The Snail Lady

01/09/2025

01/09/2025

All available at www.thesnaillady.com 😃

Juvenile Giant African Land Snails
Large Golden Mystery Snails
Juvenile Chestnut Mystery Snails
Juvenile Magenta Mystery Snail (last one!)
Malaysian Trumpet Snails
Ramshorn Snails (mixed colours)
Bladder Snails
Great Pond Snails

27/08/2025

27/08/2025

New to the website! Large golden mystery snails. Available at www.thesnaillady.com 😃

16/08/2025

There are two lovely adolescent giant African land snails available on the website 😊

Healthy and strong adolescent giant African land snails. They make low maintenance and fascinating pets.

15/08/2025

🐌 What if we were two albino giant African land snails sharing a cherry tomato? 🐌

10/08/2025

For one month only, as an introductory offer exclusive to Facebook users!

Apply 10% off all products with the promo code "Facebook10".

The Snail Lady ethically breeds and raises unusual, beautiful and fascinating snails that form a vital part of any ecosystem; vivariums, ponds, tropical aquariums and cold water aquariums.

10/08/2025

Amazing!

Snails move using a single muscular foot that sends traveling waves across a layer of pedal mucus.

This mucus is unusual: at low strain it acts like a soft, springy solid so the foot can “push” against it, but when the shear rises past a yield point the gel briefly liquefies and lets the foot slide forward before quickly recovering.

Because the animal is always riding on this thin gel film, the soft underside doesn’t directly rub against micro-peaks or edges on the surface.

That’s why, in ordinary crawling, a snail can cross objects that are sharp to us—such as the honed edge of a razor—without cutting itself.

Field and outreach materials from natural-history and state wildlife programs echo this effect and explicitly mention razor edges, while foundational biomechanics papers document the viscoelastic and yield-stress properties that make it possible.

This protective layer also reduces friction and provides strong adhesion, enabling snails to cling to vertical surfaces and even hang upside down.

The film is thin—measured around tens of micrometers—so the protection is not magic armor; if a snail were forced down onto a blade, if the mucus dried out, or if the edge were serrated or dirty, injury could occur.

In normal conditions, though, the gel’s combination of cushioning, lubrication, and quick self-healing keeps the foot isolated from sharp contact points while the snail glides along.

04/08/2025

A handful of baby chestnut mystery snails 😊 available on www.thesnaillady.com

04/08/2025

Lovely chunks of driftwood, perfect for nano tanks or adding detail to larger tanks. Each piece is around 8-10cm. Available on www.thesnaillady.com

04/08/2025

In the market for pond snails? These guys are happy outside all year round. Great pond snails, mixed rams horn snails and bladder snails all available on www.thesnaillady.com 😊

04/08/2025

🤩

Snail teeth, specifically those of limpets, are the strongest known biological material, surpassing spider silk and other natural substances.

Found on the radula—a tongue-like structure used to scrape food from rocks—these teeth are composed of iron-filled goethite nanofibers embedded in a chitin matrix.

This unique composition enables them to withstand extreme pressures, theoretically high enough to transform carbon into diamond, approximately 70-100 GPa.

The strength arises from the nanoscale arrangement of goethite, an iron oxyhydroxide mineral, which forms tightly packed, crystalline nanofibers.

These fibers are aligned in a way that maximizes durability and resistance to fracture, allowing limpets to scrape algae off hard surfaces like rocks without breaking.

The chitin provides flexibility, complementing the rigidity of the goethite, creating a composite material that balances toughness and hardness.

This remarkable adaptation has drawn interest for biomimetic applications, inspiring the design of ultra-strong synthetic materials for industries like aerospace and engineering.

Research, such as a 2015 study by the University of Portsmouth, highlights their potential to revolutionize material science.

The teeth’s ability to maintain integrity under extreme conditions underscores nature’s capacity to engineer extraordinary solutions, far surpassing many human-made materials in strength and resilience.