Abstract
The field of bioeconomy has been experiencing a surge in interest in recent years as society increasingly recognizes the potential of utilizing renewable biological resources to create sustainable solutions for economic growth, resource management, and environmental protection. Despite its potential, there is a notable lack of studies exploring the utilization of moss as a viable resource within the bioeconomy framework. Aligned with this objective, this paper conducts a keyword analysis using the VOSviewer application to explore the applicability of mosses as a bioeconomy resource. While biomonitoring using mosses has been studied extensively, this paper shifts its focus to discuss advancements in this area. Moreover, it evaluates the viability of moss utilization for bioenergy production and concisely summarizes their application in microbial fuel cells. The review also highlights challenges pertinent to moss utilization and presents future prospects. The overarching goal of this review paper is to assess the potential and utilization prospects of mosses within the realms of bioaccumulation, air purification, and bioenergy. By offering a comprehensive summary of moss applications, performance, and viability across diverse sectors, this paper endeavors to promote the versatile application of mosses in various contexts. It repositions the discussion on mosses, accentuating their utilization potential prior to exploring conclusions and future prospects.
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Ms. Zaira Khalid is thankful to the Central University of Jharkhand for providing the UGC (University Grants Commission) Fellowship.
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Conceptualization: ZH and BS; data curation: ZH; formal analysis: ZH and BS; investigation: ZH and BS; methodology: ZH; project administration: BS; resources: BS; software: ZH; supervision: BS; validation: ZH and BS; visualization: ZH and BS; writing—original draft: ZH; writing—review and editing: BS.
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Khalid, Z., Singh, B. Looking at moss through the bioeconomy lens: biomonitoring, bioaccumulation, and bioenergy potential. Environ Sci Pollut Res 30, 114722–114738 (2023). https://doi.org/10.1007/s11356-023-30633-2
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DOI: https://doi.org/10.1007/s11356-023-30633-2