Reducing carbon dioxide (CO 2) emissions has been a hot research topic in recent years.
The integration of microalgae cultivation using CO 2 from power plants and factories has …

Microalgal photosynthesis is responsible for nearly half of the CO 2 annually captured by
Earth's ecosystems. In aquatic environments where the CO 2 availability is low, the CO 2 …

Many photosynthetic species have evolved CO2-concentrating mechanisms (CCMs) to
improve the efficiency of CO2 assimilation by Rubisco and reduce the negative impacts of …

The intracellular accumulation of inorganic carbon (Ci) by microalgae and cyanobacteria
under ambient atmospheric CO2 levels was first documented in the 80s of the 20th Century …

Microalgae have drawn much attention for their potential applications as a sustainable
source for developing bioactive compounds, functional foods, feeds, and biofuels. Diatoms …

Chlamydomonas reinhardtii can grow photosynthetically using CO2 or in the dark using
acetate as the carbon source. In the light in air, the CO2 concentrating mechanism (CCM) of …

Carbonic anhydrase (CA), an enzyme conserved across species, is pivotal in the
interconversion of inorganic carbon (Ci; CO2, and HCO3−). Compared to the well-studied …

In response to high CO2 environmental variability, green algae, such as Chlamydomonas
reinhardtii, have evolved multiple physiological states dictated by external CO2 …

Pyrenoids are the key component of one of the most abundant biological CO 2 concentration
mechanisms found in nature. Pyrenoid-based CO 2-concentrating mechanisms (pCCMs) …

The acquisition of dissolved inorganic carbon by aquatic primary producers became
increasingly challenging with higher structural complexity of algae, and with simultaneously …