Removal of Petroleum Aromatic Hydrocarbons by Surfactant-modified Natural Zeolite: The Effect of Surfactant

Monoaromatic hydrocarbons including benzene, toluene, ethylbenzene and xylene isomers (BTEX) are a very important category of water pollutants. These volatile compounds are very hazardous because of their fast migration in soil and water bodies and their acute and chronic toxicities when inhaled or...

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Veröffentlicht in:Clean : soil, air, water air, water, 2010-01, Vol.38 (1), p.77-83
Hauptverfasser: Torabian, Ali, Kazemian, Hossein, Seifi, Laleh, Bidhendi, Gholamreza Nabi, Azimi, Ali Akbar, Ghadiri, Seid Kamal
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container_issue 1
container_start_page 77
container_title Clean : soil, air, water
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creator Torabian, Ali
Kazemian, Hossein
Seifi, Laleh
Bidhendi, Gholamreza Nabi
Azimi, Ali Akbar
Ghadiri, Seid Kamal
description Monoaromatic hydrocarbons including benzene, toluene, ethylbenzene and xylene isomers (BTEX) are a very important category of water pollutants. These volatile compounds are very hazardous because of their fast migration in soil and water bodies and their acute and chronic toxicities when inhaled or ingested, especially benzene which is a known carcinogenic molecule. In this study, a natural zeolite (i. e., clinoptilolite‐rich tuffs) was modified by two cationic surfactants (i. e., hexadecyltrimethyl ammonium chloride (HDTMA‐Cl), and N‐cetylpyridinium bromide (CPB)). The prepared adsorbents were then characterized, and their adsorptive capabilities for BTEX examined at different experimental conditions. The results of adsorption tests at 24 h revealed that the adsorption capacity of the modified zeolites improved by increasing the surfactant loading (i. e., less than the critical micelle concentration (CMC), to higher than the CMC), which caused an increase in sorption capacity from 60 to 70% for HDTMA‐modified samples, and from 47 to 99% for CPB‐modified zeolite. Adsorption kinetic tests showed the optimum contact time was 48 h with an average BTEX removal of 90 and 93% for HDTMA‐modified and CPB‐modified zeolite, respectively. Results showed that by increasing of pH from 3 to 11, the sorption capacity of the adsorbent decreased markedly from 97 to 75%. Analyzing the influence of temperature showed that the adsorption efficiency of adsorbents for benzene reduced from 93% at 20°C to 10% at 4°C. However, the influence of temperature on other compounds was not remarkable. Overall, CPB‐modified zeolite exhibited higher selectivity toward BTEX compounds at optimum experimental conditions. Although commercial powder activated carbon (PAC) showed a higher capacity for all BTEX compounds and faster adsorption kinetics, the adsorption capacity of the CPB‐modified zeolite at optimized conditions was competitive with PAC results. Research Articles: Benzene, toluene, ethylbenzene and xylene isomers (BTEX) are hazardous because of their fast migration in soil and water bodies and their acute and chronic toxicity. In this study, a natural zeolite was modified by two cationic surfactants for use as an adsorbent. The prepared adsorbents were characterized, and their adsorptive capabilities for BTEX were examined using different experimental conditions.
doi_str_mv 10.1002/clen.200900157
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These volatile compounds are very hazardous because of their fast migration in soil and water bodies and their acute and chronic toxicities when inhaled or ingested, especially benzene which is a known carcinogenic molecule. In this study, a natural zeolite (i. e., clinoptilolite‐rich tuffs) was modified by two cationic surfactants (i. e., hexadecyltrimethyl ammonium chloride (HDTMA‐Cl), and N‐cetylpyridinium bromide (CPB)). The prepared adsorbents were then characterized, and their adsorptive capabilities for BTEX examined at different experimental conditions. The results of adsorption tests at 24 h revealed that the adsorption capacity of the modified zeolites improved by increasing the surfactant loading (i. e., less than the critical micelle concentration (CMC), to higher than the CMC), which caused an increase in sorption capacity from 60 to 70% for HDTMA‐modified samples, and from 47 to 99% for CPB‐modified zeolite. Adsorption kinetic tests showed the optimum contact time was 48 h with an average BTEX removal of 90 and 93% for HDTMA‐modified and CPB‐modified zeolite, respectively. Results showed that by increasing of pH from 3 to 11, the sorption capacity of the adsorbent decreased markedly from 97 to 75%. Analyzing the influence of temperature showed that the adsorption efficiency of adsorbents for benzene reduced from 93% at 20°C to 10% at 4°C. However, the influence of temperature on other compounds was not remarkable. Overall, CPB‐modified zeolite exhibited higher selectivity toward BTEX compounds at optimum experimental conditions. Although commercial powder activated carbon (PAC) showed a higher capacity for all BTEX compounds and faster adsorption kinetics, the adsorption capacity of the CPB‐modified zeolite at optimized conditions was competitive with PAC results. 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These volatile compounds are very hazardous because of their fast migration in soil and water bodies and their acute and chronic toxicities when inhaled or ingested, especially benzene which is a known carcinogenic molecule. In this study, a natural zeolite (i. e., clinoptilolite‐rich tuffs) was modified by two cationic surfactants (i. e., hexadecyltrimethyl ammonium chloride (HDTMA‐Cl), and N‐cetylpyridinium bromide (CPB)). The prepared adsorbents were then characterized, and their adsorptive capabilities for BTEX examined at different experimental conditions. The results of adsorption tests at 24 h revealed that the adsorption capacity of the modified zeolites improved by increasing the surfactant loading (i. e., less than the critical micelle concentration (CMC), to higher than the CMC), which caused an increase in sorption capacity from 60 to 70% for HDTMA‐modified samples, and from 47 to 99% for CPB‐modified zeolite. 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subjects Adsorption
BTEX
Cationic surfactants
Earth sciences
Earth, ocean, space
Exact sciences and technology
Hydrology
Hydrology. Hydrogeology
Powder activated carbon
Surfactant-modified zeolite
title Removal of Petroleum Aromatic Hydrocarbons by Surfactant-modified Natural Zeolite: The Effect of Surfactant
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