The use of commercial magnetite for the adsorption of fuels in contaminated waters

Nanoparticle applications, such as iron oxides, have advanced in recent years and offer numerous advantages. These include ease of synthesis, magnetism, low toxicity, high adsorption capacity, and affordability. Their magnetic properties make them a promising choice as adsorbents for drugs, pollutants, dyes, oils, and microplastics, simplifying material transport and facilitating recovery from the environment. Water treatment using nanostructured iron oxides is a promising approach for efficient oil removal due to its operational simplicity, low cost, and high oxide removal and recovery efficiency. Since the international use of fuels involves transportation by sea, road, rail or pipeline, and potential spills of these fuels into the environment are difficult to remediate, this study aimed to confirm the effectiveness of the remediation process by adsorbing Brazilian commercial diesel (B8) containing 8% biodiesel and pure biodiesel (B100) on the adsorbent iron oxide, magnetite (Fe3O4). The study investigated the adsorption potential of biodiesel and diesel on iron oxide using Fourier Transform Infrared Spectroscopy (FTIR) and Thermogravimetric Analysis (TGA). The results indicate that biodiesel has a greater affinity for iron oxide compared to diesel. Specifically, magnetite exhibited a maximum adsorption capacity of 25.65% for biodiesel on a solid mass basis. When present with diesel, magnetite adsorbed 16.08% relative to its own mass. The adsorbent can potentially be used for the treatment of fuel-contaminated water.

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Publication Details

Journal
Contribuciones a las Ciencias Sociales
Published
2024-09-26
DOI
https://doi.org/10.55905/revconv.17n.9-346
Primary Topic
Magnetic and Electromagnetic Effects
Type
article
Field-Weighted Citation Impact
0.00

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article

The use of commercial magnetite for the adsorption of fuels in contaminated waters

Edson Antônio da Silva, Maria Hermínia Ferreira Tavares, Helton José Alves, Eduardo de Rossi et al.
Contribuciones a las Ciencias Sociales
Magnetic and Electromagnetic Effects
article

The use of commercial magnetite for the adsorption of fuels in contaminated waters

Edson Antônio da Silva, Maria Hermínia Ferreira Tavares, Helton José Alves, Eduardo de Rossi, Reinaldo Aparecido Baricatti, Kenia Gabriela dos Santos
article en

Abstract

Nanoparticle applications, such as iron oxides, have advanced in recent years and offer numerous advantages. These include ease of synthesis, magnetism, low toxicity, high adsorption capacity, and affordability. Their magnetic properties make them a promising choice as adsorbents for drugs, pollutants, dyes, oils, and microplastics, simplifying material transport and facilitating recovery from the environment. Water treatment using nanostructured iron oxides is a promising approach for efficient oil removal due to its operational simplicity, low cost, and high oxide removal and recovery efficiency. Since the international use of fuels involves transportation by sea, road, rail or pipeline, and potential spills of these fuels into the environment are difficult to remediate, this study aimed to confirm the effectiveness of the remediation process by adsorbing Brazilian commercial diesel (B8) containing 8% biodiesel and pure biodiesel (B100) on the adsorbent iron oxide, magnetite (Fe3O4). The study investigated the adsorption potential of biodiesel and diesel on iron oxide using Fourier Transform Infrared Spectroscopy (FTIR) and Thermogravimetric Analysis (TGA). The results indicate that biodiesel has a greater affinity for iron oxide compared to diesel. Specifically, magnetite exhibited a maximum adsorption capacity of 25.65% for biodiesel on a solid mass basis. When present with diesel, magnetite adsorbed 16.08% relative to its own mass. The adsorbent can potentially be used for the treatment of fuel-contaminated water.

Contribuciones a las Ciencias SocialesVol. 17(9)
Coordenação de Aperfeiçoamento de Pessoal de Nível Superior
Life below water, Clean water and sanitation
Openalex Percentile: Top 84%
Magnetic and Electromagnetic Effects
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