Nano-aluminum: Transport through sand columns and environmental effects on plants and soil communities
Nano-aluminum is being used in increasing quantities as energetic material. This research addresses the transport of two types of nanosized aluminum particles (with aluminum oxide, or carboxylate ligand coating, Alex and L-Alex, respectively) through sand columns along with associated environmental...
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| Published in: | Environmental research Vol. 106; no. 3; pp. 296 - 303 |
|---|---|
| Main Authors: | , , , , |
| Format: | Journal Article |
| Language: | English |
| Published: |
Netherlands
Elsevier Inc
01.03.2008
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| Subjects: | |
| ISSN: | 0013-9351, 1096-0953 |
| Online Access: | Get full text |
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| Abstract | Nano-aluminum is being used in increasing quantities as energetic material. This research addresses the transport of two types of nanosized aluminum particles (with aluminum oxide, or carboxylate ligand coating, Alex and L-Alex, respectively) through sand columns along with associated environmental impacts on soil systems. Surface phenomena and pH are variables controlling the transport of nano-aluminum particles through porous media. pH environment controls solubility and electrostatic interactions between nano-aluminum particles and porous media. (i.e., changes in point of zero charge, agglomeration, etc.). Concentrations (up to 17
mg/L) far greater than the World Health Organization guideline for Al in drinking water (0.2
mg/L) were measured in columns’ leachates. Plant uptake studies, mineralization of radiolabeled glucose test and Microtox test were used to investigate the environmental impacts of nano-aluminum on soil communities and plants. It appears that the presence of nano-aluminum particles did not have an adverse effect on the growth of California red kidney bean (
Phaseolus vulgaris) and rye grass (
Lolium perenne) plants in the concentration range tested. California red beans did not show uptake of aluminum, while the situation was different for rye grass where a 2.5-fold increase in Al concentration in the leaves was observed as compared with control tests. Nano-aluminum particles in suspension do not appear to have an impact on the metabolic activity of
Vibrio fischeri. However, when the nano-aluminum particles were amended to the soil, Alex aluminum resulted in a 50% reduction of light output at concentrations below 5000
mg/L soil suspension concentration while L-Alex showed a similar effect at around 17,500
mg/L and the control soil at 37,500
mg/L. Soil respiration studies show that there are not statistical differences between the time and sizes of peaks in CO
2 production and the total mineralization of glucose. |
|---|---|
| AbstractList | Nano-aluminum is being used in increasing quantities as energetic material. This research addresses the transport of two types of nanosized aluminum particles (with aluminum oxide, or carboxylate ligand coating, Alex and L-Alex, respectively) through sand columns along with associated environmental impacts on soil systems. Surface phenomena and pH are variables controlling the transport of nano-aluminum particles through porous media. pH environment controls solubility and electrostatic interactions between nano-aluminum particles and porous media. (i.e., changes in point of zero charge, agglomeration, etc.). Concentrations (up to 17mg/L) far greater than the World Health Organization guideline for Al in drinking water (0.2mg/L) were measured in columns' leachates. Plant uptake studies, mineralization of radiolabeled glucose test and Microtox test were used to investigate the environmental impacts of nano-aluminum on soil communities and plants. It appears that the presence of nano-aluminum particles did not have an adverse effect on the growth of California red kidney bean (Phaseolus vulgaris) and rye grass (Lolium perenne) plants in the concentration range tested. California red beans did not show uptake of aluminum, while the situation was different for rye grass where a 2.5-fold increase in Al concentration in the leaves was observed as compared with control tests. Nano-aluminum particles in suspension do not appear to have an impact on the metabolic activity of Vibrio fischeri. However, when the nano-aluminum particles were amended to the soil, Alex aluminum resulted in a 50% reduction of light output at concentrations below 5000mg/L soil suspension concentration while L-Alex showed a similar effect at around 17,500mg/L and the control soil at 37,500mg/L. Soil respiration studies show that there are not statistical differences between the time and sizes of peaks in CO sub(2) production and the total mineralization of glucose. The fate and transport of two types of nano-aluminum particles in subsurface environments as well as potential environmental impacts of these particles were explored. The nano-aluminum particles used were 100 nm in size. Plant uptake studies, mineralization of radiolabeled glucose test and Microtox test were used to investigate the environmental impacts of nano-aluminum on soil communities and plants. The results showed that nano-aluminum particles coated with Al sub(2)O sub(3) leached out larger amounts of Al than L-Alex particles. No differences in plant growth between aluminum amended and non-amended control soils were observed. The