Generalize dissipative stabilization to other symmetry-broken phases

Generalize the dissipative protocols based on weak coupling to multiple thermal baths and nonthermal quasiparticle redistribution to stabilize other symmetry-broken phases, including charge-density waves, magnetic orders, and excitonic condensates.

Background

The paper develops a dissipative-engineering framework in which a superconductor is coupled to two thermal baths at different temperatures. Although each bath individually favors a thermal state, their combined nonequilibrium action produces a nonthermal steady-state quasiparticle distribution that can sustain s-wave or d-wave superconductivity beyond the equilibrium critical-temperature regime.

The authors identify extending this mechanism beyond superconductivity as an unresolved direction. They specifically mention charge-density waves, magnetic orders, and excitonic condensates as candidate phases to which analogous dissipative stabilization protocols might be applied.

References

Looking forward, an important open question is whether similar dissipative protocols can be generalized to stabilize other symmetry-broken phases, including charge-density waves, magnetic orders, or excitonic condensates.

— Non-equilibrium dissipative stabilization of s- and d-wave superconductivity  (2609.10062 - Lunkin et al., 9 Sep 2026) in Conclusions section