  Non-conventional resonances, both acoustic and photonic, are found in
metallic particles with a toroidal nanopropeller geometry that is generated by
sweeping a three-lobed 2D-shape along a spiral with twisting angle, ${\alpha}$.
For both optical and acoustic cases, spectral location of resonances
experiences a red-shift as a function of ${\alpha}$. We demonstrate that the
optical case can be understood as a natural evolution of resonances as the
spiral length of the toroidal nanopropeller increases with ${\alpha}$, implying
a huge helicity dependent absorption cross section. In the case of acoustic
response, two red-shifting breathing modes are identified. Additionally, even
small ${\alpha}$ allows the appearance of new low-frequency resonances, whose
spectral dispersion depends on a competition between length of the generative
spiral and the pitch of the toroidal nanopropeller.
