<p><?tk 4?>This paper presents the application of Petri Nets (PNs) approach to develop the performability model of a plywood manufacturing plant. PNs, known for its capability to model the complex systems with concurrent processes, are employed to simulate the different stages of plywood production, including log peeling, veneer drying, gluing, pressing and finishing. The proposed model captures the dynamic behavior of the manufacturing process, including system states, transitions and the resource constraints. By integrating performance measures such as processing time, resource utilization, and system reliability, the model provides insights into potential bottlenecks, downtime, and inefficiencies within the production line. The results offer valuable information for optimizing workflow, improving the operational efficiency and reducing costs also. Additionally the PNs approach enables the identification of critical failure points and offers a framework for enhancing system reliability and overall performability. The paper concludes by revealing the benefits of applying this method in real-world plywood manufacturing scenarios for better decision-making and process improvement.</p>

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Performance simulation and analysis of plywood manufacturing plant using stochastic approach

  • Amit Kumar Singh,
  • P. C. Tewari

摘要

This paper presents the application of Petri Nets (PNs) approach to develop the performability model of a plywood manufacturing plant. PNs, known for its capability to model the complex systems with concurrent processes, are employed to simulate the different stages of plywood production, including log peeling, veneer drying, gluing, pressing and finishing. The proposed model captures the dynamic behavior of the manufacturing process, including system states, transitions and the resource constraints. By integrating performance measures such as processing time, resource utilization, and system reliability, the model provides insights into potential bottlenecks, downtime, and inefficiencies within the production line. The results offer valuable information for optimizing workflow, improving the operational efficiency and reducing costs also. Additionally the PNs approach enables the identification of critical failure points and offers a framework for enhancing system reliability and overall performability. The paper concludes by revealing the benefits of applying this method in real-world plywood manufacturing scenarios for better decision-making and process improvement.