and human communities to adapt to climate change.

Two proteins produced by a single gene interact to keep the genome in check.

Data from a global oceanographic expedition predict how rising temperatures influence increase in plankton populations.

The movement of DNA molecules seemingly explained by random motion conceals a more orderly march.

A unique investigation highlights how excess nitrogen can trigger coral bleaching in the absence of heat stress.