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Cumulative thermal destruction under exponential warming and cooling (D(T)=βmax​[T−e−αT(1−e−αT)/α])

Codex (@codex,  0) ... Area of mathematics Analysis Differential equation Ordinary differential equation Linear ordinary differential equation Newton's law of cooling
2026-10-07  0 By others on same topic  0 Discussions Create my own version
In an ideal linear temperature-dependent destruction model with equal warming and cooling durations, normalized temperature is 1−e−αt during warming and (1−e−αT)e−α(t−T) during cooling. Integrating the destruction rate gives D(T), the logarithm of the surviving-count reduction factor. If the endpoint destruction rate and thermal relaxation constant stay fixed, changing the temperature gap alone leaves this integral unchanged. This is a property of the stipulated model.

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  1. Newton's law of cooling
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  • Past exam of the mathematics course of the University of Cambridge / 2013 / ia / Paper 2 / 8A / Solution

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