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T-L1-F — Hard-Bar / Active-Count Bridge under L1-J Regime

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  1. #1

    Let be a finite graph and a shared-pool multi-formation state. Let

    U(u)=∑j=1Kfieldu(j),Aε(u)={j:mj(u)>ε},Kactε=∣Aε∣,U(\mathbf u) = \sum_{j=1}^{K_{\mathrm{field}}} u^{(j)},\qquad A^\varepsilon(\mathbf u) = \{j : m_j(\mathbf u) > \varepsilon\},\qquad K_{\mathrm{act}}^\varepsilon = |A^\varepsilon|,
  2. #2

    and

    Kbarℓmin⁡(U;G)=#{[d,b]∈Bars0term(U;G):b−d≥ℓmin⁡}K_{\mathrm{bar}}^{\ell_{\min}}(U;G) = \#\{[d,b] \in \mathrm{Bars}_0^{\mathrm{term}}(U;G) : b - d \ge \ell_{\min}\}
  3. #3

    Theorem (T-L1-F). Under the L1-J regime hypothesis package – ,

      Kbarℓmin⁡(U(u);G)=Kactε(u),  \boxed{\;K_{\mathrm{bar}}^{\ell_{\min}}(U(\mathbf u);G) = K_{\mathrm{act}}^\varepsilon(\mathbf u),\;}
  4. #4

    and the map

    Abar:Aε(u)→Bars0term(U;G),Abar(j)=the unique dominant bar with birth in Njr,\mathcal A_{\mathrm{bar}} : A^\varepsilon(\mathbf u) \to \mathrm{Bars}_0^{\mathrm{term}}(U;G), \qquad \mathcal A_{\mathrm{bar}}(j) = \text{the unique dominant bar with birth in } N_j^r,