A Study on Automated Box Incasing Processes in Dried Seaweed Packaging

We present an automated incasing process designed to replace traditional manual packaging of dried seaweed. This system consists of three key components: a cage mechanism that compresses and transfers six bundles, a handling device for stacking the bundles, and a collaborative robot that performs the box incasing operation based on sensor input. The handling device utilizes pneumatic actuators and a wire-linked folding plate to minimize interference within the confined box space, while also allowing for adjustable dimensions to accommodate seasonal variations in bundle size. Field validation was carried out under continuous input conditions using a conveyor. The collaborative robot followed a predefined sequence triggered by a presence sensor, effectively grasping, stacking, compressing, and transferring bundles without causing product damage. Experimental results indicated that the system successfully incased 72 bundles per box with stable performance and reliable placement. These findings demonstrate the feasibility of replacing labor-intensive operations with collaborative robotic automation in seafood packaging, highlighting opportunities for enhanced consistency, ergonomics, and productivity.

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Publication Details

Journal
Journal of the Korean Society for Precision Engineering
Published
2026-05-01
DOI
https://doi.org/10.7736/jkspe.025.126
Primary Topic
Food Supply Chain Traceability
Type
article
Field-Weighted Citation Impact
0.00
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article

A Study on Automated Box Incasing Processes in Dried Seaweed Packaging

Myeongsu Jeong, Chang‐Hee Lee, HyeonWoo Tak, Van Tung Ha et al.
Journal of the Korean Society for Precision Engineering
Food Supply Chain Traceability
article

A Study on Automated Box Incasing Processes in Dried Seaweed Packaging

Myeongsu Jeong, Chang‐Hee Lee, HyeonWoo Tak, Van Tung Ha, Jaeyoul Lee
article en

Abstract

We present an automated incasing process designed to replace traditional manual packaging of dried seaweed. This system consists of three key components: a cage mechanism that compresses and transfers six bundles, a handling device for stacking the bundles, and a collaborative robot that performs the box incasing operation based on sensor input. The handling device utilizes pneumatic actuators and a wire-linked folding plate to minimize interference within the confined box space, while also allowing for adjustable dimensions to accommodate seasonal variations in bundle size. Field validation was carried out under continuous input conditions using a conveyor. The collaborative robot followed a predefined sequence triggered by a presence sensor, effectively grasping, stacking, compressing, and transferring bundles without causing product damage. Experimental results indicated that the system successfully incased 72 bundles per box with stable performance and reliable placement. These findings demonstrate the feasibility of replacing labor-intensive operations with collaborative robotic automation in seafood packaging, highlighting opportunities for enhanced consistency, ergonomics, and productivity.

Journal of the Korean Society for Precision EngineeringVol. 43(5)
Korea Institute of Robot and Convergence (KR), Robotics Research (United States) (US)
Openalex Percentile: Top 7%
Food Supply Chain Traceability
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