Finiteness and continuity of the screened potential #
The extended screened potential and its real representative agree on their finite locus.
theorem
LiebThirring.ne_nucleus_of_mem_closedVoronoiCell
{M : ℕ}
(R : Fin M → Position)
(hR : Function.Injective R)
(k p : Fin M)
(hpk : p ≠ k)
{x : Position}
(hx : x ∈ closedVoronoiCell R k)
:
theorem
LiebThirring.screenedPotential_eq_on_closedVoronoiCell
{M : ℕ}
(Z : NNReal)
(R : Fin M → Position)
(k : Fin M)
{x : Position}
(hx : x ∈ closedVoronoiCell R k)
:
The shared minimum is the explicit formula on every closed cell.
theorem
LiebThirring.screenedPotential_ne_top
{M : ℕ}
(hM : 1 ≤ M)
(Z : NNReal)
(R : Fin M → Position)
(hR : Function.Injective R)
(x : Position)
:
Distinct nuclei make the screened potential finite even at a nucleus.
theorem
LiebThirring.continuous_screenedPotential
{M : ℕ}
(Z : NNReal)
(R : Fin M → Position)
:
Continuous (screenedPotential Z R)
Extended continuity also holds without separation of the nuclei.
theorem
LiebThirring.continuous_screenedPotentialReal
{M : ℕ}
(hM : 1 ≤ M)
(Z : NNReal)
(R : Fin M → Position)
(hR : Function.Injective R)
:
theorem
LiebThirring.screenedPotentialReal_eq_on_closedVoronoiCell
{M : ℕ}
(Z : NNReal)
(R : Fin M → Position)
(hR : Function.Injective R)
(k : Fin M)
{x : Position}
(hx : x ∈ closedVoronoiCell R k)
:
The real closed-cell formula has no singular retained denominators.