Delivery, uptake, fate, and transport of engineered nanoparticles in plants: a critical review and data analysis

The increasing demand for food coupled to various environmental pressures, is increasing the importance of sustainable agricultural practices. Based on results published across a wide range of disciplines, it is becoming evident that nanotechnology can play a crucial role in increasing the sustainab...

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Published inEnvironmental science. Nano Vol. 6; no. 8; pp. 2311 - 2331
Main Authors Su, Yiming, Ashworth, Vanessa, Kim, Caroline, Adeleye, Adeyemi S, Rolshausen, Philippe, Roper, Caroline, White, Jason, Jassby, David
Format Journal Article
LanguageEnglish
Published Cambridge Royal Society of Chemistry 2019
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Abstract The increasing demand for food coupled to various environmental pressures, is increasing the importance of sustainable agricultural practices. Based on results published across a wide range of disciplines, it is becoming evident that nanotechnology can play a crucial role in increasing the sustainability of agriculture, particularly in the area of fertilizer delivery, gene modification, and pest control. In this paper, we review critical plant morphological and physiological indices (pore size in xylem and phloem, xylem/phloem sap composition, xylem/phloem sap flow rate and flow conducting area) for nanoparticle (NP) transport, and examine the efficacy of various delivery methods for NPs (foliar application, root application, and feeding/injecting directly into plant tissue) with an emphasis on NP transport efficiency throughout the entire plant. While only few studies have explored the feeding/injection of NPs, these application pathways are the most efficient in terms of delivery, indicating their practical potential ( e.g. , for agrochemical delivery). In contrast, when applied via soil drenching or foliar spraying, the majority of the applied NPs are not taken up by the plants. However, those NPs that do penetrate the plant exhibit efficient transport from leaf to root, and vice versa . Of these two application methods, foliar application appears to be more effective in both NP delivery and transport than soil drenching. To further explain the data reported in the literature and to study the transport processes of NPs throughout the plant, we applied the Derjaguin-Landau-Verwey-Overbeek model to study the interactions of NPs with the surfaces of the plant vascular system (xylem and phloem), by which these NPs are transported throughout the plant structure. We found that the interaction energy between negatively charged NPs and plant tissue is positive, indicating that these NPs can effectively transport. We discuss future research needs regarding NP transport, which will enable effective utilization of NPs for different agricultural applications. The increasing demand for food coupled to various environmental pressures, is increasing the importance of sustainable agricultural practices.
AbstractList The increasing demand for food coupled to various environmental pressures, is increasing the importance of sustainable agricultural practices. Based on results published across a wide range of disciplines, it is becoming evident that nanotechnology can play a crucial role in increasing the sustainability of agriculture, particularly in the area of fertilizer delivery, gene modification, and pest control. In this paper, we review critical plant morphological and physiological indices (pore size in xylem and phloem, xylem/phloem sap composition, xylem/phloem sap flow rate and flow conducting area) for nanoparticle (NP) transport, and examine the efficacy of various delivery methods for NPs (foliar application, root application, and feeding/injecting directly into plant tissue) with an emphasis on NP transport efficiency throughout the entire plant. While only few studies have explored the feeding/injection of NPs, these application pathways are the most efficient in terms of delivery, indicating their practical potential (e.g., for agrochemical delivery). In contrast, when applied via soil drenching or foliar spraying, the majority of the applied NPs are not taken up by the plants. However, those NPs that do penetrate the plant exhibit efficient transport from leaf to root, and vice versa. Of these two application methods, foliar application appears to be more effective in both NP delivery and transport than soil drenching. To further explain the data reported in the literature and to study the transport processes of NPs throughout the plant, we applied the Derjaguin–Landau–Verwey–Overbeek model to study the interactions of NPs with the surfaces of the plant vascular system (xylem and phloem), by which these NPs are transported throughout the plant structure. We found that the interaction energy between negatively charged NPs and plant tissue is positive, indicating that these NPs can effectively transport. We discuss future research needs regarding NP transport, which will enable effective utilization of NPs for different agricultural applications.
