Today we are seeing climate change in action, increased concentrations of atmospheric greenhouse gases have led to a rise in sea levels, temperatures, and extreme weather patterns. Researchers have acknowledged the pivotal role microorganisms in producing sustainable biofuels, increasing carbon sequestration via soil microbes and reducing methane emissions in landfill sites. Microbial innovation will be vital in moving towards a low carbon economy.
Most coral reefs will soon stop growing and may begin to erode – and almost all will do so if global warming hits 2°C, according to a new study in the western Atlantic.
Read storyA new study suggests the Earth’s own tropical soils may contribute to climate change as global warming continues, releasing vast amounts of carbon dioxide (CO₂) as they warm and potentially accelerating a dangerous feedback loop.
A study examining the effects of higher temperatures on soil shows that warming alone does not increase levels of carbon dioxide emitted from the soil. Instead, higher temperatures combined with more added carbon led to higher carbon dioxide levels released from the soil.
The team behind a new world-leading conservation committee headed by Applied Microbiology International (AMI) is calling on global scientific and conservation communities to get on board to protect microbial life.
James Hutton Limited, the commercial wing of The James Hutton Institute, has been awarded £38,881 from the Scottish Government to progress a clima-tech and agri-tech innovation campus at its Invergowrie site.
By integrating electricity-generating microbes into cement, researchers have created a living supercapacitor that can store electricity and regenerate its capacity. The technology could pave the way for energy-autonomous buildings and infrastructure.
Researchers created a living material that encourages coral larvae to attach and settle down. Bacterial Reef Ink (BRINK) is a photopolymerized hydrogel hosting two native Hawaiian settlement-inducing bacterial strains.
Projections suggest future warming could raise dengue incidence by 49%–76%, depending on emissions scenarios, if other factors remain constant. Cooler areas are expected to see the biggest increases, while hotter locations may experience slight declines.
A new study finds that Prochlorococcus prefers ocean water between 66 and 86 degrees and doesn’t tolerate water much warmer. Climate models predict that subtropical and tropical ocean temperatures will exceed that threshold in the next 75 years.
By studying how six months of elevated ocean temperatures would affect a species of coral from the northern Red Sea, scientists found that although these organisms can certainly survive in conditions that mimic future warming trends, they don’t thrive.
A groundbreaking study reveals that desert soils can emit powerful greenhouse gases within minutes of being wetted—even in the absence of microbial life. It challenges long-standing assumptions that soil microbes are solely responsible for post-rain “pulse emissions” of gases like carbon dioxide (CO₂), nitrous oxide (N₂O), and nitric oxide (NO).
The PET-alternative PDCA is biodegradable and has superior physical properties. A team of bioengineers has engineered E. coli bacteria to produce the compound from glucose at unprecedented levels and without byproducts — and opened up a realm of possibilities for the future of bioengineering.
In collaboration with other Bioenergy Research Centers (BRCs), researchers at the Center for Advanced Bioenergy and Bioproducts Innovation (CABBI) are developing industrially feasible techniques for second-generation biofuel production from oilcane, an oil-rich variety of sugarcane, to help meet our growing societal demand for fuels.
New research demonstrates how corals that naturally thrive in extreme environments could be used in restoration efforts to protect vulnerable reef systems.
A new study shows that Pseudomonas putida, a common soil bacterium, completely reorganizes its metabolism to thrive on complex carbons from lignin. By slowing down some metabolic pathways while accelerating others, the bacterium manages to extract energy from lignin without exhausting itself.
14,000 years ago, algal blooms in the Southern Ocean helped to massively reduce the global carbon dioxide content of the atmosphere – as has now been revealed by new analyses of ancient DNA. Declines in sea ice pose a serious threat to these algae.
In our first episode, Professor Raquel Peixoto joins Professor Jack Gilbert for a deep dive into coral reefs, microbes, and the future of our planet.
A fascinating conversation between Applied Microbiology International President Professor Jack Gilbert and Professor Raquel Peixoto examines how understanding and leveraging coral microbiomes is leading to innovative probiotic solutions to boost coral resilience.
An international team of scientists has discovered a new microbial metabolism: so-called MISO bacteria “breathe” iron minerals by oxidizing toxic sulfide. The previously unknown biological process sees versatile microbes remove toxic sulfide and use it for their growth.
Researchers have developed a new method to identify the molecular tools that different species use to decompose dead plant material. Their analysis of over 18,000 species found that some invertebrates also evidently have a whole range of such tools at their disposal.
Discover how Bacillus subtilis strain MP1 accelerates silicate weathering in agricultural soils, locking away 7.3 tonnes of CO2 per hectare annually through standard agricultural practices.
Welsh scientists have mapped the hidden microbes thriving in south Wales’s abandoned coal mines, helping to overcome obstacles to using mine water to heat Britain’s homes.
Researchers report that the cyanobacterium UCYN-B drives high N2 fixation rates in previously unrecognized hotspots accross the global ocean, making a significant contribution to the ocean’s nitrogen supply and productivity.