Microalgae, as photosynthetic microorganisms, offer a sustainable source of proteins, lipids,
carbohydrates, pigments, vitamins, and antioxidants. Leveraging their advantages, such as …

Replacement of non-renewable energy sources by renewable fuels may solve the
environmental problems associated with the climate change and energy crisis. Microalgae …

Nitrogen (N) starvation is commonly used in the microalgae industry to induce biosynthesis
of value-added products, such as astaxanthin and triacylglycerols. Microalgal adaptation to …

The oleaginous genera Nannochloropsis and Microchloropsis are recognized for their lipid
accumulation capacity. Microalgal lipid accumulation is triggered by nitrogen starvation …

The bioremediation of pharmaceutical wastewater by microalgae has gained scientific
attention due to its cost-effectiveness and environmental friendliness. However, limited …

Microalgae have gained attention due to their higher reproduction rate and lipid productivity.
In particular, various stress conditions lead to an overproduction of lipids in microalgae cells …

Microalgae and their bioproducts have diverse applications, including wastewater
remediation, CO2 fixation, and the synthesis of nutraceuticals, pharmaceuticals, and …

Microalgae-based biodiesel synthesis is currently not commercially viable due to the high
costs of culture realizations and low lipid yields. The main objective of the current study was …

Over the past decade, the focus on omega (ω)-3 fatty acids from microalgae has intensified
due to their diverse health benefits. Bioprocess optimization has notably increased ω-3 fatty …

The use of wastewater for microalgae cultivation allows the removal of contaminants through
microalgal metabolism, contributing to the reduction of production costs, which improves the …