The fabrication process with unique designs of mechanical springs enables the stiction of microstructures in a controlled manner and significantly reduces unwanted compliances on the actuators, preventing unwarranted motion and providing stable operations.
The armature is suspended by springs with a large spring rate, enabling it to move at high speed.
When two quadratic springs are coupled antagonistically, the resulting system attains a linear spring behavior enabling the adjustment of the stiffness mechanically.
The adductor muscles of bivalves (Figure 4) shorten to close the shell or relax to allow the shell to spring open, enabling the mollusk to extend its foot or to feed.
The microstage has two merits: (1) Lorentz force actuator with thermal buckling characteristic to enlarge the microstage displacement, (2) curved-beam spring to enable the 2-axis positioning.
Only one-half of the pictured CNT yarn (which is tethered to prevent torsional end displacement) is submerged in the electrolyte (so that this half provides the torsional actuation, and the second half functions as a return spring to enable highly reversible torsional and tensile actuation).
(1) Both low temperatures prior to FI and spring genotypes enable rapid Δ[Vrn1].
If we consider these results in the context of assumptions 5 11 (outlined in the Introduction), they are consistent with the notions that: (1) Both low temperatures prior to FI and spring genotypes enable rapid Δ[Vrn1].
The category includes nematodes, mites, springtails (wingless insects so called for the springing organ which enables them to leap), the insectlike proturans, which feed on fungi, and the pauropods.
In addition to damping performance due to electrogelation, this system is also compatible with standard damper adjustment mechanisms, such as spring modifications, which enables the possibility of hybrid designs.
