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Quantum coherence, the physical property underlying fundamental phenomenasuch as multi-particle interference and entanglement, has emerged as a valuableresource upon which exotic modern technologies are founded. In general, themost prominent adversary of quantum coherence is noise arising from theinteraction of the associated dynamical system with its environment. Undercertain conditions, however, the existence of noise may drive quantum andclassical systems to endure intriguing nontrivial effects. Along these lines,here we demonstrate, both theoretically and experimentally, that when twoindistinguishable particles co-propagate through quantum networks affected bynoise, the system always evolves into a steady state in which coherencesbetween certain separable states perpetually prevail. Furthermore, we show thatthe same steady state with surviving quantum coherences is reachedirrespectively of the configuration in which the particles are prepared.

Endurance of Quantum Coherence in Born-Markov Open Quantum Systems