INNOVATIVE MANAGEMENT MODELS IN THE WINDOW BUSINESS: OPTIMIZATION OF PRODUCTION, LOGISTICS, AND INSTALLATION UNDER MARKET GROWTH

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Published: Jun 30, 2026

  Serhii Kovalskyi

Abstract

The rapid growth of the construction industry and high demand for bespoke building solutions have made structural inefficiencies and failures in the context of window manufacturing companies more apparent, particularly the coordination between the production, logistics, and installation processes. To mitigate these challenges, this study devised the Integrated Window Operations Framework (IWOF), a process-oriented management model aimed at improving operational alignment and scalability. This study reinterprets existing research on digital supply chains, logistics optimization, and Industry 4.0 technologies through a lens of system-level integration based on a qualitative analytical methodology through a structured literature synthesis. Analysis indicates the window business is structurally inefficient due to stage fragmentation rather than technological limitations. Logistics is the primary coordinating mechanism, and real-time data visibility is demonstrated to be a required condition for successful integration. This analysis shows that digital technologies can improve performance only when integrated into a unified operating framework, and that scale lies in modular integration rather than enhanced volume generation. IWOF is a theoretical development for practice, broadening the concepts of supply chain integration to encompass process synchronization in construction-linked manufacturing systems. This research helps organizations move towards a faster, more resilient, and sustainable growth model in changing markets.

How to Cite

Kovalskyi, S. (2026). INNOVATIVE MANAGEMENT MODELS IN THE WINDOW BUSINESS: OPTIMIZATION OF PRODUCTION, LOGISTICS, AND INSTALLATION UNDER MARKET GROWTH. Economics and Education, 11(2), 46-53. https://doi.org/10.30525/2500-946X/2026-2-6
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Keywords

window manufacturing, supply chain integration, Industry 4.0, logistics optimization, process synchronization, operational scalability

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