Abstract This study examines the limitations of traditional manual warehouse systems in meeting the increasing demands of modern e-commerce. It evaluates the integration of artificial intelligence (AI) and collaborative robotics to improve efficiency, coordination, and system responsiveness. A mixed-method approach is used, combining a systematic review of 189 recent studies with thematic analysis to identify key performance drivers. Based on these insights, an Integrated Smart Warehouse Optimisation Model is developed as a multi-objective framework targeting operational speed, energy efficiency, and human–robot collaboration. Results show substantial improvements across core functions. Computer vision reduces reception time by up to 79%, while machine learning-based picking systems decrease picking time by approximately 60%. Collaborative robotics further reduces cycle time by 33% and improves human learning rates by 45% in augmented environments. However, scalability constraints remain, particularly in high-volume inventory systems. The findings highlight the need to align technological capabilities with organisational readiness. A managerial framework is proposed to support implementation and reduce adoption risks. Future research should focus on large-scale empirical validation and the integration of sustainability considerations into warehouse system design. Keywords: Artificial Intelligence, AI, Warehouse, Warehousing, Warehouse Management, Machine Learning, Collaborative Robotics, Industry 5.0.
Abstract This study examines the limitations of traditional manual warehouse systems in meeting the increasing demands of modern e-commerce. It evaluates the integration of artificial intelligence (AI) and collaborative robotics to improve efficiency, coordination, and system responsiveness. A mixed-method approach is used, combining a systematic review of 189 recent studies with thematic analysis to identify key performance drivers. Based on these insights, an Integrated Smart Warehouse Optimisation Model is developed as a multi-objective framework targeting operational speed, energy efficiency, and human–robot collaboration. Results show substantial improvements across core functions. Computer vision reduces reception time by up to 79%, while machine learning-based picking systems decrease picking time by approximately 60%. Collaborative robotics further reduces cycle time by 33% and improves human learning rates by 45% in augmented environments. However, scalability constraints remain, particularly in high-volume inventory systems. The findings highlight the need to align technological capabilities with organisational readiness. A managerial framework is proposed to support implementation and reduce adoption risks. Future research should focus on large-scale empirical validation and the integration of sustainability considerations into warehouse system design. Keywords: Artificial Intelligence, AI, Warehouse, Warehousing, Warehouse Management, Machine Learning, Collaborative Robotics, Industry 5.0.
Smart Warehouse Innovation through AI and Collaborative Robotics.
ISHTIAQ, ABDULLAH
2025/2026
Abstract
Abstract This study examines the limitations of traditional manual warehouse systems in meeting the increasing demands of modern e-commerce. It evaluates the integration of artificial intelligence (AI) and collaborative robotics to improve efficiency, coordination, and system responsiveness. A mixed-method approach is used, combining a systematic review of 189 recent studies with thematic analysis to identify key performance drivers. Based on these insights, an Integrated Smart Warehouse Optimisation Model is developed as a multi-objective framework targeting operational speed, energy efficiency, and human–robot collaboration. Results show substantial improvements across core functions. Computer vision reduces reception time by up to 79%, while machine learning-based picking systems decrease picking time by approximately 60%. Collaborative robotics further reduces cycle time by 33% and improves human learning rates by 45% in augmented environments. However, scalability constraints remain, particularly in high-volume inventory systems. The findings highlight the need to align technological capabilities with organisational readiness. A managerial framework is proposed to support implementation and reduce adoption risks. Future research should focus on large-scale empirical validation and the integration of sustainability considerations into warehouse system design. Keywords: Artificial Intelligence, AI, Warehouse, Warehousing, Warehouse Management, Machine Learning, Collaborative Robotics, Industry 5.0.| File | Dimensione | Formato | |
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Ishtiaq_Abdullah.pdf
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https://hdl.handle.net/20.500.12608/110143