Abstract

Ultracold quantum gases with long-range anisotropic interactions host novel exotic phases of matter, such as super solids, exhibiting both rigid and superfluid characteristics. The impact of this interplay on the out-of-equilibrium dynamics of dipolar gases, and in particular its connection with universal turbulent behavior, remains highly unexplored. Here, upon considering a dipolar Bose-Einstein condensate of dysprosium atoms being dynamically driven across the super solid-superfluid phase transition and vice versa, we unveil the emergence of a robust nonequilibrium quasi-steady state. This state displays self-similar momentum distributions exhibiting algebraic decay at large momenta, with scaling exponents supporting the existence of wave turbulence. We demonstrate that super solidity sustaining higher-lying momenta, associated with the roton minimum, promotes the development of turbulence. Our results provide a steppingstone toward unraveling and exploiting turbulent and self-similar behavior in anisotropic ally long-range interacting quantum gases amenable in current experiments.

Department(s)

Physics

Publication Status

Open Access

Comments

S. I. M. acknowledges support from the Missouri University of Science and Technology, Department of Physics, in the framework of a Startup fund. Financial support by the Knut and Alice Wallenberg Foundation and the Swedish Research Council are also acknowledged (K. M.). S. I. M. acknowledges extensive discussions with H. R. Sadeghpour in the context of universal dynamics and super solid character. K.M. gratefully acknowledges many discussions with Stephanie M. Reimann on the topic of super solidity. The authors acknowledge the anonymous referees for their insightful comments.

Document Type

Article - Journal

Document Version

Citation

File Type

text

Language(s)

English

Rights

© 2026 The Authors, All rights reserved.

Creative Commons Licensing

Creative Commons License
This work is licensed under a Creative Commons Attribution-Noncommercial-No Derivative Works 4.0 License.

Publication Date

2026

Included in

Physics Commons

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