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      Bioplastic: an eco‐friendly alternative to non‐biodegradable plastic

      1 , 1 , 1
      Polymer International
      Wiley

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          Abstract

          The accumulation of non‐biodegradable plastic waste in land and aquatic environments is expanding every day. According to data collected from various scientific reports, about 100–250 megatonnes of plastic waste arrives in the oceans annually. According to the Central Control Board of India (2019–2020), India produces about 3.5 million metric tonnes of plastic waste annually, while only 5–10% of the produced waste is recycled. The non‐recycled plastic waste dumped into the environment either goes to landfills or directly goes to the sea, which disrupts the marine life of the ocean. We are highly dependent on plastic at household and industrial scales. Removal of plastic waste and lowering the use of hazardous and non‐biodegradable plastics are the main challenges. Researchers and industrialists have come up with many ideas to lower the generation of non‐biodegradable plastic waste and found that reusability is easier than degradability, while the use of bioplastics is the ultimate solution to tackle the plastic waste problem. Hence, developing eco‐friendly alternative plastics without compromising physicochemical and mechanical properties is the need of the hour. An eco‐friendly alternative to conventional or petrochemical plastics is bioplastics, which are environmentally safe, and reduce our dependency on fossil reserves. Therefore, this review focuses on eco‐friendly bioplastics as an efficient alternative to non‐biodegradable plastics. Among renewable and sustainable feedstocks available, vegetable oils are the most suitable resource for bioplastic production because of their renewability and economical nature. Hence, this study concluded that polyurethane‐based polymers from vegetable oils are inherently more eco‐friendly than most other plastics. © 2023 Society of Industrial Chemistry.

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          Plastics of the Future? The Impact of Biodegradable Polymers on the Environment and on Society

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            Is Open Access

            Polymeric Nanoparticles: Production, Characterization, Toxicology and Ecotoxicology

            Polymeric nanoparticles (NPs) are particles within the size range from 1 to 1000 nm and can be loaded with active compounds entrapped within or surface-adsorbed onto the polymeric core. The term “nanoparticle” stands for both nanocapsules and nanospheres, which are distinguished by the morphological structure. Polymeric NPs have shown great potential for targeted delivery of drugs for the treatment of several diseases. In this review, we discuss the most commonly used methods for the production and characterization of polymeric NPs, the association efficiency of the active compound to the polymeric core, and the in vitro release mechanisms. As the safety of nanoparticles is a high priority, we also discuss the toxicology and ecotoxicology of nanoparticles to humans and to the environment.
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              Bioplastics for a circular economy

              Bioplastics — typically plastics manufactured from bio-based polymers — stand to contribute to more sustainable commercial plastic life cycles as part of a circular economy, in which virgin polymers are made from renewable or recycled raw materials. Carbon-neutral energy is used for production and products are reused or recycled at their end of life (EOL). In this Review, we assess the advantages and challenges of bioplastics in transitioning towards a circular economy. Compared with fossil-based plastics, bio-based plastics can have a lower carbon footprint and exhibit advantageous materials properties; moreover, they can be compatible with existing recycling streams and some offer biodegradation as an EOL scenario if performed in controlled or predictable environments. However, these benefits can have trade-offs, including negative agricultural impacts, competition with food production, unclear EOL management and higher costs. Emerging chemical and biological methods can enable the ‘upcycling’ of increasing volumes of heterogeneous plastic and bioplastic waste into higher-quality materials. To guide converters and consumers in their purchasing choices, existing (bio)plastic identification standards and life cycle assessment guidelines need revision and homogenization. Furthermore, clear regulation and financial incentives remain essential to scale from niche polymers to large-scale bioplastic market applications with truly sustainable impact. Plastics support modern life but are also associated with environmental pollution. This Review discusses technologies for the production and recycling of bioplastics as part of a more sustainable and circular economy.
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                Author and article information

                Contributors
                (View ORCID Profile)
                Journal
                Polymer International
                Polymer International
                Wiley
                0959-8103
                1097-0126
                November 2023
                June 29 2023
                November 2023
                : 72
                : 11
                : 984-996
                Affiliations
                [1 ] Department of Chemical Engineering Guwahati India
                Article
                10.1002/pi.6555
                321deff8-5078-4ba4-a410-ac57f52dbb50
                © 2023

                http://onlinelibrary.wiley.com/termsAndConditions#vor

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