8. Conclusions and Recommendations In conclusion, the specific surface area, the maximum monolayer capacity, and the Langmuir nm, constant, were calculated for this particular activated carbon sample, 16hr glucose char. The b, specific surface area was calculated to be 8.737E15m2g-1. The maximum capacity was calculated to be, 2.455E-4mol/g. And the Langmuir constant, was calculated to be 40.34. b, For future teams it is suggested that they construct their own isotherm and merge it with these data to create a more accurate isotherm. It is also recommended that they calculate the adsorption coefficient of the char using data obtained from the isotherm. 9. References Yang, R. T. (Wiley, 2003). Adsorbents: fundamentals and applications. Henley, E.J., Seader, J.D. (Wiley, 1998). Separation Process Principles. Bhatt, A. S., Sakaria P. L., Vasudevan, M., Pawar, R. R., Sudheesh, N., Bajaj H. C., Mody, H. M. Adsorption of an anionic dye from aqueous medium by organoclays: (RSC Advances, 2012) equilibrium modeling, kinetic and thermodynamic exploration. Marsh, H., Rodriguez-Reinoso, F. (Elsevier Science and Technology Activated Carbon. books, 2006) Bansal, R. C., M. (Taylor & Francis, 2005) Activated Carbon Adsorption. Escapa, S. (WPI, 2016) Copper Adsorption on Carbon Surfaces. Seidel, A., Kroschwitz, J. I. (Wiley, Kirk-Othmer Encyclopedia of Chemical Technology. 2004-2007)
8. Conclusions and Recommendations In conclusion, the specific surface area, the maximum monolayer capacity, nm, and the Langmuir constant, b, were calculated for this particular activated carbon sample, 16hr glucose char. The specific surface area was calculated to be 8.737E15m2g-1. The maximum capacity was calculated to be, 2.455E-4mol/g. And the Langmuir constant, b, was calculated to be 40.34. For future teams it is suggested that they construct their own isotherm and merge it with these data to create a more accurate isotherm. It is also recommended that they calculate the adsorption coefficient of the char using data obtained from the isotherm. 9. References Yang, R. T. Adsorbents: fundamentals and applications. (Wiley, 2003). Henley, E.J., Seader, J.D. Separation Process Principles. (Wiley, 1998). Bhatt, A. S., Sakaria P. L., Vasudevan, M., Pawar, R. R., Sudheesh, N., Bajaj H. C., Mody, H. M. Adsorption of an anionic dye from aqueous medium by organoclays: equilibrium modeling, kinetic and thermodynamic exploration. (RSC Advances, 2012) Marsh, H., Rodriguez-Reinoso, F. Activated Carbon. (Elsevier Science and Technology books, 2006) Bansal, R. C., M. Activated Carbon Adsorption. (Taylor & Francis, 2005) Escapa, S. Copper Adsorption on Carbon Surfaces. (WPI, 2016) Seidel, A., Kroschwitz, J. I. Kirk-Othmer Encyclopedia of Chemical Technology. (Wiley, 2004-2007)
Characterization_of_Activated_Carbon_sample-_Cu+2_Adsorption_Isotherm_.docx