Hydrogel and Organic Amendments to Increase Water Retention in Anthroposols for Land Reclamation

Using waste materials from industrial activities to build anthroposols (soils built or altered by humans) can provide soil for reclamation and reduce amounts of materials stored in landfills. Mines and other large industrial disturbances requiring anthroposols usually have large amounts of nonorgani...

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Main Authors: Valerie S. Miller, M. Anne Naeth
Format: Article
Language:English
Published: Wiley 2019-01-01
Series:Applied and Environmental Soil Science
Online Access:http://dx.doi.org/10.1155/2019/4768091
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author Valerie S. Miller
M. Anne Naeth
author_facet Valerie S. Miller
M. Anne Naeth
author_sort Valerie S. Miller
collection DOAJ
description Using waste materials from industrial activities to build anthroposols (soils built or altered by humans) can provide soil for reclamation and reduce amounts of materials stored in landfills. Mines and other large industrial disturbances requiring anthroposols usually have large amounts of nonorganic waste materials with low water holding capacity and large amounts of coarse fragments. Thus, water holding capacity is a key property to build into anthroposols as all aspects of revegetation are strongly influenced by soil water content. This research assessed the effectiveness of hydrogel and organic amendments to increase the water retention in common mine wastes used to build anthroposols for reclamation in three greenhouse experiments. Waste materials were crushed rock, lakebed sediment, and processed kimberlite, from a northern diamond mine in Canada. Amendments were hydrogel, sewage, salvaged soil, and peat. Pots were filled with the material and weighed and saturated, followed by periodic weighing until the weight was near constant. Water retention was consistently highest in processed kimberlite, with and without amendments. Water retention increased most with hydrogel in processed kimberlite and crushed rock. Hydrogel application method impacted the initial water retention, but over time, the effect was limited. Water retention in lakebed sediment showed little difference relative to no amendment addition and had lowest increases relative to other substrates. Type of waste material and amendment, application rate, and application method impacted water retention and can be adapted to build anthroposols in the field using waste materials suitable for reclamation.
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spelling doaj-art-1dd21a5fd74d42b9a6982278d90a43d72025-02-03T01:06:53ZengWileyApplied and Environmental Soil Science1687-76671687-76752019-01-01201910.1155/2019/47680914768091Hydrogel and Organic Amendments to Increase Water Retention in Anthroposols for Land ReclamationValerie S. Miller0M. Anne Naeth1Department of Renewable Resources, University of Alberta, 751 General Services Building, Edmonton, AB, T6G 2H1, CanadaDepartment of Renewable Resources, University of Alberta, 751 General Services Building, Edmonton, AB, T6G 2H1, CanadaUsing waste materials from industrial activities to build anthroposols (soils built or altered by humans) can provide soil for reclamation and reduce amounts of materials stored in landfills. Mines and other large industrial disturbances requiring anthroposols usually have large amounts of nonorganic waste materials with low water holding capacity and large amounts of coarse fragments. Thus, water holding capacity is a key property to build into anthroposols as all aspects of revegetation are strongly influenced by soil water content. This research assessed the effectiveness of hydrogel and organic amendments to increase the water retention in common mine wastes used to build anthroposols for reclamation in three greenhouse experiments. Waste materials were crushed rock, lakebed sediment, and processed kimberlite, from a northern diamond mine in Canada. Amendments were hydrogel, sewage, salvaged soil, and peat. Pots were filled with the material and weighed and saturated, followed by periodic weighing until the weight was near constant. Water retention was consistently highest in processed kimberlite, with and without amendments. Water retention increased most with hydrogel in processed kimberlite and crushed rock. Hydrogel application method impacted the initial water retention, but over time, the effect was limited. Water retention in lakebed sediment showed little difference relative to no amendment addition and had lowest increases relative to other substrates. Type of waste material and amendment, application rate, and application method impacted water retention and can be adapted to build anthroposols in the field using waste materials suitable for reclamation.http://dx.doi.org/10.1155/2019/4768091
spellingShingle Valerie S. Miller
M. Anne Naeth
Hydrogel and Organic Amendments to Increase Water Retention in Anthroposols for Land Reclamation
Applied and Environmental Soil Science
title Hydrogel and Organic Amendments to Increase Water Retention in Anthroposols for Land Reclamation
title_full Hydrogel and Organic Amendments to Increase Water Retention in Anthroposols for Land Reclamation
title_fullStr Hydrogel and Organic Amendments to Increase Water Retention in Anthroposols for Land Reclamation
title_full_unstemmed Hydrogel and Organic Amendments to Increase Water Retention in Anthroposols for Land Reclamation
title_short Hydrogel and Organic Amendments to Increase Water Retention in Anthroposols for Land Reclamation
title_sort hydrogel and organic amendments to increase water retention in anthroposols for land reclamation
url http://dx.doi.org/10.1155/2019/4768091
work_keys_str_mv AT valeriesmiller hydrogelandorganicamendmentstoincreasewaterretentioninanthroposolsforlandreclamation
AT mannenaeth hydrogelandorganicamendmentstoincreasewaterretentioninanthroposolsforlandreclamation