The role of fieldwork in rock decay research: Case studies from the fringe

Researchers exploring rock decay hail from chemistry, engineering, geography, geology, paleoclimatology, soil science, and other disciplines and use laboratory, microscopic, theoretical, and field-based strategies. We illustrate here how the tradition of fieldwork forms the core knowledge of rock de...

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Published in:Geomorphology
Main Authors: Dorn, R. I., Gordon, S. J., Allen, C. D., Cerveny, N., Dixon, J. C., Groom, K. M., Hall, K., Harrison, E., Mol, L., Paradise, T. R., Sumner, P., Thompson, T., Turkington, A. V.
Format: Article in Journal/Newspaper
Language:English
Published: Elsevier 2013
Subjects:
Online Access:http://eprints.uwe.ac.uk/29465/
http://eprints.uwe.ac.uk/29465/1/Dorn_etal_Geom_2013.pdf
https://doi.org/10.1016/j.geomorph.2012.12.012
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spelling ftuniwestengland:oai:eprints.uwe.ac.uk:29465 2023-05-15T15:08:17+02:00 The role of fieldwork in rock decay research: Case studies from the fringe Dorn, R. I. Gordon, S. J. Allen, C. D. Cerveny, N. Dixon, J. C. Groom, K. M. Hall, K. Harrison, E. Mol, L. Paradise, T. R. Sumner, P. Thompson, T. Turkington, A. V. 2013-10-15 application/pdf http://eprints.uwe.ac.uk/29465/ http://eprints.uwe.ac.uk/29465/1/Dorn_etal_Geom_2013.pdf https://doi.org/10.1016/j.geomorph.2012.12.012 en eng Elsevier http://eprints.uwe.ac.uk/29465/1/Dorn_etal_Geom_2013.pdf Dorn, R. I. , Gordon, S. J. , Allen, C. D. , Cerveny, N. , Dixon, J. C. , Groom, K. M. , Hall, K. , Harrison, E. , Mol, L. , Paradise, T. R. , Sumner, P. , Thompson, T. and Turkington, A. V. (2013) The role of fieldwork in rock decay research: Case studies from the fringe. Geomorphology, 200. pp. 59-74. ISSN 0169-555X Available from: http://eprints.uwe.ac.uk/29465 all_rights_reserved Article NonPeerReviewed 2013 ftuniwestengland https://doi.org/10.1016/j.geomorph.2012.12.012 2020-08-21T16:10:05Z Researchers exploring rock decay hail from chemistry, engineering, geography, geology, paleoclimatology, soil science, and other disciplines and use laboratory, microscopic, theoretical, and field-based strategies. We illustrate here how the tradition of fieldwork forms the core knowledge of rock decay and continues to build on the classic research of Blackwelder, Bryan, Gilbert, Jutson, King, Linton, Twidale, and von Humboldt. While development of nonfield-based investigation has contributed substantially to our understanding of processes, the wide range of environments, stone types, and climatic variability encountered raises issues of temporal and spatial scales too complex to fit into attempts at universal modeling. Although nonfield methods are immensely useful for understanding overarching processes, they can miss subtle differences in factors that ultimately shape rock surfaces. We, therefore, illustrate here how the tradition of fieldwork continues today alongside laboratory and computer-based investigations and contributes to our understanding of rock decay processes. This includes the contribution of fieldwork to the learning process of undergraduates, the calculation of activation energies of plagioclase and olivine dissolution, the high Arctic, the discovery of a new global carbon sink, the influence of plant roots, an analysis of the need for protocols, tafoni development, stone monuments, and rock coatings. These compiled vignettes argue that, despite revolutionary advances in instrumentation, rock decay research must remain firmly footed in the field. Article in Journal/Newspaper Arctic University of the West of England, Bristol: UWE Research Repository Arctic Geomorphology 200 59 74
institution Open Polar
collection University of the West of England, Bristol: UWE Research Repository
op_collection_id ftuniwestengland
language English
description Researchers exploring rock decay hail from chemistry, engineering, geography, geology, paleoclimatology, soil science, and other disciplines and use laboratory, microscopic, theoretical, and field-based strategies. We illustrate here how the tradition of fieldwork forms the core knowledge of rock decay and continues to build on the classic research of Blackwelder, Bryan, Gilbert, Jutson, King, Linton, Twidale, and von Humboldt. While development of nonfield-based investigation has contributed substantially to our understanding of processes, the wide range of environments, stone types, and climatic variability encountered raises issues of temporal and spatial scales too complex to fit into attempts at universal modeling. Although nonfield methods are immensely useful for understanding overarching processes, they can miss subtle differences in factors that ultimately shape rock surfaces. We, therefore, illustrate here how the tradition of fieldwork continues today alongside laboratory and computer-based investigations and contributes to our understanding of rock decay processes. This includes the contribution of fieldwork to the learning process of undergraduates, the calculation of activation energies of plagioclase and olivine dissolution, the high Arctic, the discovery of a new global carbon sink, the influence of plant roots, an analysis of the need for protocols, tafoni development, stone monuments, and rock coatings. These compiled vignettes argue that, despite revolutionary advances in instrumentation, rock decay research must remain firmly footed in the field.
format Article in Journal/Newspaper
author Dorn, R. I.
Gordon, S. J.
Allen, C. D.
Cerveny, N.
Dixon, J. C.
Groom, K. M.
Hall, K.
Harrison, E.
Mol, L.
Paradise, T. R.
Sumner, P.
Thompson, T.
Turkington, A. V.
spellingShingle Dorn, R. I.
Gordon, S. J.
Allen, C. D.
Cerveny, N.
Dixon, J. C.
Groom, K. M.
Hall, K.
Harrison, E.
Mol, L.
Paradise, T. R.
Sumner, P.
Thompson, T.
Turkington, A. V.
The role of fieldwork in rock decay research: Case studies from the fringe
author_facet Dorn, R. I.
Gordon, S. J.
Allen, C. D.
Cerveny, N.
Dixon, J. C.
Groom, K. M.
Hall, K.
Harrison, E.
Mol, L.
Paradise, T. R.
Sumner, P.
Thompson, T.
Turkington, A. V.
author_sort Dorn, R. I.
title The role of fieldwork in rock decay research: Case studies from the fringe
title_short The role of fieldwork in rock decay research: Case studies from the fringe
title_full The role of fieldwork in rock decay research: Case studies from the fringe
title_fullStr The role of fieldwork in rock decay research: Case studies from the fringe
title_full_unstemmed The role of fieldwork in rock decay research: Case studies from the fringe
title_sort role of fieldwork in rock decay research: case studies from the fringe
publisher Elsevier
publishDate 2013
url http://eprints.uwe.ac.uk/29465/
http://eprints.uwe.ac.uk/29465/1/Dorn_etal_Geom_2013.pdf
https://doi.org/10.1016/j.geomorph.2012.12.012
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op_relation http://eprints.uwe.ac.uk/29465/1/Dorn_etal_Geom_2013.pdf
Dorn, R. I. , Gordon, S. J. , Allen, C. D. , Cerveny, N. , Dixon, J. C. , Groom, K. M. , Hall, K. , Harrison, E. , Mol, L. , Paradise, T. R. , Sumner, P. , Thompson, T. and Turkington, A. V. (2013) The role of fieldwork in rock decay research: Case studies from the fringe. Geomorphology, 200. pp. 59-74. ISSN 0169-555X Available from: http://eprints.uwe.ac.uk/29465
op_rights all_rights_reserved
op_doi https://doi.org/10.1016/j.geomorph.2012.12.012
container_title Geomorphology
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