Publications by authors named "Xin-Yu Lan"

Article Synopsis
  • Microsorum pteropus has shown potential as a hyperaccumulator of cadmium (Cd), capable of achieving over 1000 mg/kg in its roots and leaves after exposure to Cd.
  • Non-invasive Micro-test Technology (NMT) demonstrated increased hydrogen ion fluxes in all tissues post-Cd exposure, particularly in the stems.
  • The plant's response to Cd varies by tissue, with roots absorbing Cd at low levels and demonstrating regulatory mechanisms, while leaves showed direct absorption at low exposure but minimal transport of Cd under high exposure.
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Microsorum pteropus is a novel potential Cd (cadmium) aquatic hyperaccumulator. In the present study, hydroponic experiments were conducted to assess the accumulation and subcellular distribution of Cd in the root, stem and leaf of M. pteropus.

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Microsorum fortunei (M. fortunei), a close relative to the cadmium (Cd) hyperaccumulator Microsorum pteropus, is an epiphytic Polypodiaceae fern with strong antioxidant activity. The Cd-accumulation capacities and Cd-resistance mechanisms of M.

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Microsorum pteropus is a fully or partially submerged Polypodiaceae fern that has been proven to be a potential Cd aquatic hyperaccumulator. Proteomic analysis was used in this study to investigate the resistance mechanisms of M. pteropus root and leaf tissues under Cd stress.

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To better monitor and remediate environments contaminated by cadmium (Cd), plants are used as hyperaccumulators or biomonitors; however, few have been identified for aquatic Cd pollution. In our study, two aquatic ornamental plants, Microsorum pteropus (Blume) Copel. and Echinodorus grisebachii Small, were studied for their Cd accumulation capacity, morphological characteristics, and leaf physiological indexes.

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Microsorum pteropus (M. pteropus), an aquatic Polypodiaceae fern, was identified as a novel potential cadmium (Cd) hyperaccumulator in our previous study. This study reveals the Cd-resistance mechanisms and their difference between the root and leaf of M.

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The temporal-spatial distributions of DDT-related contaminants (DDXs), including DDT (dichlorodiphenyltrichloroethane), DDE (dichlorodiphenyldichloroethylene) and DDD (dichlorodiphenyldichloroethane), in the sediments of Lake Chaohu and their influencing factors were studied. p,p-DDE and p,p-DDD were found to be the two dominant components of DDXs in both surface and core sediments. The parent DDT compounds were still detectable in sediment cores after the late 1930s.

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Synopsis of recent research by authors named "Xin-Yu Lan"

  • - Xin-Yu Lan's recent research predominantly focuses on the investigation of cadmium (Cd) accumulation and resistance mechanisms in novel aquatic hyperaccumulators, particularly the fern
  • Microsorum pteropus
  • and its relative
  • Microsorum fortunei
  • - The studies employ various methodologies including Non-invasive Micro-test Technology (NMT) and proteomic analysis to explore the ion fluxes, subcellular distribution, and differential expression of proteins in Cd-stressed plant tissues.
  • - Findings indicate that
  • Microsorum pteropus
  • exhibits significant potential for Cd remediation in aquatic environments, highlighting its biochemical resistance strategies and comparative bioaccumulation abilities with other plant species, thereby making it a valuable candidate for environmental bioremediation efforts.