Pongtorn Charoensuppanimit
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Pongtorn Charoensuppanimit has a total of 41 co-authors. Here are the top co-authors by number of shared publications:
- Suttichai Assabumrungrat
Center of Excellence in Catalysis and Catalytic Reaction Engineering, Department of Chemical Engineering, Faculty of Engineering Chulalongkorn University Bangkok Thailand
7 shared publications Piyawan Thanahiranya
Center of Excellence in Particle and Materials Processing Technology, Department of Chemical Engineering, Faculty of Engineering
6 shared publicationsSuttichai Assabumrungrat
Bio-Circular-Green-economy Technology & Engineering Center (BCGeTEC), Department of Chemical Engineering, Faculty of Engineering
6 shared publicationsApinan Soottitantawat
Center of Excellence in Particle and Materials Processing Technology, Department of Chemical Engineering, Faculty of Engineering, Chulalongkorn University, Bangkok 10330, Thailand; Bio-Circular-Green-economy Technology & Engineering Center (BCGeTEC), Faculty of Engineering, Chulalongkorn University, Bangkok 10330, Thailand
5 shared publicationsBushra Chalermthai
5 shared publicationsJhuma Sadhukhan
Centre for Environment & Sustainability
4 shared publications
Latest Publications
- 19 August 2026
- Published by Elsevier in Bioresource Technology
- Vol. 463
Assessment of chemical looping technologies for ammonia synthesis integrated with biomass pyrolysis and char valorization
- 19 August 2026
- Published by Elsevier in Bioresource Technology
- Vol. 463
Assessment of chemical looping technologies for ammonia synthesis integrated with biomass pyrolysis and char valorization
- 28 May 2026
- Published by Elsevier in Journal of Environmental Chemical Engineering
- Vol. 14 (4)
Mechanistic insights into decoupling calcium and alkalinity in mineralization-assisted MEA regeneration
- 28 May 2026
- Published by Elsevier in Journal of Environmental Chemical Engineering
- Vol. 14 (4)
Mechanistic insights into decoupling calcium and alkalinity in mineralization-assisted MEA regeneration
- Open Access
- 19 May 2026
- Published by American Chemical Society (ACS) in ACS Sustainable Chemistry & Engineering
- Vol. 14 (21) , 9926-9942
Techno-Economic and Sustainability Analysis of Acetin Production from Glycerol Using Low-Cost Indion 225-H Resin as Catalyst
- 19 May 2026
- Published by American Chemical Society (ACS) in ACS Sustainable Chemistry & Engineering
- Vol. 14 (21) , 9926-9942
Open AccessTechno-Economic and Sustainability Analysis of Acetin Production from Glycerol Using Low-Cost Indion 225-H Resin as Catalyst
- Open Access
- 27 February 2026
- Published by American Chemical Society (ACS) in ACS Sustainable Chemistry & Engineering
- Vol. 14 (10) , 5000-5015
Life Cycle Assessment of Diethyl Carbonate (DEC) and Glycerol Carbonate (GC) Coproduction from Bioethanol, CO 2 , and Glycerol
- 27 February 2026
- Published by American Chemical Society (ACS) in ACS Sustainable Chemistry & Engineering
- Vol. 14 (10) , 5000-5015
Open AccessLife Cycle Assessment of Diethyl Carbonate (DEC) and Glycerol Carbonate (GC) Coproduction from Bioethanol, CO 2 , and Glycerol
- 9 April 2025
- Published by Elsevier in Bioresource Technology
- Vol. 429, 132510
Intensified modified fruit blender reactor for emulsifier synthesis via glycerol esterification of free fatty acids at mild conditions
- 9 April 2025
- Published by Elsevier in Bioresource Technology
- Vol. 429, 132510
Intensified modified fruit blender reactor for emulsifier synthesis via glycerol esterification of free fatty acids at mild conditions
- Open Access
- 12 January 2025
- Published by Springer Nature in Scientific Reports
- Vol. 15 (1) , 1-15
Comparative study of conventional and process intensification by reactive distillation designs for glycerol carbonate production from glycerol and diethyl carbonate
Glycerol carbonate (GC) can be produced from glycerol (GL), a low-value byproduct in the biodiesel industry. In this work, continuous processes of GC production via transesterification from crude GL and diethyl carbonate (DEC) were developed using Aspen Plus. Two cases were considered, and their process performances were compared. In Case I, a conventional design consisted of a continuously stirred tank reactor for the reaction section and a distillation column for the purification section. In Case II, a process intensification design consisted of a reactive distillation column that could accommodate both reaction and purification within a single column. In both cases, the process optimizations were carried out by connecting the process models in Aspen Plus to MATLAB, using the Genetic Algorithm as the optimizer. The results showed that Case II was superior to Case I in terms of energy utilization, CO2 emissions, and economics with the specific energy consumption of 1.92 kWh/kg of diethyl carbonate, % internal rate of return of 274, payback period of 1.44 years, and CO2 emissions of 0.26 kg CO2/kg DEC. Lastly, the proposed process in Case II was compared with the GC production using dimethyl carbonate (DMC). It was found that using DEC was superior to DMC due to easier separation and glycidol avoidance.
- 12 January 2025
- Published by Springer Nature in Scientific Reports
- Vol. 15 (1) , 1-15
Open AccessComparative study of conventional and process intensification by reactive distillation designs for glycerol carbonate production from glycerol and diethyl carbonate
Glycerol carbonate (GC) can be produced from glycerol (GL), a low-value byproduct in the biodiesel industry. In this work, continuous processes of GC production via transesterification from crude GL and diethyl carbonate (DEC) were developed using Aspen Plus. Two cases were considered, and their process performances were compared. In Case I, a conventional design consisted of a continuously stirred tank reactor for the reaction section and a distillation column for the purification section. In Case II, a process intensification design consisted of a reactive distillation column that could accommodate both reaction and purification within a single column. In both cases, the process optimizations were carried out by connecting the process models in Aspen Plus to MATLAB, using the Genetic Algorithm as the optimizer. The results showed that Case II was superior to Case I in terms of energy utilization, CO2 emissions, and economics with the specific energy consumption of 1.92 kWh/kg of diethyl carbonate, % internal rate of return of 274, payback period of 1.44 years, and CO2 emissions of 0.26 kg CO2/kg DEC. Lastly, the proposed process in Case II was compared with the GC production using dimethyl carbonate (DMC). It was found that using DEC was superior to DMC due to easier separation and glycidol avoidance.
- 3 March 2024
- Published by Elsevier in Environmental Research
- Vol. 251, 118622
Cradle-to-gate life cycle assessment of Spirulina bioplastic produced via plasticization with glycerol
- 3 March 2024
- Published by Elsevier in Environmental Research
- Vol. 251, 118622
Cradle-to-gate life cycle assessment of Spirulina bioplastic produced via plasticization with glycerol
- 28 November 2023
- Published by American Chemical Society (ACS) in ACS Sustainable Chemistry & Engineering
- Vol. 11 (49) , 17425-17439
Sustainability Assessment of Dihydroxyacetone (DHA) Production from Glycerol: A Comparative Study between Biological and Catalytic Oxidation Routes
- 28 November 2023
- Published by American Chemical Society (ACS) in ACS Sustainable Chemistry & Engineering
- Vol. 11 (49) , 17425-17439
Sustainability Assessment of Dihydroxyacetone (DHA) Production from Glycerol: A Comparative Study between Biological and Catalytic Oxidation Routes