Thinking for the future: Phytoextraction of cadmium using primed plants for sustainable soil clean‐up

Cadmium (Cd) soil contamination is a global problem for food security due to its ubiquity, toxicity at low levels, persistence, and bioaccumulation in living organisms. Humans' intake of heavy metals is usually due to direct contact with contaminated soil, through the food chain (Cd accumulatio...

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Published in:Physiologia plantarum Vol. 174; no. 4; pp. e13739 - n/a
Main Authors: Karalija, Erna, Selović, Alisa, Bešta‐Gajević, Renata, Šamec, Dunja
Format: Journal Article
Language:English
Published: Oxford, UK Blackwell Publishing Ltd 01-07-2022
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Abstract Cadmium (Cd) soil contamination is a global problem for food security due to its ubiquity, toxicity at low levels, persistence, and bioaccumulation in living organisms. Humans' intake of heavy metals is usually due to direct contact with contaminated soil, through the food chain (Cd accumulation in crops and edible plants) or through drinking water in cases of coupled groundwater‐surface water systems. Phytoextraction is one of the eco‐friendly, sustainable solutions that can be used as a method for soil clean‐up with the possibility of re‐use of extracted metals through phytomining. Phytoextraction is often limited by the tolerance level of hyperaccumulating plants and the restriction of their growth. Mechanisms of hyperaccumulation of heavy metals in tolerant species have been studied, but there are almost no data on mechanisms of further improvement of the accumulation capacity of such plants. Priming can influence plant stress tolerance by the initiation of mild stress cues resulting in acclimation of the plant. The potential of plant priming in abiotic stress tolerance has been extensively investigated using different types of molecules that are supplemented exogenously to plant organs (roots, leaves, etc.), resulting in enhanced tolerance of abiotic stress. This review focuses on mechanisms of enhancement of plant stress tolerance in hyperaccumulating plants for their exploitation in phytoextraction processes.
AbstractList Cadmium (Cd) soil contamination is a global problem for food security due to its ubiquity, toxicity at low levels, persistence, and bioaccumulation in living organisms. Humans' intake of heavy metals is usually due to direct contact with contaminated soil, through the food chain (Cd accumulation in crops and edible plants) or through drinking water in cases of coupled groundwater‐surface water systems. Phytoextraction is one of the eco‐friendly, sustainable solutions that can be used as a method for soil clean‐up with the possibility of re‐use of extracted metals through phytomining. Phytoextraction is often limited by the tolerance level of hyperaccumulating plants and the restriction of their growth. Mechanisms of hyperaccumulation of heavy metals in tolerant species have been studied, but there are almost no data on mechanisms of further improvement of the accumulation capacity of such plants. Priming can influence plant stress tolerance by the initiation of mild stress cues resulting in acclimation of the plant. The potential of plant priming in abiotic stress tolerance has been extensively investigated using different types of molecules that are supplemented exogenously to plant organs (roots, leaves, etc.), resulting in enhanced tolerance of abiotic stress. This review focuses on mechanisms of enhancement of plant stress tolerance in hyperaccumulating plants for their exploitation in phytoextraction processes.
Author Selović, Alisa
Šamec, Dunja
Bešta‐Gajević, Renata
Karalija, Erna
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  givenname: Alisa
  surname: Selović
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  surname: Bešta‐Gajević
  fullname: Bešta‐Gajević, Renata
  organization: University of Sarajevo
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  givenname: Dunja
  surname: Šamec
  fullname: Šamec, Dunja
  organization: University North
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CitedBy_id crossref_primary_10_1111_ppl_13835
crossref_primary_10_3390_agriculture13081472
crossref_primary_10_1002_ldr_4989
crossref_primary_10_3390_su142315879
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Snippet Cadmium (Cd) soil contamination is a global problem for food security due to its ubiquity, toxicity at low levels, persistence, and bioaccumulation in living...
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SubjectTerms Abiotic stress
Acclimation
Acclimatization
Bioaccumulation
Cadmium
Drinking water
Exploitation
Food chains
Food contamination
Food security
Groundwater
Heavy metals
Plant stress
Priming
Sediment pollution
Soil contamination
Soil pollution
Surface water
Surface-groundwater relations
Toxicity
Title Thinking for the future: Phytoextraction of cadmium using primed plants for sustainable soil clean‐up
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