Encapsulation of pomegranate peel bioactive phenolic extract: laboratory proof-of-concept experiment, scale-up computer-aided batch process design, techno-economic feasibility and life cycle analysis

Despite the proven antioxidant potential of Pomegranate Peel Extract (PPE), the lack of scalable, cost-effective, and systematically optimized processes for encapsulating PPE hinders its industrial application. This study presents an integrated laboratory proof-of-concept experiment, computer-aided batch process scale-up simulation, techno-economic assessment (TEA), and life cycle analysis (LCA) of PP bioactive phenolic extract microencapsulation via freeze-drying using a binary Gum Arabic and Maltodextrin wall system. Aspen Batch Process Developer (ABPD) was employed to simulate and scale the process across three production scenarios: mini-pilot (5 kg/day, Case 1), pilot-scale (100 kg/day, Case 2) and industrial-scale (5,000 kg/day, Case 3. The results were validated against experimental data with negligible deviation (MSE = 0.0001; MAPE = 0.06%). Physicochemical characterization confirmed high solubility (96.12%), low water activity (0.28), partial hygroscopicity (12.57%), and strong antioxidant capacity, collectively confirming functional stability for food and nutraceutical applications. TEA revealed progressive economic improvement with scale: Case 3 achieved the highest NPV ($18 million), the lowest levelized cost of production ($7.08/kg), and a strong IRR (53.9%). In contrast, Cases 1 and 2, which represented lower-scale setups, yielded lower NPVs and higher production costs. Monte Carlo simulation ( N = 10,000) identified selling price and annual production cost as the dominant profitability drivers, with Case 2 emerging as the most risk-adjusted investment pathway, achieving P(NPV > 0) of 91.9%. The LCA revealed that electrical energy consumption dominated environmental impacts. Freeze-drying alone accounted for 74.7–77.3% of total burdens and drove a GWP of 84.17 kg CO₂-eq per kg PPEP, highlighting energy management as the primary sustainability hotspot.

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Publication Details

Journal
Scientific Reports
Published
2026-07-23
DOI
https://doi.org/10.1038/s41598-026-63833-0
Primary Topic
Pomegranate: compositions and health benefits
Type
article
Field-Weighted Citation Impact
0.00

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article

Encapsulation of pomegranate peel bioactive phenolic extract: laboratory proof-of-concept experiment, scale-up computer-aided batch process design, techno-economic feasibility and life cycle analysis

Yardjouma Silué, Olaniyi Amos Fawole, Emmanuel O. Oke, Olajide O. Ajala et al.
Scientific Reports
Pomegranate: compositions and health benefits
article

Encapsulation of pomegranate peel bioactive phenolic extract: laboratory proof-of-concept experiment, scale-up computer-aided batch process design, techno-economic feasibility and life cycle analysis

Yardjouma Silué, Olaniyi Amos Fawole, Emmanuel O. Oke, Olajide O. Ajala, Lanrewaju I. Fajimi
article en

Abstract

Despite the proven antioxidant potential of Pomegranate Peel Extract (PPE), the lack of scalable, cost-effective, and systematically optimized processes for encapsulating PPE hinders its industrial application. This study presents an integrated laboratory proof-of-concept experiment, computer-aided batch process scale-up simulation, techno-economic assessment (TEA), and life cycle analysis (LCA) of PP bioactive phenolic extract microencapsulation via freeze-drying using a binary Gum Arabic and Maltodextrin wall system. Aspen Batch Process Developer (ABPD) was employed to simulate and scale the process across three production scenarios: mini-pilot (5 kg/day, Case 1), pilot-scale (100 kg/day, Case 2) and industrial-scale (5,000 kg/day, Case 3. The results were validated against experimental data with negligible deviation (MSE = 0.0001; MAPE = 0.06%). Physicochemical characterization confirmed high solubility (96.12%), low water activity (0.28), partial hygroscopicity (12.57%), and strong antioxidant capacity, collectively confirming functional stability for food and nutraceutical applications. TEA revealed progressive economic improvement with scale: Case 3 achieved the highest NPV ($18 million), the lowest levelized cost of production ($7.08/kg), and a strong IRR (53.9%). In contrast, Cases 1 and 2, which represented lower-scale setups, yielded lower NPVs and higher production costs. Monte Carlo simulation ( N = 10,000) identified selling price and annual production cost as the dominant profitability drivers, with Case 2 emerging as the most risk-adjusted investment pathway, achieving P(NPV > 0) of 91.9%. The LCA revealed that electrical energy consumption dominated environmental impacts. Freeze-drying alone accounted for 74.7–77.3% of total burdens and drove a GWP of 84.17 kg CO₂-eq per kg PPEP, highlighting energy management as the primary sustainability hotspot.

Scientific Reports
University of Ilorin (NG), Bells University of Technology (NG), Federal University of Agriculture, Abeokuta (NG), University of Johannesburg (ZA), Lincoln University College (MY), Michael Okpara University of Agriculture (NG)
National Research Foundation, University of Johannesburg
Zero hunger
Openalex Percentile: Top 11%
Pomegranate: compositions and health benefits
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