TY - JOUR
T1 - Holistic Evaluation Method for Concept-Level Study of Power-to-Liquids Technologies for e-Kerosene Production
AU - Nyholm, Fredrik
AU - Toppinen, Sami
AU - Saxen, Henrik
PY - 2024/11/20
Y1 - 2024/11/20
N2 - The growing interest in power-to-liquids (PtL) due to the worsening climate crisis is leading to a growing number of new technologies and process concepts being developed, including electrolyzers, liquid synthesis and fuel upgrading processes, along with novel ways of integrating these process units. To make sense of the technologies and systematically assess them, while attaining an understanding of the unique characteristics of each technology and concept, a levelized multicriteria evaluation framework is needed. The present work aims to provide a holistic, hierarchical evaluation method for e-kerosene production pathways and presents a novel and comprehensive approach to evaluating technological efficiency, environmental impact, and economic performance of industrial processes. It explores a selection of indicators, grouped under the 3E performance criteria (engineering, economic and environmental), relevant for PtL technologies for e-kerosene production, and uses them in combination with the Analytical Hierarchy Process to construct a weighted evaluation framework. Focus is put on production of e-kerosene, due to the challenges faced by the aviation industry regarding decarbonization. A spreadsheet modeling approach for generating the inputs to the framework is developed and a process based on the Fischer-Tropsch technology is used as a case-study to demonstrate the modeling approach and evaluation framework. The evaluation framework was developed in previous work of the authors, while the present work provides a deeper elaboration of the framework’s background and offers an initial analysis of its application based on the herein described case study. A detailed description of the methodology is provided. The evaluated process displayed a balanced performance in respect to the indicators, which was expected. A rather heavy weighing toward a few indicators was observed.
AB - The growing interest in power-to-liquids (PtL) due to the worsening climate crisis is leading to a growing number of new technologies and process concepts being developed, including electrolyzers, liquid synthesis and fuel upgrading processes, along with novel ways of integrating these process units. To make sense of the technologies and systematically assess them, while attaining an understanding of the unique characteristics of each technology and concept, a levelized multicriteria evaluation framework is needed. The present work aims to provide a holistic, hierarchical evaluation method for e-kerosene production pathways and presents a novel and comprehensive approach to evaluating technological efficiency, environmental impact, and economic performance of industrial processes. It explores a selection of indicators, grouped under the 3E performance criteria (engineering, economic and environmental), relevant for PtL technologies for e-kerosene production, and uses them in combination with the Analytical Hierarchy Process to construct a weighted evaluation framework. Focus is put on production of e-kerosene, due to the challenges faced by the aviation industry regarding decarbonization. A spreadsheet modeling approach for generating the inputs to the framework is developed and a process based on the Fischer-Tropsch technology is used as a case-study to demonstrate the modeling approach and evaluation framework. The evaluation framework was developed in previous work of the authors, while the present work provides a deeper elaboration of the framework’s background and offers an initial analysis of its application based on the herein described case study. A detailed description of the methodology is provided. The evaluated process displayed a balanced performance in respect to the indicators, which was expected. A rather heavy weighing toward a few indicators was observed.
UR - https://www.webofscience.com/api/gateway?GWVersion=2&SrcApp=aboakademi&SrcAuth=WosAPI&KeyUT=WOS:001349068300001&DestLinkType=FullRecord&DestApp=WOS_CPL
U2 - 10.1021/acs.iecr.4c01959
DO - 10.1021/acs.iecr.4c01959
M3 - Article
SN - 0888-5885
VL - 63
SP - 20264
EP - 20286
JO - Industrial & Engineering Chemistry Research
JF - Industrial & Engineering Chemistry Research
IS - 46
ER -