Evidence, arguments, and cold-climate geomorphology that favour periglacial cycling at the Martian mid-to-high latitudes in the Late Amazonian Epoch

Richard J. Soare, F. Costard, Jean-Pierre Williams, Colman Gallagher, Adam J. Hepburn, D. Stillman, Michelle Koutnik, S. J. Conway, M. Philippe, Frances E. G. Butcher, Lauren E. Mc Keown, E. Godin

Research output: Chapter in Book/Report/Conference proceedingChapter

2 Citations (Scopus)

Abstract

Absent of a humanly wielded pick and shovel digging beneath the surface, the identification of ground (interstitial) ice on Mars formed by the freeze–thaw cycling of water has largely been inferred from presumed periglacial analogues on Earth. Here, we reach beyond the looks-like therefore-must-be paradigm and seek to validate this presumption by two means: (1) Presenting diverse data sets, tools, scales (temporal and spatial), and case studies that point, collectively, to the plausibility of periglacial processes having occurred at the northern mid-latitudes of Mars through the Late Amazonian Epoch. (2) Suggesting that and showing why the litmus test of periglacial plausibility ought not to be derived from current boundary conditions on Mars or models derived therefrom. Towards these twinned ends, we draw upon an admixture of recently published and new work by this chapter’s authors.

Original languageEnglish
Title of host publicationIces in the Solar-System
Subtitle of host publicationA Volatile-Driven Journey from the Inner Solar System to its Far Reaches
EditorsRichard J. Soare, Jean-Pierre Williams, Caitlin J. Ahrens, Frances E. G. Butcher, Mohamed Ramy El-Maarry
PublisherElsevier
Chapter5
Pages143-192
Number of pages50
ISBN (Electronic)9780323993241
ISBN (Print)9780323993258
DOIs
Publication statusPublished - 24 Jan 2024

Keywords

  • Climate
  • Freeze–thaw cycling of water and periglaciation
  • Glacial/periglacial stades
  • Mars

Fingerprint

Dive into the research topics of 'Evidence, arguments, and cold-climate geomorphology that favour periglacial cycling at the Martian mid-to-high latitudes in the Late Amazonian Epoch'. Together they form a unique fingerprint.

Cite this