Marie Schroeder

FS 3.510

Research on the edge: Vertical Ice

Details

  • Full Title

    FS 3.510: What can we learn from vertical ice features on glaciers?
  • Scheduled

    TBA
  • Location

    TBA
  • Co-Conveners

  • Assigned to Synthesis Workshop

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  • Thematic Focus

    No focus defined
  • Keywords

    Vertical Ice, Glaciers, Mass Balance, Field Work, Modelling

Description

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Steep ice on land can be found in different environments in the form of land-terminating ice cliffs, ice cliffs on debris-covered glaciers or the front of surging glaciers. Vertical ice surfaces experience unique environmental conditions compared to flat glacier areas, including differential exposure to solar radiation, atmospheric conditions, and ice-atmosphere interactions. Understanding the processes driving accumulation and ablation on these steep ice surfaces is critical for accurately predicting their mass balance and understanding their behaviour. Although vertical or steep ice features typically make up only a small percentage of a glacier’s surface area, they can significantly contribute to its mass loss and the changes it undergoes. At times, these features behave counterintuitively, as seen in northern Greenland, where vertical ice cliffs at the edge of an ice cap periodically advance despite the overall mass loss of the ice cap. This session welcomes all aspects of research related to vertical ice, including field observations, experimental methods, and modelling approaches.

Submitted Abstracts

ID: 3.13359

ice cores on mountain glaciers

Lianne Sijbrandij

Abstract/Description

This study aims to investigate seasonal stratigraphy in ice cores extracted from mountain glaciers and assess limitations in reconstructing past seasonality and dust/emission events. While temperate glaciers often show diffuse stratigraphy due to summer melt, seasonal signals can still be preserved with high accumulation rates (Neff, 2017). Research for mountain ice cores has been concentrated in regions such as Alaska, Yukon, and the Alps, but this study seeks to expand investigations to Patagonia, where sites are currently being evaluated.
As a developing PhD proposal, this research is expected to refine its objectives over the coming months. Mountain ice cores offer critical insights into past regional climate variability while also helping to project future changes. Given that 1.9 billion people worldwide rely on glacier-fed water sources (WMO, 2025), assessing the rate of glacial change is of utmost importance. The Andes, an underrepresented region in ice core studies, presents a unique and urgent opportunity for investigation.