Recently, microalgal biotechnology has received increasing interests in producing valuable,
sustainable and environmentally friendly bioproducts. The development of economically …

Microalgae accumulate starch and lipid as storage metabolites under nutrient depletion,
which can be used as sustainable feedstock for biorefinery. Omics analysis coupled with …

The green alga Chlamydomonas reinhardtii is a leading unicellular model for dissecting
biological processes in photosynthetic eukaryotes. However, its usefulness has been limited …

Microalgae, as facultative aerobic organisms, convert solar energy to produce biohydrogen
under anaerobic condition. Biohydrogen is a kind of ideal clean and renewable energy …

Background: In the wake of rising energy demands, microalgae have emerged as potential
sources of sustainable and renewable carbon-neutral fuels, such as bio-hydrogen and bio …

Rapid advances in “omic” technologies are helping to unlock the full potential of microalgae
as multi-use feedstocks, with utility in an array of industrial biotechnology, biofuel, and …

Most photosynthetic organisms store and convert solar energy in an aerobic process and
produce biomass for various uses. Utilization of biomass for the production of renewable …

The green alga Chlamydomonas reinhardtii undergoes gametogenesis and mating upon
nitrogen starvation. While the steps involved in its sexual reproductive cycle have been …

Sulphur limitation may restrain cell growth and viability. In the green alga Chlamydomonas
reinhardtii, sulphur limitation may induce H2 production lasting for several days, which can …

Photosynthetic organisms developed multiple strategies for balancing light-harvesting
versus intracellular energy utilization to survive ever-changing environmental conditions …