Digital Silk: Embracing Innovation in Sericulture 4.0
DOI:
https://doi.org/10.55938/wlp.v1i4.161Keywords:
Sericulture, Non-Mulberry Silkworm, Polylactic Acid Silk, Silk FarmingAbstract
Sericulture, an ancient silk producing process, has a long tradition and is adaptable to modern demands. The article looks at worldwide sericulture developments, with a focus on technology, sustainability, and market dynamics. Technological advancements are propelling the sector ahead, satisfying current customer needs while competing in an international market. Sustainability is becoming more essential, as techniques involving organic silk production and circular economy ideas are incorporated. However, sericulture confronts obstacles that may jeopardize its future possibilities. The essay makes proposals for policymakers, industry stakeholders, and researchers to ensure sericulture's long-term significance and growth in the global economy. This study examines the advancements achieved in biomedical and tissue engineering research involving silk proteins, notably fibroins and sericin. It emphasizes the promise of Indian non-mulberry silk-based matrices for tissue regeneration and looks ahead to the future of tissue engineering and regenerative medicine. The study also focuses on the advancement of cutting-edge techniques including 3D printing, bioprinting, microfluidics, organ-on-a-chip, and other electrical, optical, and thermal properties-based applications in the field. This review covers the issue of balancing productivity and environmental effect while breeding mulberry silkworms to produce silk. While pesticides are essential for pest management, they can have a harmful influence on the environment. Sustainable sericulture cultivation necessitates careful planning and coordination. Farmers can safeguard the health of mulberry silkworms and promote long-term silk production by applying suitable pesticides and investigating alternate pest management approaches. This study focuses on the prospective uses of sericulture natural products and byproducts in a variety of domains, including regenerative pharmaceuticals, tissue engineering, medical textiles, drug delivery systems, cosmeceuticals, food additives, and biomaterial fabrication. Silkworm pupa has demonstrated potential in treatments, nutrition, cosmetics, animal feed, and fertilizer. Sericulture waste may also be utilized to generate sustainable biofuels, proving the value of traditional sericulture operations in the burgeoning field of biorefinery.
References
Sharma, K., & Kapoor, B. (2020). Sericulture as a profit-based industry—a review. Indian Journal of Pure and Applied Biosciences, 8(4), 550-562.
Thrilekha, D., Mala, P. H., Reddy, N. C., Kumar, T. S., Manideep, S., & Sathish, K. Sericulture in the 21st century: Global trends and future prospects.
Hazarika, S., Jekinakatti, B., Bharathi, B., Charitha, K., GH, S., Harika, K. R., & Rahman, T. (2024). Impact of Novel Insecticides in Mulberry Ecosystem and Its Residual Effect on Silkworm Growth & Productivity. Journal of Experimental Agriculture International, 46(9), 37-44.
Nasirdinov, B., & Tokhirjonova, M. (2023). IMPLEMENTATION OF PREVENTIVE MEASURES USING A MECHATRONIC SYSTEM IN SILKWORM FARMS TO ENHANCE SILK WEIGHT. The American Journal of Interdisciplinary Innovations and Research, 5(06), 25-32.
Sharma, V., Rattan, M., & Chauhan, S. K. (2022). Potential use of sericultural by products: A review. Pharma Innov, 1154-1158.
Marak, M., Singha, T. A., & Saikia, D. (2024). Mechanization in Sericulture: An Overview. Journal of Advances in Biology & Biotechnology, 27(8), 820-825.
Brahma, D., Bora, N. R., Narzary, P. R., Chakraborty, R., Sarma, J., & Rajkhowa, A. (2024). Tools and Applications of Bioinformatics in Sericulture: A Review. Asian Journal of Current Research, 9(1), 86-94.
Sherekar, A., Nagpure, K., Wathodkar, R., Chafekar, S., Dhokne, S., & Palaskar, S. P. Automated System for Sericulture.
Hassan, M., Malhotra, K., & Firdaus, M. (2022). Application of artificial intelligence in IoT security for crop yield prediction. ResearchBerg Review of Science and Technology, 2(1), 136-157.
Duque-Torres, A., Rodriguez-Pabon, C., Ruiz-Rosero, J., Zambrano-Gonzalez, G., Almanza-Pinzon, M., Caicedo Rendon, O. M., & Ramirez-Gonzalez, G. (2018). A new environmental monitoring system for silkworm incubators. F1000Research, 7, 248.
HS, M. S., Anish, A. R., Gagandeep, J. E., Manoj, M., & Manu, G. SILKWORM YIELD PREDICTION: EXPLORING LEAF TYPES AND SPECIES.
Xiong, H., Cai, J., Zhang, W., Hu, J., Deng, Y., Miao, J., ... & Wu, X. (2021). Deep learning enhanced terahertz imaging of silkworm eggs development. Iscience, 24(11).
Lee, A., Kim, G., Hong, S. J., Kim, S. W., & Kim, G. (2023). Classification of Dead Cocoons Using Convolutional Neural Networks and Machine Learning Methods. IEEE Access, 11, 137317-137327.
Naan, T., Sut, R., & Kashyap, B. (2024). A Review on Medicinal Value of Silkworm Product and By-Products. Asian Journal of Biology, 20(8), 39-48.
Naskar, D., Sapru, S., Ghosh, A. K., Reis, R. L., Dey, T., & Kundu, S. C. (2021). Nonmulberry silk proteins: multipurpose ingredient in bio-functional assembly. Biomedical Materials, 16(6), 062002.
Akintayo, O. S., Olajide, J. L., Betiku, O. T., Egoh, A. J., Adegbesan, O. O., Daramola, O. O., ... & Desai, D. A. (2020). Poly (lactic acid)-silkworm silk fibre/fibroin bio-composites: A review of their processing, properties, and nascent applications. Express Polymer Letters, 14(10), 924-951.
Waidi, Y. O., Debnath, S., Datta, S., & Chatterjee, K. (2024). 3D-Printed Silk Proteins for Bone Tissue Regeneration and Associated Immunomodulation. Biomacromolecules, 25(9), 5512-5540.
Published
How to Cite
Issue
Section
License
Copyright (c) 2025 Sanjeev Kumar Shah

This work is licensed under a Creative Commons Attribution 4.0 International License.