results concluded that a complete evaluation of plant growth required a very large number of replicates and measurements of dry and humid biomass over time. Nano-aluminum is being used in increasing quantities as energetic material. This research addresses the transport of two types of nanosized aluminum particles (with aluminum oxide, or carboxylate ligand coating, Alex and L-Alex, respectively) through sand columns along with associated environmental impacts on soil systems. Surface phenomena and pH are variables controlling the transport of nano-aluminum particles through porous media. pH environment controls solubility and electrostatic interactions between nano-aluminum particles and porous media. (i.e., changes in point of zero charge, agglomeration, etc.). Concentrations (up to 17 mg/L) far greater than the World Health Organization guideline for Al in drinking water (0.2 mg/L) were measured in columns' leachates. Plant uptake studies, mineralization of radiolabeled glucose test and Microtox test were used to investigate the environmental impacts of nano-aluminum on soil communities and plants. It appears that the presence of nano-aluminum particles did not have an adverse effect on the growth of California red kidney bean (Phaseolus vulgaris) and rye grass (Lolium perenne) plants in the concentration range tested. California red beans did not show uptake of aluminum, while the situation was different for rye grass where a 2.5-fold increase in Al concentration in the leaves was observed as compared with control tests. Nano-aluminum particles in suspension do not appear to have an impact on the metabolic activity of Vibrio fischeri. However, when the nano-aluminum particles were amended to the soil, Alex aluminum resulted in a 50% reduction of light output at concentrations below 5000 mg/L soil suspension concentration while L-Alex showed a similar effect at around 17,500 mg/L and the control soil at 37,500 mg/L. Soil respiration studies show that there are not statistical differences between the time and sizes of peaks in CO(2) production and the total mineralization of glucose. Nano-aluminum is being used in increasing quantities as energetic material. This research addresses the transport of two types of nanosized aluminum particles (with aluminum oxide, or carboxylate ligand coating, Alex and L-Alex, respectively) through sand columns along with associated environmental impacts on soil systems. Surface phenomena and pH are variables controlling the transport of nano-aluminum particles through porous media. pH environment controls solubility and electrostatic interactions between nano-aluminum particles and porous media. (i.e., changes in point of zero charge, agglomeration, etc.). Concentrations (up to 17 mg/L) far greater than the World Health Organization guideline for Al in drinking water (0.2 mg/L) were measured in columns’ leachates. Plant uptake studies, mineralization of radiolabeled glucose test and Microtox test were used to investigate the environmental impacts of nano-aluminum on soil communities and plants. It appears that the presence of nano-aluminum particles did not have an adverse effect on the growth of California red kidney bean ( Phaseolus vulgaris) and rye grass ( Lolium perenne) plants in the concentration range tested. California red beans did not show uptake of aluminum, while the situation was different for rye grass where a 2.5-fold increase in Al concentration in the leaves was observed as compared with control tests. Nano-aluminum particles in suspension do not appear to have an impact on the metabolic activity of Vibrio fischeri. However, when the nano-aluminum particles were amended to the soil, Alex aluminum resulted in a 50% reduction of light output at concentrations below 5000 mg/L soil suspension concentration while L-Alex showed a similar effect at around 17,500 mg/L and the control soil at 37,500 mg/L. Soil respiration studies show that there are not statistical differences between the time and sizes of peaks in CO 2 production and the total mineralization of glucose. Nano-aluminum is being used in increasing quantities as energetic material. This research addresses the transport of two types of nanosized aluminum particles (with aluminum oxide, or carboxylate ligand coating, Alex and L-Alex, respectively) through sand columns along with associated environmental impacts on soil systems. Surface phenomena and pH are variables controlling the transport of nano-aluminum particles through porous media. pH environment controls solubility and electrostatic interactions between nano-aluminum particles and porous media. (i.e., changes in point of zero charge, agglomeration, etc.). Concentrations (up to 17 mg/L) far greater than the World Health Organization guideline for Al in drinking water (0.2 mg/L) were measured in columns' leachates. Plant uptake studies, mineralization of radiolabeled glucose test and Microtox test were used to investigate the environmental impacts of nano-aluminum on soil communities and plants. It appears that the presence of nano-aluminum particles did not have an adverse effect on the growth of California red kidney bean (Phaseolus vulgaris) and rye grass (Lolium perenne) plants in the concentration range tested. California red beans did not show uptake of aluminum, while the situation was different for rye grass where a 2.5-fold increase in Al concentration in the leaves was observed as compared with control