On the definition of the measurement unit for extreme quantity values: some considerations on the case of temperature and the kelvin scale
Franco Pavese

TL;DR
This paper discusses the challenges of defining temperature measurement units, specifically the kelvin scale, at extreme values and questions its applicability across the full range from zero to infinity.
Contribution
It highlights conceptual difficulties in applying the current kelvin scale to extreme temperature values, emphasizing the need for reconsideration at the limits.
Findings
Current kelvin scale may not be suitable at temperature extremes
Extreme temperature regions pose conceptual challenges for temperature measurement
The paper does not provide definitive solutions but raises important questions
Abstract
Many quantities are attributed a range of values that can apparently extend to infinity (on one side or both sides). In this respect, the definitions of their measurement units do not place any constraint to the maximum (or minimum) value for their validity. In general, that happens because those extreme values are far from being reached on the earth, or presently in experiments. However, since the same units are used also in fields of physics, chemistry or technology where they could occur, namely in the description of the universe in one sense, and in nano-scale or particle physics in another sense, the issue of extreme values (not in statistical meaning here) is not irrelevant. The question placed and discussed in this paper is whether the present kelvin scale, based on Lord Kelvin second definition (our currently accepted concept of temperature), applies over a full range between…
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Taxonomy
TopicsModel Reduction and Neural Networks · Statistical Mechanics and Entropy · Advanced Thermodynamics and Statistical Mechanics
