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The FluxMax approach for simultaneous process synthesis and heat integration: Production of hydrogen cyanide

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Resource and energy efficiency are essential in process synthesis of chemical plants as they combine economic with ecological benefits. The two main targets of the process synthesis problem – mass… Click to show full abstract

Resource and energy efficiency are essential in process synthesis of chemical plants as they combine economic with ecological benefits. The two main targets of the process synthesis problem – mass and energy flux optimization – are typically split into two steps: single unit optimization and subsequent energy integration preventing the identification of the globally optimal solution. This article presents a single-step procedure for resource-efficient process synthesis through simultaneous heat and mass flux optimization called FluxMax approach which is demonstrated for the production of hydrogen cyanide (HCN). The impact of simultaneous heat integration on the optimal process structure is demonstrated and two resource-optimal processes for HCN production are identified consisting of a combination of different reactor and recycling strategies reducing total variable cost by 68 %. For convex objective functions, the globally most resource-efficient process is identified highlighting the potential of the FluxMax approach for site planning and retrofitting of existing plants.

Keywords: heat; process; integration; process synthesis; fluxmax approach

Journal Title: AIChE Journal
Year Published: 2019

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