Tarantulas are large spiders with adhesive setae on their legs, which enable them to climb on smooth vertical surfaces. The mechanism proposed to explain adhesion in tarantulas is anisotropic friction, where friction is higher when the leg pushes than when it pulls. However, previous studies and measurements of adhesion in theraphosids were performed using dead specimens. To test their ability to climb, we studied static friction of live theraphosid spiders on different surfaces and at different inclines. We compared burrower with arboreal species to test the hypothesis of higher friction in arboreal tarantulas. We found a complementary participation of claw tufts and scopula of anterior and posterior legs when the tarantula climbs. The mec...
<div><p>Ants are able to climb effortlessly on vertical and inverted smooth surfaces. When climbing,...
Wandering spiders easily climb vertically and walk upside down on smooth and rough surfaces. They sh...
Whip spiders (Amblypygi) are a small, cryptic order of arachnids mainly distributed in the tropics. ...
Dynamic attachment is the key to move on steep surfaces, with mechanisms being still not well unders...
Hairy pads relying on dry adhesion are fascinating structures that convergently evolved among spider...
Dynamic attachment is the key to moving safely and fast in a three-dimensional environment. Among li...
Dynamic adhesion is a key ability for animals to climb smooth surfaces. Spiders evolved, convergent ...
Background. The mechanics and energetics of spider locomotion have not been deeply investigated, des...
Wandering spiders climb vertically and walk upside-down on rough and smooth surfaces using a nanostr...
Many arachnids possess adhesive pads on their feet that help them climb smooth surfaces and capture ...
Adhesive organs on the legs of arthropods and vertebrates are strongly direction dependent, making c...
The adhesive mechanisms of climbing animals have become an important research topic because of their...
Ants are able to climb effortlessly on vertical and inverted smooth surfaces. When climbing, their f...
Most studies on the adhesive mechanisms of climbing animals have addressed attachment against flat s...
The morphology of the tarsal attachment system of the running spider Philodromus dispar Walckenaer 1...
<div><p>Ants are able to climb effortlessly on vertical and inverted smooth surfaces. When climbing,...
Wandering spiders easily climb vertically and walk upside down on smooth and rough surfaces. They sh...
Whip spiders (Amblypygi) are a small, cryptic order of arachnids mainly distributed in the tropics. ...
Dynamic attachment is the key to move on steep surfaces, with mechanisms being still not well unders...
Hairy pads relying on dry adhesion are fascinating structures that convergently evolved among spider...
Dynamic attachment is the key to moving safely and fast in a three-dimensional environment. Among li...
Dynamic adhesion is a key ability for animals to climb smooth surfaces. Spiders evolved, convergent ...
Background. The mechanics and energetics of spider locomotion have not been deeply investigated, des...
Wandering spiders climb vertically and walk upside-down on rough and smooth surfaces using a nanostr...
Many arachnids possess adhesive pads on their feet that help them climb smooth surfaces and capture ...
Adhesive organs on the legs of arthropods and vertebrates are strongly direction dependent, making c...
The adhesive mechanisms of climbing animals have become an important research topic because of their...
Ants are able to climb effortlessly on vertical and inverted smooth surfaces. When climbing, their f...
Most studies on the adhesive mechanisms of climbing animals have addressed attachment against flat s...
The morphology of the tarsal attachment system of the running spider Philodromus dispar Walckenaer 1...
<div><p>Ants are able to climb effortlessly on vertical and inverted smooth surfaces. When climbing,...
Wandering spiders easily climb vertically and walk upside down on smooth and rough surfaces. They sh...
Whip spiders (Amblypygi) are a small, cryptic order of arachnids mainly distributed in the tropics. ...