首页|Enhancing the bioconversion rate and end products of black soldier fly (BSF) treatment – A comprehensive review

Enhancing the bioconversion rate and end products of black soldier fly (BSF) treatment – A comprehensive review

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Food security remains a pressing concern in the face of an increasing world population and environmental challenges. As climate change, biodiversity loss, and water scarcity continue to impact agricultural productivity, traditional livestock farming faces limitations in meeting the growing global demand for meat and dairy products. In this context, black soldier fly larvae (BSFL) have emerged as a promising alternative for sustainable food production. BSFL possess several advantages over conventional livestock, including their rapid growth, adaptability to various organic waste substrates, and low environmental impact. Their bioconversion rate, the ability to transform organic waste into valuable products, and final product optimization are key factors that enhance their potential as a nutrient-rich protein source, fertilizer, and biofuel. This review explores strategies to enhance the bioconversion rate and improve the end products derived from BSF treatment. It highlights the benefits of using BSFL over other interventions and underscores the significance of optimizing their bioconversion rate to meet the challenges of global food security sustainably. Despite the promising prospects of BSF-derived products, consumer acceptance and regulatory hurdles remain critical aspects to address in realizing their full market potential. The utilization of BSFL as a sustainable source of food and feed can contribute to waste management, reduce environmental pollution, and address the pressing issue of food security in an environmentally responsible manner. However, there is a need for further research and innovation to ensure the safety, quality, and economic viability of BSF-based products for both animal and human consumption.

Food securityOrganic wasteConsumer acceptanceWaste managementEnvironmental pollution

Shahida Anusha Siddiqui、OEzge Suefer、Guelsah Calıskan Koc、Hanif Lutuf、Teguh Rahayu、Roberto Castro‑Munoz、Ito Fernando

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Campus Straubing for Biotechnology and Sustainability,Technical University of Munich, Essigberg 3,94315 Straubing,Germany||German Institute of Food Technologies(DIL e.V.),Prof.–von–Klitzing Str.7,49610 D– Quakenbrueck,Germany

Food Engineering Department,Osmaniye Korkut Ata University,Karacaoglan Campus, 80000 Osmaniye,Tuerkiye

Esme Vocational School,Department of Food Processing,Food Technology Program,Usak University,Esme,Usak,Tuerkiye

Council For Scientific and Industrial Research–Oil Palm Research Institute,P.O.Box 74,Kade, Ghana

CV HermetiaTech,Voza Premium Office 20 Floor,Jl.HR.Muhammad No.31A,Putat GedeJawa Timur,Surabaya 60189,Indonesia

Department of Sanitary Engineering,Faculty of Civil and Environmental Engineering,Gdansk University of Technology,80–233 Gdansk,G.Narutowicza St.11/12,Gdansk,Poland

Department of Plant Pest and Diseases,Faculty of Agriculture,Universitas Brawijaya,Malang, East Java 65145,Indonesia

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2025

Environment, development and sustainability

Environment, development and sustainability

ISSN:1387-585X
年,卷(期):2025.27(5)
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