Peak Functionals of Driven Dissipative Damage Dynamics: Proofs

Complete proofs of results on the peak M = supt≥0 D(t) of the scalar damage dynamics dD/dt = u(t) − R(D), D(0) = 0, driven by two identical exposure pulses whose starts are Δ apart. Results proved: monotonicity of M(Δ) under linear repair for every unimodal pulse shape, with no log-concavity assumed (Theorem 1); a two-sided comparison (sandwich) bound on M(Δ′)/M(Δ) for repair laws confined to a relative-relaxation band, with a certificate for a given pair of separations (Theorem 2); a sharpened upper bound for repair laws with an inert band at the origin (Proposition 3); the impossibility of any qualitative classification of violating repair laws, given one violating law (Proposition 4); peak monotonicity for every locally Lipschitz repair law with R(0) = 0, and for constant removal, under log-concave inputs (Theorem 5); a general lower bound and a factor-two bound for convex repair, which together give a one-half floor on the peak ratio (Theorems 6a–6b); and a counterexample showing that the floor does not extend to concave repair (Proposition 6c). The proofs support statements made in a companion manuscript on the choice between GUTS survival models (Lee and Joe, in preparation for Environmental Science & Technology). Four deposited Python scripts (NumPy only) reproduce every number quoted in the report; their outputs are included. The report contains no empirical claims.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-27
DOI
https://doi.org/10.5281/zenodo.23356184
Primary Topic
Mathematical and Theoretical Epidemiology and Ecology Models
Type
preprint
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preprint

Peak Functionals of Driven Dissipative Damage Dynamics: Proofs

Jong‐Hyeon Lee, Chan Young Joe
Zenodo (CERN European Organization for Nuclear Research)
Mathematical and Theoretical Epidemiology and Ecology Models
preprint

Peak Functionals of Driven Dissipative Damage Dynamics: Proofs

Jong‐Hyeon Lee, Chan Young Joe
preprint en

Abstract

Complete proofs of results on the peak M = supt≥0 D(t) of the scalar damage dynamics dD/dt = u(t) − R(D), D(0) = 0, driven by two identical exposure pulses whose starts are Δ apart. Results proved: monotonicity of M(Δ) under linear repair for every unimodal pulse shape, with no log-concavity assumed (Theorem 1); a two-sided comparison (sandwich) bound on M(Δ′)/M(Δ) for repair laws confined to a relative-relaxation band, with a certificate for a given pair of separations (Theorem 2); a sharpened upper bound for repair laws with an inert band at the origin (Proposition 3); the impossibility of any qualitative classification of violating repair laws, given one violating law (Proposition 4); peak monotonicity for every locally Lipschitz repair law with R(0) = 0, and for constant removal, under log-concave inputs (Theorem 5); a general lower bound and a factor-two bound for convex repair, which together give a one-half floor on the peak ratio (Theorems 6a–6b); and a counterexample showing that the floor does not extend to concave repair (Proposition 6c). The proofs support statements made in a companion manuscript on the choice between GUTS survival models (Lee and Joe, in preparation for Environmental Science & Technology). Four deposited Python scripts (NumPy only) reproduce every number quoted in the report; their outputs are included. The report contains no empirical claims.

Zenodo (CERN European Organization for Nuclear Research)
Korea Occupational Safety and Health Agency (KR)
Mathematical and Theoretical Epidemiology and Ecology Models
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