Superconducting hybrids offer a surprisingly effective tool to study exotic quantum states, which are extremely hard to find in nature. To do this, we utilize the macroscopic wavefunction of a superconductor, and modify its symmetry using concepts such as topology and exchange interactions, found in other materials. With a bit of creativity and cutting-edge nanofabrication, you can turn an ordinary superconductor into a wide range of exotic quantum states.  A prime example of such states is the odd-frequency spin-triplet pairing state: A class of allowed symmetries for bosonic condensates, which has never been observed to occur by itself in nature. Luckily, however, we can create and study this symmetry using carefully-designed superconductor-ferromagnet hybrid systems.​ Apart from their rich physics, the triplet correlations offer a unique opportunity to combine spintronics with the absence of decoherence and dissipation in superconductors. Recently, we developed a new type of superconducting memory element, where the data (0 and 1) is stored in the bistable spin-texture of a Josephson junction. Currently, we are exploring the rich non-equilibrium phenomena, which emerge when a condensate of spin-triplet pairs is excited through magnetic resonance at GHz frequencies.