Adsorption of chlorpheniramine and ibuprofen on surface functionalized activated carbons from deionized water and spiked hospital wastewater

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Abstract

Activated carbon (AC) was prepared from date palm leaflets via KOH activation. AC was oxidized with HNO3 to produce oxidized activated carbon (OAC) that was surface functionalized using ethylene diamine to produce basic surface (BAC-EDA) and ethylamine to produce hydrophobic carbonaceous surface (HAC-EA). Details of preparation and characterization was published earlier. The adsorption of chlorpheniramine (CP), a basic drug, and ibuprofen (IBU), an acidic drug, on these carbons was investigated at different initial pH, contact time, drug concentration and temperature. Drug adsorption depends mainly on solution pH and the adsorbent surface nature, and initial pH 7 was found optimal for the removal of both drugs. Equilibrium adsorption was reached faster on HAC-EA, OAC and BAC-EDA than on AC with kinetic adsorption data following well pseudo second order model, and enhanced performance as temperature rises. Activation energy (Ea) was found to be in the range of 11.7-29.1 kJ/mol. Equilibrium adsorption data follow well the Langmuir model with better performance as temperature rises. CP uptake follows the order: HAC-EA > OAC > AC > BAC-EDA whereas the adsorption of IBU follows the order: OAC > AC>HAC-EA > BAC-EDA. Thermodynamic parameters showed that drug adsorption is endothermic and spontaneous. Drug adsorption from spiked hospital wastewater showed slightly less capacity than that from deionized water. Dominant adsorption forces between the drugs and the carbons varied from carbon to another depending on their surface nature and solution pH.

Original languageEnglish
Article number102860
JournalJournal of Environmental Chemical Engineering
Volume7
Issue number1
DOIs
Publication statusPublished - Feb 1 2019

Fingerprint

Chlorpheniramine
Deionized water
Ibuprofen
Activated carbon
activated carbon
Wastewater
drug
adsorption
Adsorption
wastewater
Pharmaceutical Preparations
water
Carbon
carbon
hospital
Diamines
temperature
activation energy
Temperature
Adsorbents

Keywords

  • Activated carbon
  • Adsorption
  • Chlorpheniramine
  • Functionalization
  • Ibuprofen

ASJC Scopus subject areas

  • Chemical Engineering (miscellaneous)
  • Waste Management and Disposal
  • Pollution
  • Process Chemistry and Technology

Cite this

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title = "Adsorption of chlorpheniramine and ibuprofen on surface functionalized activated carbons from deionized water and spiked hospital wastewater",
abstract = "Activated carbon (AC) was prepared from date palm leaflets via KOH activation. AC was oxidized with HNO3 to produce oxidized activated carbon (OAC) that was surface functionalized using ethylene diamine to produce basic surface (BAC-EDA) and ethylamine to produce hydrophobic carbonaceous surface (HAC-EA). Details of preparation and characterization was published earlier. The adsorption of chlorpheniramine (CP), a basic drug, and ibuprofen (IBU), an acidic drug, on these carbons was investigated at different initial pH, contact time, drug concentration and temperature. Drug adsorption depends mainly on solution pH and the adsorbent surface nature, and initial pH 7 was found optimal for the removal of both drugs. Equilibrium adsorption was reached faster on HAC-EA, OAC and BAC-EDA than on AC with kinetic adsorption data following well pseudo second order model, and enhanced performance as temperature rises. Activation energy (Ea) was found to be in the range of 11.7-29.1 kJ/mol. Equilibrium adsorption data follow well the Langmuir model with better performance as temperature rises. CP uptake follows the order: HAC-EA > OAC > AC > BAC-EDA whereas the adsorption of IBU follows the order: OAC > AC>HAC-EA > BAC-EDA. Thermodynamic parameters showed that drug adsorption is endothermic and spontaneous. Drug adsorption from spiked hospital wastewater showed slightly less capacity than that from deionized water. Dominant adsorption forces between the drugs and the carbons varied from carbon to another depending on their surface nature and solution pH.",
keywords = "Activated carbon, Adsorption, Chlorpheniramine, Functionalization, Ibuprofen",
author = "Ali, {Syeda N.F.} and El-Said El-Shafey and {Al Busafi}, Saleh and {Al Lawati}, Haider",
year = "2019",
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T1 - Adsorption of chlorpheniramine and ibuprofen on surface functionalized activated carbons from deionized water and spiked hospital wastewater

AU - Ali, Syeda N.F.

AU - El-Shafey, El-Said

AU - Al Busafi, Saleh

AU - Al Lawati, Haider

PY - 2019/2/1

Y1 - 2019/2/1

N2 - Activated carbon (AC) was prepared from date palm leaflets via KOH activation. AC was oxidized with HNO3 to produce oxidized activated carbon (OAC) that was surface functionalized using ethylene diamine to produce basic surface (BAC-EDA) and ethylamine to produce hydrophobic carbonaceous surface (HAC-EA). Details of preparation and characterization was published earlier. The adsorption of chlorpheniramine (CP), a basic drug, and ibuprofen (IBU), an acidic drug, on these carbons was investigated at different initial pH, contact time, drug concentration and temperature. Drug adsorption depends mainly on solution pH and the adsorbent surface nature, and initial pH 7 was found optimal for the removal of both drugs. Equilibrium adsorption was reached faster on HAC-EA, OAC and BAC-EDA than on AC with kinetic adsorption data following well pseudo second order model, and enhanced performance as temperature rises. Activation energy (Ea) was found to be in the range of 11.7-29.1 kJ/mol. Equilibrium adsorption data follow well the Langmuir model with better performance as temperature rises. CP uptake follows the order: HAC-EA > OAC > AC > BAC-EDA whereas the adsorption of IBU follows the order: OAC > AC>HAC-EA > BAC-EDA. Thermodynamic parameters showed that drug adsorption is endothermic and spontaneous. Drug adsorption from spiked hospital wastewater showed slightly less capacity than that from deionized water. Dominant adsorption forces between the drugs and the carbons varied from carbon to another depending on their surface nature and solution pH.

AB - Activated carbon (AC) was prepared from date palm leaflets via KOH activation. AC was oxidized with HNO3 to produce oxidized activated carbon (OAC) that was surface functionalized using ethylene diamine to produce basic surface (BAC-EDA) and ethylamine to produce hydrophobic carbonaceous surface (HAC-EA). Details of preparation and characterization was published earlier. The adsorption of chlorpheniramine (CP), a basic drug, and ibuprofen (IBU), an acidic drug, on these carbons was investigated at different initial pH, contact time, drug concentration and temperature. Drug adsorption depends mainly on solution pH and the adsorbent surface nature, and initial pH 7 was found optimal for the removal of both drugs. Equilibrium adsorption was reached faster on HAC-EA, OAC and BAC-EDA than on AC with kinetic adsorption data following well pseudo second order model, and enhanced performance as temperature rises. Activation energy (Ea) was found to be in the range of 11.7-29.1 kJ/mol. Equilibrium adsorption data follow well the Langmuir model with better performance as temperature rises. CP uptake follows the order: HAC-EA > OAC > AC > BAC-EDA whereas the adsorption of IBU follows the order: OAC > AC>HAC-EA > BAC-EDA. Thermodynamic parameters showed that drug adsorption is endothermic and spontaneous. Drug adsorption from spiked hospital wastewater showed slightly less capacity than that from deionized water. Dominant adsorption forces between the drugs and the carbons varied from carbon to another depending on their surface nature and solution pH.

KW - Activated carbon

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