Room-Temperature Micro-SMES via Acoustically Stabilized YHf2H24 Multilayer Stacks: A Solid-State Infinite Storage Solution
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The era of chemical energy storage, plagued by degradation, finite cycles, and sluggish charging, is poised for disruption by physical alternatives that promise eternal performance. Here, we introduce a room-temperature micro-superconducting magnetic energy storage (Micro-SMES) device—termed the Pirolo Power Stack—leveraging acoustically stabilized YHf2H24 nanoribbons to achieve a volumetric energy density of 331.08 Wh/L—competitive with lithium-ion batteries—while enabling sub-second charging and infinite cycle life. Stabilized at 298 K via a 45 GHz phonon drive, this solid-state architecture confines magnetic fields up to 17.95 T within a compact 10.0 mm diameter x 0.5 mm thick multilayer stack, storing 46.80 J per cell. Uniquely, the device achieves zero-energy standby through sympathetic energy harvesting from ambient mmWave radiation (Wi-Fi 7/6G) and implements anti-fragile safety via a regenerative piezo-shunt that strengthens superconductivity under stress through Kapitza-like dynamical stabilization—fault energy is channeled into phonon pumping rather than dissipated as heat, reinforcing the order parameter with sub-microsecond response times. Operating as an autonomous "black box" without external battery management systems, this innovation heralds a paradigm shift toward indestructible, instantaneous power for portable electronics, electric vehicles, and grid-scale applications.