DOCC Documentation and Object Context Compilation
Year: 2026
Type: preprint
Abstract: DOCC — Documentation and Object Context Compilation within IAS-DX is the documentation and input-data module of the integrated IAS-DX framework. The method consolidates and reorganises the earlier KIB-GW, MDO-GW and MDO-GW 2.0/RPSO-GW documentation line under a unified English naming standard. DOCC provides a structured and traceable basis for collecting, organising and qualifying object-level, excavation-related, geotechnical, monitoring, dynamic and scan-based information for objects located in the influence zone of deep excavation works. It defines the object record, object domain, excavation context, ground and geotechnical context, structural and foundation data, technical-condition information, defect records, photographic documentation, monitoring data, warning flags, data-completeness classes and reliability descriptors. Within the IAS-DX architecture, DOCC acts as the input-data and documentation layer for the remaining assessment modules. It prepares terrain-side input for SETTLE, object-side input for OSCAR, and control-mode input for MATCH. The module also organises dedicated data packages for IDYN, related to dynamic and vibration-relevant information, and ISCAN, related to scanning, 3D geometry, point-cloud evidence, tilt, displacement, residuals and spatial deformation indicators. The methodological relationship is expressed as: IAS-DX = DOCC + SETTLE + OSCAR + MATCH The current DOCC version transforms the earlier object documentation card and documentation module into a complete IAS-DX input structure. It preserves the practical documentation logic of KIB-GW and MDO-GW, incorporates the extended object-context and predicted-response elements from MDO-GW 2.0/RPSO-GW, and reorganises them into a canonical data-compilation module supporting settlement-trough interpretation, object susceptibility and response assessment, and mechanism-matched technical control. The document defines methodological lineage, object categories, documentation levels, documentation stages, object-domain notation, mandatory and supplementary data groups, data-completeness and reliability classes, warning flags, IDYN and ISCAN input packages, transfer of DOCC outputs to SETTLE, OSCAR and MATCH, and a reporting checklist for use within the integrated IAS-DX workflow. References and Methodological Background [1] Florczak, M. (2026). KIB-GW Method: A Building Identification Card Framework for Structures Adjacent to Deep Excavations. Conceptual methodological preprint. [2] Florczak, M. (2026). MDO-GW Method: An Object Documentation Module Framework for Structures Adjacent to Deep Excavations. Conceptual methodological preprint. [3] Florczak, M. (2026). MDO-GW 2.0 Method: Object Documentation and Predicted Condition Deterioration Module for Structures Adjacent to Deep Excavations. Extended methodological framework. [4] Florczak, M. (2026). SETTLE: Settlement Effects, Trough Topology and Local Evolution Assessment within IAS-DX. Canonical methodological version. [5] Florczak, M. (2026). OSCAR: Object Susceptibility, Coupling and Response Assessment within IAS-DX. Canonical methodological version. [6] Florczak, M. (2026). MATCH: Mechanism-Matched Technical Control within IAS-DX. Canonical methodological version. [7] Wysokiński, L., & Kotlicki, W. (2002). Ochrona zabudowy w sąsiedztwie głębokich wykopów. Instrukcja ITB nr 376/2002. Warszawa: Instytut Techniki Budowlanej. [8] Kotlicki, W., Łukasik, S., Godlewski, T., & Bogusz, W. (2020). Ochrona zabudowy w sąsiedztwie głębokich wykopów. Wytyczne. Warszawa: Instytut Techniki Budowlanej. [9] PN-EN 1997-1:2008. Eurokod 7: Projektowanie geotechniczne — Część 1: Zasady ogólne. [10] PN-EN 1997-2:2009. Eurokod 7: Projektowanie geotechniczne — Część 2: Rozpoznanie i badanie podłoża gruntowego. [11] PN-EN 1990:2004. Eurokod: Podstawy projektowania konstrukcji. [12] ISO 13822:2010. Bases for design of structures — Assessment of existing structures. International Organization for Standardization. [13] ISO 4866:2010. Mechanical vibration and shock — Vibration of fixed structures — Guidelines for the measurement of vibrations and evaluation of their effects on structures. International Organization for Standardization. [14] DIN 4150-3:2016-12. Vibrations in buildings — Part 3: Effects on structures. Deutsches Institut für Normung. [15] ISO 17123-9:2018. Optics and optical instruments — Field procedures for testing geodetic and surveying instruments — Part 9: Terrestrial laser scanners. International Organization for