homehome Home chatchat Notifications


Bee venom could be used to detect explosives and pesticides

A remarkable MIT research has found that by coating carbon nano-tubes with bee venom they can create incredibly faithful sensor detectors for explosives,  such as TNT, as well as at least two different types of pesticides. The find came after MIT chemists, lead by Michael Strano, coated one-atom-thick tubes of carbon with protein fragments found […]

Tibi Puiu
May 11, 2011 @ 9:45 am

share Share

Bee venom A remarkable MIT research has found that by coating carbon nano-tubes with bee venom they can create incredibly faithful sensor detectors for explosives,  such as TNT, as well as at least two different types of pesticides.

The find came after MIT chemists, lead by Michael Strano, coated one-atom-thick tubes of carbon with protein fragments found in bee venom saw that the compound reacts with explosives. Not only this, the resulting sensors are actually hypersenstive to the explosives, in terms that each sensor can detect explosives on a molecular level. Also the sensor can also detect the chemical molecules of the explosives as they break down, which could provide experts with a foot print for each explosive and a better assesement of an explosion site.

“When it wraps around a small wire, that allows it to recognize ‘nitro-aromatics’,” Strano explains, the chemical class of explosives like TNT. That wire is a carbon nanotube, a mere one atom thick.

Its applications aren’t limited to explosives either, as the researchers found that the coated nanotubes can also detect two pesticides that contain nitro-aromatic compounds. Meaning that the bee venom detector could be applied in fields from military, to airport security, to agriculture.

Strano has filed for a patent on the sensor, while the team is still working out a compression system to ensure that any molecules in the air come into contact with the tubes and are therefore detected – an indispensable system. A commercial product of this bee venom derived sensor could very much prove to be successful, if it holds up to its claims and proves to be flawlessly reliable, as it is needed in explosive detection.

Strano and his team published their work Tuesday in the Proceedings of the National Academy of Sciences.

share Share

How Hot is the Moon? A New NASA Mission is About to Find Out

Understanding how heat moves through the lunar regolith can help scientists understand how the Moon's interior formed.

America’s Favorite Christmas Cookies in 2024: A State-by-State Map

Christmas cookie preferences are anything but predictable.

The 2,500-Year-Old Gut Remedy That Science Just Rediscovered

A forgotten ancient clay called Lemnian Earth, combined with a fungus, shows powerful antibacterial effects and promotes gut health in mice.

Should we treat Mars as a space archaeology museum? This researcher believes so

Mars isn’t just a cold, barren rock. Anthropologists argue that the tracks of rovers and broken probes are archaeological treasures.

Hidden for Centuries, the World’s Largest Coral Colony Was Mistaken for a Shipwreck

This massive coral oasis offers a rare glimmer of hope.

This Supermassive Black Hole Shot Out a Jet of Energy Unlike Anything We've Seen Before

A gamma-ray flare from a black hole 6.5 billion times the Sun’s mass leaves scientists stunned.

Scientists Say Antimatter Rockets Could Get Us to the Stars Within a Lifetime — Here’s the Catch

The most explosive fuel in the universe could power humanity’s first starship.

Superflares on Sun-Like Stars Are Much More Common Than We Thought

Sun-like stars release massive quantities of radiation into space more often than previously believed.

This Wild Quasiparticle Switches Between Having Mass and Being Massless. It All Depends on the Direction It Travels

Scientists have stumbled upon the semi-Dirac fermion, first predicted 16 years ago.

New Study Suggests GPT Can Outsmart Most Exams, But It Has a Weakness

Professors should probably start changing how they evaluate students.