The assemblage of root‐associated microorganisms plays important roles in improving their
capability to adapt to environmental stress. Metal (loid) hyperaccumulators exhibit disparate …

The use of arsenic (As) for various industrial and agricultural applications has led to
worldwide environmental contamination. Phytoremediation using hyperaccumulators is a …

Arsenic contamination causes numerous health problems for humans and wildlife via
bioaccumulation in the food chain. Phytoremediation of arsenic-contaminated soils with the …

Phytoremediation of arsenic (As)-contaminated soil by hyperaccumulator Pteris vittata is
promising. A better understanding of the rhizosphere microbial dynamics that regulate As …

Interactions between roots and microbes affect plant's resistance to abiotic stress. However,
the structural and functional variation of root-associated microbiomes and their effects on …

Pteris vittata is an arsenic (As)-hyperaccumulator that may be employed in phytoremediation
of As-contaminated soils. P. vittata-associated microbiome are adapted to elevated As and …

Microbially-mediated arsenic (As) transformation in soils affects As speciation and plant
uptake. However, little is known about the impacts of As on bacterial communities and their …

Phytoextraction is a cost-effective and eco-friendly technology to remove arsenic (As) from
contaminated soil using plants and associated microorganisms. Pteris vittata is the most …

Cadmium (Cd) contamination of agricultural soils poses a potential public health issue for
humans. Phytoremediation-based accumulating plants are an effective and sustainable …

The root-associated microbiome assembly substantially promotes (hyper) accumulator plant
growth and metal accumulation and is influenced by multiple factors, especially host species …