ADVANCING BIM REGULATORY DOCUMENTS IN URBAN PLANNING AND CONSTRUCTION: GLOBAL INSIGHTS AND GAP

Authors

  • Nizomiddin Buronov Department of Architecture, TASHKENT UNIVERSITY OF ARCHITECTURE AND CIVIL ENGINEERING, TASHKENT, UZBEKISTAN
  • Ziad Baydoun Department of Architecture, Faculty of Built Environment, UNIVERSITI MALAYA, KUALA LUMPUR, MALAYSIA
  • Zafar Matniyazov Department of Architecture, TASHKENT UNIVERSITY OF ARCHITECTURE AND CIVIL ENGINEERING, TASHKENT, UZBEKISTAN
  • Lobar Rasul-Zade Department of Architecture, TASHKENT UNIVERSITY OF ARCHITECTURE AND CIVIL ENGINEERING, TASHKENT, UZBEKISTAN
  • Diyora Tajibaeva Department of Architecture, TASHKENT UNIVERSITY OF ARCHITECTURE AND CIVIL ENGINEERING, TASHKENT, UZBEKISTAN

DOI:

https://doi.org/10.21837/pm.v24i42.2077

Keywords:

BIM, regulations, standards, design, digitalization, Central Asia, CIS countries, BIM guidelines, IFC

Abstract

The rapid dilapidation of Malaysia's Islamic architectural heritage outpaces physical conservation, necessitating an affordable 3D digital documentation workflow requiring minimal manpower. This paper develops a cost-effective workflow through a comparative study of conventional photogrammetry and 3D Gaussian Splatting (3DGS). The methodology utilizes low-specification hardware - a consumer-grade UAV and smartphone, CPU-only processing, and open-source software. Between 150 and 200 video frames of a Masjid Sg. Chinchin roof crown replica were extracted for 3D reconstruction. Quantitative findings reveal that conventional photogrammetry effectively generates editable mesh models but yields low visual accuracy. Conversely, 3DGS produces highly accurate visual models—generating up to 723,566 splats for the UAV input, and is approximately 22% less time-consuming, although it lacks mesh editability. Furthermore, the UAV consistently outperformed the smartphone: while it produced a photogrammetry mesh with approximately 85% fewer vertices, it effectively eliminated visual noise. In the 3DGS workflow, the UAV generated 13% more splats, yielding sharper, more precise visuals. To address individual limitations, it is recommended to adopt a mixed workflow of 3D photogrammetry and 3DGS. By combining photogrammetry’s structural editability with the time-efficient, high-fidelity visual accuracy of UAV-driven 3DGS, this integrated approach ensures comprehensive, fast, affordable, and replicable 3D documentation. Future research should integrate CUDA processing for accuracy and develop an interactive 3DGS web database for Malaysia's Islamic architectural heritage.

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Published

2026-06-03

How to Cite

Buronov, N., Baydoun, Z., Matniyazov, Z., Rasul-Zade, L., & Tajibaeva, D. (2026). ADVANCING BIM REGULATORY DOCUMENTS IN URBAN PLANNING AND CONSTRUCTION: GLOBAL INSIGHTS AND GAP. PLANNING MALAYSIA, 24(42). https://doi.org/10.21837/pm.v24i42.2077

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