Origami structures sit at the intersection of computation and fabrication.
These mechanisms translate flat surfaces into lightweight, reconfigurable
structures that can be designed, analyzed, and manufactured using accessible
tools. We introduce a Lea...
Origami structures sit at the intersection of computation and fabrication.
These mechanisms translate flat surfaces into lightweight, reconfigurable
structures that can be designed, analyzed, and manufactured using accessible
tools. We introduce a Leaf-like origami robot that combines locomotion and
adaptive grasping in a single module, thanks to independent unit-cell
actuation. First, we design a Leaf-like crease architecture to maximize
performance, while respecting fabrication constraints. A rigid-origami
simulation framework is then developed to send spatiotemporal actuation
signals to generate gait and rapid shape-conforming grasping. To validate this
model, we quantify panel deformation to confirm the applicability of the
rigid-foldability hypothesis. Finally, we realize a centimeter-scale prototype
that demonstrates repeatable controllable locomotion and on-demand
grasping. Independent cell control enables nonuniform closures that adapt to
the shape of the object, improving capture reliability. This work advances a
cross-disciplinary pathway for foldable robots for efficient motion and
grasping within a single module.