Development of an Automatic Silkworm Breeding System
2
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
This paper is about the development results of an automatic silkworm breeding system to reduce labor and time by automatically performing the works for silkworm droppings changing and feed its food. It consists of an automatic guided vehicle and a processing unit. The automatic guided vehicle transports a silkworm dropping changing frame mounted on a silkworm tray stand, and the processing unit takes over the dropping changing frame on it, removes excrement contained the droppings changing frame and feeds silkworm food. In the case of the current silkworm farming, because the breeding period for large silkworms (4 to 5 stage) is short to 14 days and the supply of mulberry leaves takes 98% of the total amount of mulberry leaves needed for breeding silkworms at this time, labor concentration is intensive, and all breeding works depends on manpower. Therefore, it was difficult to breed large silkworms on a large scale. Moreover, silkworms are bred by adding Silkworm bed (Seop) and mulberry in the silkworm tray, and their droppings changing is to separate silkworms and excrement by moving silkworm trays one by one, and the production cost increases due to the high-cost manpower for silkworm breeding. To solve this problem, technology for automating silkworm breeding has also been developed. However, there is still a limitation that silkworm feeding and droppings changing works are not suitable for mass breeding because a lot of labor and time are spent depending on manual work. Therefore, a new silkworm breeding system for breeding silkworm automatically is needed and so we developed an Automatic Silkworm Breeding System applying the droppings change frame, the inverting unit, the feeding silkworm food device and automatic guided vehicle.
Abstract
This paper is about the development results of an automatic silkworm breeding system to reduce labor and time by automatically performing the works for silkworm droppings changing and feed its food. It consists of an automatic guided vehicle and a processing unit. The automatic guided vehicle transports a silkworm dropping changing frame mounted on a silkworm tray stand, and the processing unit takes over the dropping changing frame on it, removes excrement contained the droppings changing frame and feeds silkworm food. In the case of the current silkworm farming, because the breeding period for large silkworms (4 to 5 stage) is short to 14 days and the supply of mulberry leaves takes 98% of the total amount of mulberry leaves needed for breeding silkworms at this time, labor concentration is intensive, and all breeding works depends on manpower. Therefore, it was difficult to breed large silkworms on a large scale. Moreover, silkworms are bred by adding Silkworm bed (Seop) and mulberry in the silkworm tray, and their droppings changing is to separate silkworms and excrement by moving silkworm trays one by one, and the production cost increases due to the high-cost manpower for silkworm breeding. To solve this problem, technology for automating silkworm breeding has also been developed. However, there is still a limitation that silkworm feeding and droppings changing works are not suitable for mass breeding because a lot of labor and time are spent depending on manual work. Therefore, a new silkworm breeding system for breeding silkworm automatically is needed and so we developed an Automatic Silkworm Breeding System applying the droppings change frame, the inverting unit, the feeding silkworm food device and automatic guided vehicle.
참고문헌 (11)
- Alves TF, "Applications of natural, semi-synthetic, and synthetic polymers in cosmetic formulations", Cosmetics, 7, pp.75~ (2020)[DOI]
- Chen M, "Application of Big Data, Blockchain, and Internet of Things for Education Informatization. (467)", pp.502~512 (2023)
- Holland C, "The Biomedical Use of Silk : Past, Present, Future", Adv Healthcare Mater, 8, pp.180048~ (2019)[DOI]
- A study on the development strategies for functional sericulture industry, "Kim GP", Korea Rural Economic Institute, ~ (2010)
- 김성곤, "Antibacterial property of 4-hexylresorcinol incorporated in silk mat after sterilization", International Journal of Industrial Entomology and Biomaterials, 42(2), pp.46~50 (2021), 한국잠사학회[DOI]
- 김성곤, "Toll-like receptor and silk sericin for tissue engineering", International Journal of Industrial Entomology and Biomaterials, 42(1), pp.1~6 (2021), 한국잠사학회[DOI]
- 김예은, "Effect of hot press time on the structure characteristics and mechanical properties of silk non-woven fabric", International Journal of Industrial Entomology and Biomaterials, 44(1), pp.12~20 (2022), 한국잠사학회[DOI]
- 김연진, "Effects of wet treatment conditions on the crystallinity and morphology of outside of silkworm cocoons", International Journal of Industrial Entomology and Biomaterials, 43(1), pp.22~28 (2021), 한국잠사학회[DOI]
- Lee JH, "Preparation of Highly Crystalline Silk Nanofibrils and Their Use in the Improvement of the Mechanical Properties of Silk Films", Int J Mol Sci, 23, pp.11344~ (2022)[DOI]
- Soffer L, "Silk-based electrospun tubular scaffolds for tissueengineered vascular grafts", J Biomater Sci, Polym Ed, 19, pp.653~664 (2008)[DOI]
- "Fabrication of sericin into micro- and macro size materials and its application" (2022)[URL]
