One-force-one-solution in random Hamilton–Jacobi equations

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Let d∈Nd\in\mathbb{N} and let Fω(t,x)F_\omega(t,x) have exponential decay of space-time correlations. For every b∈Rdb\in\mathbb{R}^d, consider global solutions of the random Hamilton–Jacobi equation of the form

Φb,ω(t,x)=b⋅x+ψb,ω(t,x),\Phi_{b,\omega}(t,x)=b\cdot x+\psi_{b,\omega}(t,x),

where ψb,ω\psi_{b,\omega} has sublinear growth, and identify solutions modulo time-dependent additive constants. One-force-one-solution conjecture. 1F1S holds: there is a unique time-stationary global solution of this form for every bb, these solutions are continuous in ν≥0\nu\geq0, and global solutions are preserved under the zero-viscosity limit. The claim extends established compact and special noncompact results to arbitrary dimension and exponentially mixing forcing; its resolution is not supplied in the source.

References

Primary source

Yuri Bakhtin and Konstantin Khanin, “On global solutions of the random Hamilton-Jacobi equations and the KPZ problem”, arXiv:1708.02134 (2017).

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