tests. Nano-aluminum particles in suspension do not appear to have an impact on the metabolic activity of Vibrio fischeri. However, when the nano-aluminum particles were amended to the soil, Alex aluminum resulted in a 50% reduction of light output at concentrations below 5000 mg/L soil suspension concentration while L-Alex showed a similar effect at around 17,500 mg/L and the control soil at 37,500 mg/L. Soil respiration studies show that there are not statistical differences between the time and sizes of peaks in CO(2) production and the total mineralization of glucose.Nano-aluminum is being used in increasing quantities as energetic material. This research addresses the transport of two types of nanosized aluminum particles (with aluminum oxide, or carboxylate ligand coating, Alex and L-Alex, respectively) through sand columns along with associated environmental impacts on soil systems. Surface phenomena and pH are variables controlling the transport of nano-aluminum particles through porous media. pH environment controls solubility and electrostatic interactions between nano-aluminum particles and porous media. (i.e., changes in point of zero charge, agglomeration, etc.). Concentrations (up to 17 mg/L) far greater than the World Health Organization guideline for Al in drinking water (0.2 mg/L) were measured in columns' leachates. Plant uptake studies, mineralization of radiolabeled glucose test and Microtox test were used to investigate the environmental impacts of nano-aluminum on soil communities and plants. It appears that the presence of nano-aluminum particles did not have an adverse effect on the growth of California red kidney bean (Phaseolus vulgaris) and rye grass (Lolium perenne) plants in the concentration range tested. California red beans did not show uptake of aluminum, while the situation was different for rye grass where a 2.5-fold increase in Al concentration in the leaves was observed as compared with control tests. Nano-aluminum particles in suspension do not appear to have an impact on the metabolic activity of Vibrio fischeri. However, when the nano-aluminum particles were amended to the soil, Alex aluminum resulted in a 50% reduction of light output at concentrations below 5000 mg/L soil suspension concentration while L-Alex showed a similar effect at around 17,500 mg/L and the control soil at 37,500 mg/L. Soil respiration studies show that there are not statistical differences between the time and sizes of peaks in CO(2) production and the total mineralization of glucose. |
| Author | Braida, Washington O’Connor, Gregory Doshi, Reeti Wazne, Mahmoud Christodoulatos, Christos |
| Author_xml | – sequence: 1 givenname: Reeti surname: Doshi fullname: Doshi, Reeti email: rdoshi2@stevens.edu organization: Center for Environmental System, Stevens Institute of Technology, Hoboken, NJ 07030, USA – sequence: 2 givenname: Washington surname: Braida fullname: Braida, Washington email: wbraida@stevens.edu organization: Center for Environmental System, Stevens Institute of Technology, Hoboken, NJ 07030, USA – sequence: 3 givenname: Christos surname: Christodoulatos fullname: Christodoulatos, Christos email: christod@stevens.edu organization: Center for Environmental System, Stevens Institute of Technology, Hoboken, NJ 07030, USA – sequence: 4 givenname: Mahmoud surname: Wazne fullname: Wazne, Mahmoud email: mwazne@stevens.edu organization: Center for Environmental System, Stevens Institute of Technology, Hoboken, NJ 07030, USA – sequence: 5 givenname: Gregory surname: O’Connor fullname: O’Connor, Gregory email: goconnor@pica.army.mil organization: US Army, Environmental Technology Division, Picatinny, NJ 07806, USA |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/17537426$$D View this record in MEDLINE/PubMed |
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| Cites_doi | 10.2172/658208 10.1016/j.reprotox.2005.06.004 10.1016/j.aquatox.2005.12.006 10.1021/es0352303 10.1186/1467-4866-4-34 10.1061/(ASCE)0733-9372(2004)130:7(723) 10.1016/0016-7037(78)90024-8 10.1016/j.chemosphere.2005.07.056 |
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| Keywords | Nano-aluminum Microtox Transport Soil respiration Plant uptake |
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| Snippet | Nano-aluminum is being used in increasing quantities as energetic material. This research addresses the transport of two types of nanosized aluminum particles... The fate and transport of two types of nano-aluminum particles in subsurface environments as well as potential environmental impacts of these particles were... |
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| SubjectTerms | Aliivibrio fischeri - drug effects Aliivibrio fischeri - metabolism Aluminum Oxide - chemistry Aluminum Oxide - pharmacokinetics Aluminum Oxide - toxicity Ecotoxicology Fabaceae - drug effects Fabaceae - growth & development Fabaceae - metabolism Glucose - metabolism Hydrogen-Ion Concentration Lolium - drug effects Lolium - metabolism Lolium perenne Metal Nanoparticles - chemistry Metal Nanoparticles - toxicity Microtox Nano-aluminum Phaseolus vulgaris Plant uptake Soil Microbiology Soil Pollutants - chemistry Soil Pollutants - pharmacokinetics Soil Pollutants - toxicity Soil respiration Solubility Transport Vibrio fischeri |
| Title | Nano-aluminum: Transport through sand columns and environmental effects on plants and soil communities |
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