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Gel study uncovers unexpected dynamics

Research reveals alginate gel biofilms are highly dynamic and exchangeable, challenging previous assumptions about their structure. The findings may lead to new ways of modifying or disrupting these materials to combat bacterial infections in cystic fibrosis patients.

SourceUniversity of York·JournalSoft Matter·DateSep 24, 2015

MIT engineers design 'living materials'

Researchers at MIT have successfully designed and created living materials that incorporate non-living components, such as gold nanoparticles and quantum dots. These hybrid materials exhibit unique properties, including the ability to conduct electricity and emit light, making them suitable for various energy applications.

SourceMassachusetts Institute of Technology·JournalNature Materials·DateMar 23, 2014

Streams stressed by pharmaceutical pollution

A new study found that pharmaceuticals, including antihistamines, alter biofilm communities in streams, leading to reduced photosynthesis and microbial respiration. The most striking effect was observed with diphenhydramine, which caused a 99% decrease in photosynthesis and changed bacterial species present in the biofilms.

SourceCary Institute of Ecosystem Studies·JournalEcological Applications·DateApr 1, 2013

Novel materials shake ship scum

Researchers have created a material that uses physical movement to knock away bacteria, reducing drag and improving energy efficiency on ships. The innovative solution avoids toxic chemicals often found in traditional antibacterial paints.

SourceDuke University·JournalAdvanced Materials·DateJan 31, 2013

E. coli adapts to colonize plants

Researchers discovered that E. coli strains can form biofilms more readily on plant surfaces, using plant-derived sugars for survival. The findings provide insights into the evolution of E. coli populations and offer targets for preventing dangerous strains from contaminating vegetables.

SourceNorwich BioScience Institutes·JournalEnvironmental Microbiology·DateOct 30, 2012

Superbugs from space offer new source of power

Researchers at Newcastle University have engineered a microbial biofilm that significantly increases the electrical output of Microbial Fuel Cells. By selecting specific bacteria species, including Bacillus stratosphericus and Bacillus altitudinis, they doubled the electricity generation to 200 Watts per cubic meter.

SourceNewcastle University·JournalJournal of Environmental Science and Technology·DateFeb 21, 2012

Microbial hair: It's electric

Researchers have discovered that specialized bacterial filaments, known as nanowires, can conduct electricity, allowing microbial colonies to thrive. The findings suggest a new way for bacteria to transfer electrons and support each other, potentially leading to breakthroughs in biofilm resistance and sustainable energy.

SourceUniversity of Southern California·JournalProceedings of the National Academy of Sciences·DateOct 11, 2010

Microbe power as a green means to hydrogen production

Researchers at Arizona State University have developed a method for enhancing the efficiency of microbial electrochemical cells (MXCs) using specialized bacteria. By creating a mutual relationship between homo-acetogens and anode bacteria, they can improve electron flow and increase hydrogen production, reducing reliance on fossil fuels.

SourceArizona State University·JournalBioresource Technology·DateJun 1, 2010

Buckyballs could keep water systems flowing

Researchers at Duke University found that buckyballs can hinder bacterial accumulation on water membranes, leading to a potential cost savings of 50% in membrane replacements. This attribute makes buckyballs a promising anti-fouling agent for addressing one of the major problems and costs of treating water.

SourceDuke University·JournalJournal of Membrane Science·DateMar 5, 2009

Life at the jolt

A team of researchers at Arizona State University has gained critical insights into a promising microbial fuel cell (MFC) technology using bacteria to generate electricity. The MFC can handle various water-based organic fuels, making it a viable option for wastewater treatment and energy production.

SourceArizona State University·JournalBiotechnology and Bioengineering·DateJan 3, 2008

Bacteria may not hasten death

A study by University of Southern California researchers found that bacteria-free fruit flies lived as long as their bacterial counterparts, challenging conventional wisdom about the impact of microbes on lifespan. The finding suggests that factors other than bacterial load may limit life span.

SourceUniversity of Southern California·JournalCell Metabolism·DateAug 7, 2007

Reap what your ancestors sowed

A new model developed by Dr. Sam Brown recognizes the impact of durable goods on cooperation, showing that cheaters can increase without immediate consequences but ultimately face costs when others follow suit. This research has far-reaching implications for fields like ecology, economics, and medicine.

SourceUniversity of Texas at Austin·JournalPLOS ONE·DateJul 3, 2007

Brush anode and tubular cathode scale up microbial fuel cells

Researchers at Penn State have developed a new microbial fuel cell system that uses brush anodes and tubular cathodes to produce more power from wastewater. The system, which uses naturally occurring bacteria, can clean water while generating electricity, reducing the need for energy consumption.

SourcePenn State·JournalEnvironmental Science & Technology·DateMar 21, 2007