The increasing demand for food coupled to various environmental pressures, is increasing the importance of sustainable agricultural practices. Based on results published across a wide range of disciplines, it is becoming evident that nanotechnology can play a crucial role in increasing the sustainability of agriculture, particularly in the area of fertilizer delivery, gene modification, and pest control. In this paper, we review critical plant morphological and physiological indices (pore size in xylem and phloem, xylem/phloem sap composition, xylem/phloem sap flow rate and flow conducting area) for nanoparticle (NP) transport, and examine the efficacy of various delivery methods for NPs (foliar application, root application, and feeding/injecting directly into plant tissue) with an emphasis on NP transport efficiency throughout the entire plant. While only few studies have explored the feeding/injection of NPs, these application pathways are the most efficient in terms of delivery, indicating their practical potential ( e.g. , for agrochemical delivery). In contrast, when applied via soil drenching or foliar spraying, the majority of the applied NPs are not taken up by the plants. However, those NPs that do penetrate the plant exhibit efficient transport from leaf to root, and vice versa . Of these two application methods, foliar application appears to be more effective in both NP delivery and transport than soil drenching. To further explain the data reported in the literature and to study the transport processes of NPs throughout the plant, we applied the Derjaguin-Landau-Verwey-Overbeek model to study the interactions of NPs with the surfaces of the plant vascular system (xylem and phloem), by which these NPs are transported throughout the plant structure. We found that the interaction energy between negatively charged NPs and plant tissue is positive, indicating that these NPs can effectively transport. We discuss future research needs regarding NP transport, which will enable effective utilization of NPs for different agricultural applications. The increasing demand for food coupled to various environmental pressures, is increasing the importance of sustainable agricultural practices.
The increasing demand for food coupled to various environmental pressures, is increasing the importance of sustainable agricultural practices. Based on results published across a wide range of disciplines, it is becoming evident that nanotechnology can play a crucial role in increasing the sustainability of agriculture, particularly in the area of fertilizer delivery, gene modification, and pest control. In this paper, we review critical plant morphological and physiological indices (pore size in xylem and phloem, xylem/phloem sap composition, xylem/phloem sap flow rate and flow conducting area) for nanoparticle (NP) transport, and examine the efficacy of various delivery methods for NPs (foliar application, root application, and feeding/injecting directly into plant tissue) with an emphasis on NP transport efficiency throughout the entire plant. While only few studies have explored the feeding/injection of NPs, these application pathways are the most efficient in terms of delivery, indicating their practical potential ( e.g. , for agrochemical delivery). In contrast, when applied via soil drenching or foliar spraying, the majority of the applied NPs are not taken up by the plants. However, those NPs that do penetrate the plant exhibit efficient transport from leaf to root, and vice versa . Of these two application methods, foliar application appears to be more effective in both NP delivery and transport than soil drenching. To further explain the data reported in the literature and to study the transport processes of NPs throughout the plant, we applied the Derjaguin–Landau–Verwey–Overbeek model to study the interactions of NPs with the surfaces of the plant vascular system (xylem and phloem), by which these NPs are transported throughout the plant structure. We found that the interaction energy between negatively charged NPs and plant tissue is positive, indicating that these NPs can effectively transport. We discuss future research needs regarding NP transport, which will enable effective utilization of NPs for different agricultural applications.
Author Su, Yiming
Roper, Caroline
White, Jason
Rolshausen, Philippe
Jassby, David
Ashworth, Vanessa
Kim, Caroline
Adeleye, Adeyemi S
AuthorAffiliation Department of Civil and Environmental Engineering
Department of Analytical Chemistry
University of California
Department of Botany and Plant Sciences
The Connecticut Agricultural Experiment Station
Department of Plant Pathology
AuthorAffiliation_xml – sequence: 0
  name: Department of Plant Pathology
– sequence: 0
  name: The Connecticut Agricultural Experiment Station
– sequence: 0
  name: University of California
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  name: Department of Civil and Environmental Engineering
– sequence: 0
  name: Department of Analytical Chemistry
– sequence: 0
  name: Department of Botany and Plant Sciences
Author_xml – sequence: 1
  givenname: Yiming
  surname: Su
  fullname: Su, Yiming
– sequence: 2
  givenname: Vanessa
  surname: Ashworth
  fullname: Ashworth, Vanessa
– sequence: 3
  givenname: Caroline
  surname: Kim
  fullname: Kim, Caroline
– sequence: 4
  givenname: Adeyemi S
  surname: Adeleye
  fullname: Adeleye, Adeyemi S
– sequence: 5
  givenname: Philippe
  surname: Rolshausen
  fullname: Rolshausen, Philippe
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  fullname: Roper, Caroline
– sequence: 7
  givenname: Jason
  surname: White
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– sequence: 8
  givenname: David
  surname: Jassby
  fullname: Jassby, David
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Snippet The increasing demand for food coupled to various environmental pressures, is increasing the importance of sustainable agricultural practices. Based on results...
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SubjectTerms Agricultural practices
Agrochemicals
Circulatory system
Data analysis
energy
environmental science
Feeding
Fertilizers
Flow velocity
genes
Genetic modification
leaves
Methods
Nanoparticles
Nanotechnology
Pest control
Phloem
Plant structures
Plant tissues
Pore size
Porosity
sap
sap flow
Soil
Soils
Spraying
Sustainability
Sustainable agriculture
Sustainable practices
Tissue
Transport
Transport processes
Uptake
Vascular system (plant anatomy)
Xylem
Title Delivery, uptake, fate, and transport of engineered nanoparticles in plants: a critical review and data analysis
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