Physical and Chemical Properties of Solidified Cultivating Soil Blended with Waste Woody Biomass Prepared by the EICP Method

The purpose of this study is to create solidified cultivating soil with a low environmental load, which can be used as a planting base material or cultivating soil. The solidification method adopted was cementation technology using calcium carbonate, chosen for its low environmental impact. The main materials used were woody materials derived from waste, such as coir, sawdust, and bamboo powder. The physicochemical properties of the obtained solidified cultivating soil were analyzed and compared with existing products. The results showed that, in terms of physical properties, the solidified cultivating soil did not exhibit significant differences in permeability and water retention compared to existing products. This indicates that the physical properties measured in this study are comparable to those of existing products. In term of chemical properties, the solidified cultivating soil had higher values for pH, EC (electrical conductivity), total nitrogen, and ammonia nitrogen compared to existing products, while showing a lower C/N ratio. These results appear to be due to the effects of calcium carbonate and ammonia generated during the cementation process. The findings suggest that the previously disadvantageous ammonia generation could potentially be converted into benefits, such as serving as a nitrogen source for plants and contributing to the reduction of the C/N ratio.

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Publication Details

Journal
Journal of the Society of Materials Science Japan
Published
2025-03-15
DOI
https://doi.org/10.2472/jsms.74.161
Primary Topic
Forest Biomass Utilization and Management
Type
article
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article

Physical and Chemical Properties of Solidified Cultivating Soil Blended with Waste Woody Biomass Prepared by the EICP Method

Daiki KAWAMURA, Satoru Kawasaki
Journal of the Society of Materials Science Japan
Forest Biomass Utilization and Management
article

Physical and Chemical Properties of Solidified Cultivating Soil Blended with Waste Woody Biomass Prepared by the EICP Method

Daiki KAWAMURA, Satoru Kawasaki
article en

Abstract

The purpose of this study is to create solidified cultivating soil with a low environmental load, which can be used as a planting base material or cultivating soil. The solidification method adopted was cementation technology using calcium carbonate, chosen for its low environmental impact. The main materials used were woody materials derived from waste, such as coir, sawdust, and bamboo powder. The physicochemical properties of the obtained solidified cultivating soil were analyzed and compared with existing products. The results showed that, in terms of physical properties, the solidified cultivating soil did not exhibit significant differences in permeability and water retention compared to existing products. This indicates that the physical properties measured in this study are comparable to those of existing products. In term of chemical properties, the solidified cultivating soil had higher values for pH, EC (electrical conductivity), total nitrogen, and ammonia nitrogen compared to existing products, while showing a lower C/N ratio. These results appear to be due to the effects of calcium carbonate and ammonia generated during the cementation process. The findings suggest that the previously disadvantageous ammonia generation could potentially be converted into benefits, such as serving as a nitrogen source for plants and contributing to the reduction of the C/N ratio.

Journal of the Society of Materials Science JapanVol. 74(3)
Hokkaido University (JP)
Zero hunger
Openalex Percentile: Top 94%
Forest Biomass Utilization and Management
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