The CO 2 concentrating mechanism (CCM) represents an effective strategy for carbon
acquisition that enables microalgae to survive and proliferate when the CO 2 concentration …

Aquatic photosynthetic microorganisms account for almost 50% of the world's
photosynthesis (19). These organisms face several challenges in acquiring CO2 from the …

Legumes, unlike other plants, have the ability to establish symbiosis with nitrogen-fixing
rhizobia. It has been theorized that a unique property of legume root cortical cells enabled …

Aquatic photosynthetic organisms, such as the green alga Chlamydomonas reinhardtii,
respond to low CO 2 conditions by inducing a CO 2 concentrating mechanism (CCM) …

Non-photochemical quenching of excess excitation energy is an important photoprotective
mechanism in photosynthetic organisms. In Arabidopsis thaliana, a high quenching capacity …

Photosynthetic acclimation to CO2-limiting stress is associated with control of genetic and
physiological responses through a signal transduction pathway, followed by integrated …

Abstract A CO2-concentrating mechanism (CCM) is essential for the growth of most
eukaryotic algae under ambient (392 ppm) and very low (< 100 ppm) CO2 concentrations. In …

In nature, photosynthetic organisms are exposed to different light spectra and intensities
depending on the time of day and atmospheric and environmental conditions. When …

Chlamydomonas reinhardtii acclimates to CO2-limiting stress by inducing a set of genes for
a carbon-concentrating mechanism (CCM). This set includes the gene Cah1, which encodes …

Microalgae biotechnology holds great potential for mitigating CO 2 emissions, yet faces
challenges in commercialization due to suboptimal photosynthetic efficiency. This study …