@article{farooq_islam_al-amind_patoary_hossain_khawar_wang_tian_2024, title={From farm to function: Exploring new possibilities with jute nanocellulose applications}, volume={342}, ISSN={["1879-1344"]}, DOI={10.1016/j.carbpol.2024.122423}, abstractNote={Recent scientific interest has surged in the application of bioresources within nanotechnology, primarily because of their eco-friendly nature, wide availability, and cost-effectiveness. Jute is globally recognized as the second most prevalent source of natural cellulose fibers, and it produces a significant quantity of jute sticks as a byproduct. Nanocellulose (NC), which includes cellulose nanofibrils (CNF) and cellulose nanocrystals (CNC), exhibits exceptional properties such as high strength, toughness, crystallinity, thermal stability, and stiffness. These attributes enable its versatile use across various sectors. The extensive surface areas and abundant hydroxyl groups of nanocellulose allow for diverse surface modifications, facilitating the design of advanced functional materials. This comprehensive review provides an overview of recent advancements in the synthesis, characterization, and potential applications of nanocellulose derived from jute. As a versatile natural fiber, jute holds immense potential across various research domains, including nanocellulose synthesis, scaffold fabrication, nanocarbon material preparation, life sciences, electronics and energy storage devices, drug delivery systems, nanomaterial synthesis, food packaging and paper industries. Additionally, its use extends to polymeric nanocomposites, sensors, and coatings. This study summarizes the extensive utilization of jute, emphasizing its versatility and potential across diverse research fields.}, journal={CARBOHYDRATE POLYMERS}, author={Farooq, Amjad and Islam, Syed Rashedul and Al-Amind, Md and Patoary, Mohammed Kayes and Hossain, Md Tanjim and Khawar, Muhammad Tauseef and Wang, Zongqian and Tian, Mingwei}, year={2024}, month={Oct} }
 @misc{rashid_hasan_dayan_jamal_patoary_2023, title={A Critical Review of Sustainable Vanillin-modified Vitrimers: Synthesis, Challenge and Prospects}, volume={4}, ISSN={["2624-781X"]}, DOI={10.3390/reactions4010003}, abstractNote={Nearly 90% of thermosets are produced from petroleum resources, they have remarkable mechanical characteristics, are chemically durable, and dimensionally stable. However, they can contribute to global warming, depletion of petroleum reserves, and environmental contamination during manufacture, use, and disposal. Using renewable resources to form thermosetting materials is one of the most crucial aspects of addressing the aforementioned issues. Vanillin-based raw materials have been used in the industrial manufacturing of polymer materials because they are simple to modify structurally. Conversely, traditional thermosetting materials as a broad class of high-molecular-weight molecules are challenging to heal, decompose and recover owing to their permanent 3-D crosslinking network. Once the products are damaged, recycling issues could arise, causing resource loss and environmental impact. It could be solved by inserting dynamic covalent adaptable networks (DCANs) into the polymer chains, increasing product longevity, and minimizing waste. It also improves the attractiveness of these products in the prospective field. Moreover, it is essential to underline that increasing product lifespan and reducing waste is equivalent to reducing the expense of consuming resources. The detailed synthesis, reprocessing, thermal, and mechanical characteristics of partly and entirely biomass thermosetting polymers made from vanillin-modified monomers are covered in the current work. Finally, the review highlights the benefits, difficulties, and application of these emerging vanillin-modified vitrimers as a potential replacement for conventional non-recyclable thermosets.}, number={1}, journal={REACTIONS}, author={Rashid, Muhammad Abdur and Hasan, Md. Nabiul and Dayan, Md. Anisur Rahman and Jamal, Mohammad Salman Ibna and Patoary, Mohammed Kayes}, year={2023}, month={Mar}, pages={66–91} }
 @misc{emon_rashid_islam_hasan_patoary_2023, title={Review on the Synthesis, Recyclability, Degradability, Self-Healability and Potential Applications of Reversible Imine Bond Containing Biobased Epoxy Thermosets}, volume={4}, ISSN={["2624-781X"]}, DOI={10.3390/reactions4040043}, abstractNote={Epoxy thermosets need to be designed for simple recycling and biomass resource utilization in order to be fully sustainable building materials. The development of covalent adaptive networks (CANs) using adaptive covalent chemistry (ACC) may be helpful in this regard. Several reversible covalent bonds are incorporated into the epoxy polymer to overcome the challenge of reprocessability or recyclability, degradability and self-healability. The imine bond, also referred to as the Schiff base, is one of the reversible covalent bonds that can participate in both associative and dissociative reactions. This opens up possibilities for mechanical and chemical recycling as well as self-healing. This review summarises the progress related to the synthesis and mechanical and thermal properties of epoxy thermosets based on reversible imine bonds derived from different sustainable resources over the past few decades. The feedstocks, physical and thermal properties, recycling conditions, degradability and self-healability of the biomass epoxy thermosets are addressed along with the main obstacles, prospective improvements and potential applications.}, number={4}, journal={REACTIONS}, author={Emon, Jabed Hossen and Rashid, Muhammad Abdur and Islam, Md. Ariful and Hasan, Md. Nabiul and Patoary, Mohammed Kayes}, year={2023}, month={Dec}, pages={737–765} }