Mitigation of the stresses of acid sulfate soils by terrestrial and aquatic plants (Melaleuca armillaris and Phragmites australis) under varying moisture regimes
Patrick Michael | Robert J. Reid | Robert W. Fitzpatrick
Abstract:
The long-term roles of live plant roots in mitigating stresses due to acid
sulfate soil remain poorly understood. Three studies, each lasting
twelve months, were conducted using Melaleuca armillaris and
Phragmites australis. In the first study, alkaline sandy loam soil was
mixed into the sulfuric soil to increase the pH to 6.7, and M. armillaris
seedlings were planted. In the second and third studies, M. armillaris
and P. australis were planted in sulfuric and sulfidic soils and
maintained at 75% water-holding capacity and flooded soil conditions.
All the studies were set using 300mm stormwater tubes with sealed
bottom ends. The treatments were replicated four times, set up under a
glasshouse in a completely randomized design, and harvested after 12
months. The pH and root biomass were measured from the surface,
middle, and deep profiles. Results showed that the neutralization
obtained by mixing alkaline sandy loam soil with sulfuric soil was
stable but deteriorated due to plant root penetration. In the sulfuric soil
material (pH <4), M. armillaris produced more roots at the surface than
in the deep soil under circumneutral pH and aerobic soil conditions. In
sulfidic soil material (pH >4), more roots were produced in the deeper
soils. In the sulfuric and sulfidic soil materials, P. australis produced
more roots at the surface than at the deep soil under pH >4 and aerobic
conditions. Under anaerobic conditions with a pH >4, root distribution
was even. Our findings suggest that common terrestrial and aquatic
plants maintain a characteristic distribution of roots to mitigate the
stresses of acid sulfate soils.
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