Resumo
Most industrial plants operate robotic cells that never reach peak performance after commissioning, as changes in product mix and operational adaptations cause originally optimized equipment to run with cycle times longer than necessary. This article presents a systematic review of international and national literature from the last five years on optimization strategies for already-installed robotic cells, focusing on reprogramming, trajectory optimization, reduction of unproductive time, movement synchronization, and digital twin validation. Twenty-four studies were analyzed following a structured search and screening protocol inspired by the PRISMA 2020 guidelines. Results indicate that productivity gains between 10% and 60% can be achieved exclusively through reprogramming and logical reconfiguration, without new equipment investment; that prior virtual validation significantly reduces the risk of production-floor intervention; and that the net effect of these strategies on return on assets tends to exceed that of physical expansion projects, since they do not enlarge the asset base employed. It is concluded that maximizing return on already-installed assets is an engineering strategy as relevant as physical plant expansion, and that its systematic adoption depends on both technical competence and organizational governance.
Referências
ALVES, D. H. S. Aplicação de inteligência artificial para robótica industrial. Revista Interface Tecnológica, v. 20, n. 2, 2023.
AMD MACHINES. Digital Twin Adoption Doubles in Manufacturing. AMD Machines Blog, 2024. Available at: https://amdmachines.com/blog/digital-twin-adoption-doubles-in-manufacturing/.
AMD MACHINES. Robotic Automation ROI Calculator & Payback Guide. AMD Machines Blog, 2024. Available at: https://amdmachines.com/blog/roi-of-robotic-automation/.
BOTTIN, M.; BOSCHETTI, G.; ROSATI, G. Optimizing Cycle Time of Industrial Robotic Tasks with Multiple Feasible Configurations at the Working Points. Robotics, v. 11, n. 1, p. 16, 2022.
CODINTER BRASIL. Retorno do Investimento em Automação Industrial. Codinter Brasil Blog, 2026. Available at: https://www.codinter.com/br/retorno-do-investimento-em-automacao-industrial/.
GARRIZ, C.; DOMINGO, R. Trajectory Optimization in Terms of Energy and Performance of an Industrial Robot in the Manufacturing Industry. Sensors, v. 22, n. 19, p. 7538, 2022.
INTERNATIONAL FEDERATION OF ROBOTICS (IFR). How to Increase Your Robotic Cell Utilization. IFR Case Studies, 2024. Available at: https://ifr.org/case-studies/how-to-increase-your-robotic-cell-utilization.
INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY. Digital twin-based self-learning decision-making framework for industrial robots in manufacturing. Springer Nature, 2025.
INTERNATIONAL JOURNAL OF OPERATIONS AND PRODUCTION MANAGEMENT. Improving Changeover Time: A Tailored SMED Approach for Welding Cells. Elsevier/ScienceDirect, 2023.
LIU, G.; SUN, W.; LI, P. Motion capture and AR based programming by demonstration for industrial robots using handheld teaching device. Scientific Reports, v. 14, p. 23259, 2024.
MACHINES (MDPI). Integrating Energy and Time Efficiency in Robotic Manufacturing Cell Design: A Methodology for Optimizing Workplace Layout. Machines, v. 13, n. 1, p. 38, 2025a.
MACHINES (MDPI). Time-Optimal Trajectory Planning for Industrial Robots Based on Improved Fire Hawk Optimizer. Machines, v. 13, n. 9, p. 764, 2025b.
MUTTI, S.; NICOLA, G.; BESCHI, M.; PEDROCCHI, N.; TOSATTI, L. M. Towards optimal task positioning in multi-robot cells, using nested meta-heuristic swarm algorithms. Robotics and Computer-Integrated Manufacturing, v. 71, p. 102131, 2021.
PAGE, M. J.; MCKENZIE, J. E.; BOSSUYT, P. M.; BOUTRON, I.; HOFFMANN, T. C.; MULROW, C. D. et al. The PRISMA 2020 statement: an updated guideline for reporting systematic reviews. BMJ, v. 372, n. 71, 2021.
RESEARCHGATE. Reduction of Changeover Time by Using the SMED Technique with the Assistance of Lean Manufacturing Tools in a Plastic Company. 2023.
ROBOTICS (MDPI). A Practical Roadmap to Learning from Demonstration for Robotic Manipulators in Manufacturing. Robotics, v. 13, p. 100, 2024.
SCIENTIFIC REPORTS. Multi-objective trajectory optimization method for industrial robots based on improved TD3 algorithm. Nature, 2025.
SOUZA, R. R. de C.; PEDRON, C. D. Os benefícios da robótica na manufatura na era da indústria 4.0: uma revisão sistemática da literatura. Future Studies Research Journal: Trends and Strategies, v. 17, n. 1, e900, 2025.
SOUZA, R. R. de C.; PEDRON, C. D.; SILVA, L. F. da. Barreiras e desafios para projetos de robótica na indústria 4.0: uma revisão sistemática. Exacta, v. 23, n. 4, p. 1151-1175, 2025.
WANG, K.; FAN, Y. et al. Robot Programming from a Single Demonstration for High Precision Industrial Insertion. Sensors, v. 23, n. 5, p. 2514, 2023.