Standardization. [16] ASTM E2807. Standard Specification for 3D Imaging Data Exchange, Version 1.0. ASTM International. [17] Huber, D. (2011). The ASTM E57 file format for 3D imaging data exchange. Proceedings of SPIE, 7864. [18] Besl, P. J., & McKay, N. D. (1992). A method for registration of 3-D shapes. IEEE Transactions on Pattern Analysis and Machine Intelligence, 14(2), 239–256. [19] Lague, D., Brodu, N., & Leroux, J. (2013). Accurate 3D comparison of complex topography with terrestrial laser scanner: Application to the Rangitikei canyon, New Zealand. ISPRS Journal of Photogrammetry and Remote Sensing, 82, 10–26. MDO-GW Method This paper presents MDO-GW 2.0, an extended object documentation and forecasting framework for structures and technical objects located near deep excavations. The method develops the original MDO-GW documentation module by integrating RPSO-GW, a predicted object-condition deterioration equation based on the interaction between a documented object and a settlement trough. The framework links object identification, spatial relation to the excavation, structural and foundation characteristics, technical condition, defects, photographic documentation and monitoring assumptions with a parametric description of excavation-induced settlement. The proposed RPSO-GW module describes the settlement trough by relative width, settlement amplitude and settlement-area potential. The trough is then projected onto the position and effective length of the assessed object. On this basis, mean object settlement, differential settlement and angular distortion are calculated and combined into a predicted object-condition deterioration indicator. In this form, MDO-GW 2.0 transforms object documentation into a documentation-and-forecasting tool supporting technical inventory, monitoring planning, prioritisation of adjacent objects and engineering communication in deep-excavation projects.MDO-GW Method — References[1] Kotlicki, W., Łukasik, S., Godlewski, T., Bogusz, W. (2020). Ochrona zabudowy w sąsiedztwie głębokich wykopów. Wytyczne. Warszawa: Instytut Techniki Budowlanej.[2] Wysokiński, L., Kotlicki, W. (2002). Ochrona zabudowy w sąsiedztwie głębokich wykopów. Instrukcja ITB nr 376/2002. Warszawa: Instytut Techniki Budowlanej.[3] PN-EN 1997-1:2008. Eurokod 7: Projektowanie geotechniczne. Część 1: Zasady ogólne.[4] PN-EN 1997-2:2009. Eurokod 7: Projektowanie geotechniczne. Część 2: Rozpoznanie i badanie podłoża gruntowego.[5] PN-EN 1990:2004. Eurokod: Podstawy projektowania konstrukcji.[6] ISO 13822:2010. Bases for design of structures — Assessment of existing structures.[7] Burland, J. B., Wroth, C. P. (1974). Settlement of buildings and associated damage. In: Proceedings of the Conference on Settlement of Structures, Cambridge. London: Pentech Press, pp. 611–654.[8] Boscardin, M. D., Cording, E. J. (1989). Building response to excavation-induced settlement. Journal of Geotechnical Engineering, ASCE, 115(1), 1–21.[9] Clough, G. W., O’Rourke, T. D. (1990). Construction-induced movements of in situ walls. In: Design and Performance of Earth Retaining Structures, ASCE Geotechnical Special Publication No. 25, pp. 439–470.[10] Peck, R. B. (1969). Deep excavations and tunnelling in soft ground. In: Proceedings of the 7th International Conference on Soil Mechanics and Foundation Engineering, Mexico City, State-of-the-Art Volume, pp. 225–290.[11] Moormann, C. (2004). Analysis of wall and ground movements due to deep excavations in soft soil based on a new worldwide database. Soils and Foundations, 44(1), 87–98.[12] Florczak, M. (2026). MKPO-GW Method: A Multi-Criteria Classification Framework for Assessing Building Susceptibility to Deep Excavation Impact. Conceptual preprint / methodological proposal.[13] Florczak, M. (2026). MKPO-GW/WPO Indicators Addendum: Authorial Mathematical Extension of the MKPO-GW/WPO Framework. Conceptual preprint / methodological addendum.[14] Florczak, M. (2026). WNO/STII — Settlement Trough Irregularity Indicator as a Supporting Tool for the Assessment of Deep Excavation Impact. Conceptual preprint / methodological proposal.[15] Florczak, M. (2026). MTK-GW Method: A Sequential Control-Mode Qualification Procedure for Adjacent Structures in the Vicinity of Deep Excavations. Conceptual preprint / methodological proposal.
Author: Florczak, Magdalena
Institution: Warsaw University of Technology
Language: English
Subfield: Safety, Risk, Reliability and Quality
Field: Engineering
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7172293623
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