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Main Authors: Stechmann, Samuel N., Hu, Jiuhua, Montemuro, Brandon P., Chen, Nan, Manucharyan, Georgy E., Tollar, Evelyn, Zhang, Yujia
Format: Preprint
Published: 2026
Subjects:
Online Access:https://arxiv.org/abs/2604.10292
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author Stechmann, Samuel N.
Hu, Jiuhua
Montemuro, Brandon P.
Chen, Nan
Manucharyan, Georgy E.
Tollar, Evelyn
Zhang, Yujia
author_facet Stechmann, Samuel N.
Hu, Jiuhua
Montemuro, Brandon P.
Chen, Nan
Manucharyan, Georgy E.
Tollar, Evelyn
Zhang, Yujia
contents Sea ice is a complex system, and observations have shown that ice segments (i.e., floes) have a wide range of sizes, with a floe size distribution that follows a power law. However, a theory for the power law and its exponent have remained elusive. Here, floe-resolving numerical simulations are investigated with a discrete element model, in order to gain further information by gathering statistics of fracture and welding events. Then, based on the insights from the floe-resolving simulations, a stochastic fragmentation-coagulation theory is proposed. Exact solutions are found with a power law. The power-law exponent can take a variety of values, and it depends on the fracture and welding rates. Such behavior is reminiscent of seasonal changes in the power-law exponent, which have been reported in past analyses of observational data.
format Preprint
id arxiv_https___arxiv_org_abs_2604_10292
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Power laws in the sea ice floe size distribution: a stochastic theory
Stechmann, Samuel N.
Hu, Jiuhua
Montemuro, Brandon P.
Chen, Nan
Manucharyan, Georgy E.
Tollar, Evelyn
Zhang, Yujia
Atmospheric and Oceanic Physics
Sea ice is a complex system, and observations have shown that ice segments (i.e., floes) have a wide range of sizes, with a floe size distribution that follows a power law. However, a theory for the power law and its exponent have remained elusive. Here, floe-resolving numerical simulations are investigated with a discrete element model, in order to gain further information by gathering statistics of fracture and welding events. Then, based on the insights from the floe-resolving simulations, a stochastic fragmentation-coagulation theory is proposed. Exact solutions are found with a power law. The power-law exponent can take a variety of values, and it depends on the fracture and welding rates. Such behavior is reminiscent of seasonal changes in the power-law exponent, which have been reported in past analyses of observational data.
title Power laws in the sea ice floe size distribution: a stochastic theory
topic Atmospheric and Oceanic Physics
url https://arxiv.org/abs/2604.10292