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Why cryptophyte algae are really good at harvesting light

Cryptophyte algae have been found to harness light energy at an unprecedented rate, thanks to the ability of molecular vibrations to enhance photon absorption. This discovery has potential applications in developing more efficient light-harvesting technologies, such as sensors and communication systems.

SourceCell Press·JournalChem·DateDec 8, 2016

Tapping the unused potential of photosynthesis

Researchers at the University of Southampton have developed a new method to harness the unused potential of photosynthesis by introducing an additional enzyme that captures more light energy. This innovation enables the efficient bioremediation of polluted wastewater areas, as shown in their study published in ACS Synthetic Biology.

SourceUniversity of Southampton·JournalACS Synthetic Biology·DateSep 7, 2016

Lake Tanganyika fisheries declining from global warming

A new report by an international team led by a University of Arizona geoscientist shows that Lake Tanganyika's fishery productivity has been declining since the 19th century due to global warming. The lake's algae, which serves as a food source for fish, has also decreased in abundance.

SourceUniversity of Arizona·JournalProceedings of the National Academy of Sciences·DateAug 8, 2016

Novel 'repair system' discovered in algae may yield new tools for biotechnology

Researchers have discovered a novel repair system in algae that can cut out interrupting sequences from proteins, potentially leading to new biotechnological applications such as producing pharmaceuticals or protein products. The study found that chloroplast extracts and light can restore RNA-cutting activity to inactive proteins.

SourceBoyce Thompson Institute·JournalJournal of Biological Chemistry·DateJul 29, 2016

Algorithm ranks thermotolerance of algae

The algorithm combines all published algae studies prior to February 2015 to rank genetic types' thermotolerance, helping identify colonies at risk from climate change. By pinpointing thermotolerant algae, conservationists can focus their efforts on preserving coral reefs.

SourceNorthwestern University·JournalFunctional Ecology·DateJun 13, 2016

Algae disrupt coral reefs' recycling

A new study finds that excessive algae growth in coral reefs causes microbes to dominate the food chain, depleting oxygen and releasing harmful pathogens. This leads to a runaway feedback loop, further coral death and ecosystem collapse. The research highlights the impact of human activities on coral reef ecosystems.

SourceSan Diego State University·JournalNature Microbiology·DateApr 25, 2016

Marine virus outbreaks linked to coral bleaching

A study by Rice University and Oregon State University found that significant marine virus outbreaks may be associated with coral bleaching events, especially due to multiple environmental stresses. Viral groups, including a herpes-like virus, were detected in corals undergoing bleaching on the Great Barrier Reef.

SourceRice University·JournalFrontiers in Microbiology·DateFeb 17, 2016

Four new algae species discovered in Hawaii's deep waters

Scientists have discovered four new species of deep-water algae from Hawaii, which are similar in appearance to limu palahalaha and hold great cultural significance for Native Hawaiians. The newly discovered species were collected between 200-400 feet deep and are believed to redefine our understanding of algal distributions in Hawaii.

SourceNOAA Headquarters·JournalJournal of Phycology·DateFeb 2, 2016

A far from perfect host

Researchers at the University of York and Exeter have discovered a single-celled protozoa called Paramecium bursaria benefits from exploiting a green algae inside it. The study suggests that symbiosis may not be mutually beneficial, but rather exploitative in nature.

SourceUniversity of York·JournalCurrent Biology·DateJan 4, 2016

Algae could be a new green power source

Concordia University researchers have created a technology to harness the electrical energy from plants using blue-green algae. The invention utilizes electron transfer chains in photosynthesis and respiration to produce electricity. This scalable technology could lead to cheaper ways of generating carbon-free energy.

SourceConcordia University·JournalTECHNOLOGY·DateNov 24, 2015

A more acidic ocean will bend the mermaid's wineglass

Scientists studied how a more acidic ocean affects the protective shell of the mermaid's wineglass algae. They found that in high carbon dioxide conditions, skeletons contained 32% less calcium carbonate and were 40% less stiff and droopier. This could make them more susceptible to damage from ocean currents and grazing by marine animals.

SourceUniversity of Washington·JournalBiology Letters·DateSep 14, 2015

Keeping algae from stressing out

Researchers identify two transcription factors that regulate lipid accumulation in stressed algae, enabling sustainable fuels production. The study also demonstrates a strategy for overexpressing PSR1 to trick cells into producing lipids without dying.

SourceDOE/Joint Genome Institute·JournalNature Plants·DateAug 4, 2015

Hitchhiking to Caribbean coral

A recent PNAS study reports that the stress-tolerant alga Symbiodinium trenchii is not native to the Caribbean but was introduced from the Pacific Ocean. This finding raises concerns about the long-term damage it could cause on coral reefs, which cover only a small percentage of the world's oceans.

SourceUniversity of Delaware·JournalProceedings of the National Academy of Sciences·DateJun 1, 2015