MODELS, METHODS, AND MEANS OF REPRODUCTION OF EXPERT KNOWLEDGE IN INTELLIGENT SUPPORT SYSTEM BUILDING-TECHNICAL EXPERTISE

Authors

DOI:

https://doi.org/10.37943/AITU.2021.43.51.007

Keywords:

Associative rule, expert conclusion, fuzzy inference, subsidence loess soil

Abstract

The paper is devoted to solving such a scientific and practical problem as the creation of computerized infocommunication systems for support building-technical expertise to determine the causes of destruction and deformation of buildings and structures. The analysis of the current state of expert activity within the framework of building-technical expertise is carried out. Perspective directions of the introduction of intelligent infocommunication systems in the course of performance of building-technical expertise and expert researches are outlined. The architecture of Intelligent Support System Building-Technical Expertise and the communication scheme of experts with the system are shown. To mapping expert knowledge formalized in the form of fuzzy associative rules to the memory card of the Cascade ARTMAP category fuzzy artificial neural network, it is proposed to use a fuzzy Mamdani-type inference system. The main input data, on the basis of which a fuzzy conclusion is realized to establish the degree of influence of various environmental factors on the technical condition of buildings and structures, are systematized and presented in a form acceptable for processing by computerized systems. At the same time, the main focus is on the study of facilities that are built and operated on subsidence loess soils. The process of formalization of heuristics, which is based on the formation of associations related to information on the position of signs of deterioration of the technical condition of the objects of expertise and the position of the changed soil, is described. Examples of interpretation and fuzzification of input information on soil properties, characteristics of the soil base of the object of building-technical expertise, and the surrounding area are given. The described approach provides an opportunity to reduce the risks of making wrong decisions by using the system as an intelligent database. The use of an artificial fuzzy neural network of the Cascade ARTMAP category gives the system the ability to form an expert conclusion on the degree of influence of various environmental factors on the technical condition of objects in the fuzzy conditions of a partially observed environment.

Author Biographies

S. Terenchuk, Kiev National University of Construction and Architecture

PhD, Associate Professor, Department of Information Technology Design and Applied Mathematics

R. Pasko, Kyiv Scientific Research Institute of Forensic Expertise of the Ministry of Justice of Ukraine

PhD, Head of Laboratory of Engineering and Technical Research

O. Panko, Kiev National University of Construction and Architecture

PhD, Associate Professor, Department of Architectural Structures

V. Zaprivoda, Kiev National University of Construction and Architecture

PhD, Associate Professor, Department of Architectural Structures

References

Ukraine, Z. (1994). About forensic examination. Information of the Verkhovna Rada of Ukraine (VVR), (28), 4038-12. https://zakon.rada.gov.ua/laws/show/4038-12#Text.

DBN A.2.1-1-2014. Research, design and territorial activities. Engineering surveys for construction, Ministry of Regional Development of Ukraine, 2014.

Buratevich, O.I., Senik, N.V., Kharchenko, V.V. (2015). Methodical recommendations for determining the physical demolition of non-residential buildings. Report on research work IV.3.3-2014/2 (state registration number 0114U000706), 177.

Kulikov, P., Pasko, R., Terenchuk, S., Ploskyi, V., & Yeremenko, B. (2020). Using of Artificial Neural Networks in Support System of Forensic Building-Technical Expertise. International Journal of Innovative Technology and Exploring Engineering, 9(4), 3162-3168.

Terenchuk, S., Pashko, A., Yeremenko, B., Kartavykh, S., & Ershovа, N. (2018). Modeling an intelligent system for the estimation of technical state of construction structures. Eastern European Journal of Advanced Technology, (3 (2)), 47-53.

Pasko, R., Terenchuk, S., Aghezzaf, A. (2020). Analysis of Deterioration Causes to the Technical Condition of Buildings Constructed on Subsidence Loess Soils. Management of Development of Complex Systems, 43, 116 – 122.

ISO, B. (2018). ISO 19650-2: 2018. Organization and Digitization of Information about Buildings and Civil Engineering Works, Including Building Information Modeling (BIM)-Information Management using Building Information Modeling. Part, 2. URL: https://www.iso.org/standard/68078.html.

Komandirov, O., Levchenko, O., & Kisil O. V. (2019). Prospects for the use of BIM-technology (BUILDING INFORMATION MODELING) in construction and technical expertise. Forensics and Forensics, 64, 633-638.

Domanetska, I., Honcharenko, T. Borodavka, Y., Dolya, E., & Fedusenko, O. (2020). Comprehensive Information Support of Urban Planning on BIM-based Design. International Journal of Advanced Trends in Computer Science and Engineering, 10, 9197-9203.

Razov, I.O., Bereznev, A.V., & Korkishko, O.A. (2018). Problems and prospects for the introduction of BIM technologies in construction and design. In BIM modeling in construction and architecture problems (pp. 27-31).

Katasyov, A.S. (2019). Neurofuzzy model of formation of fuzzy rules for estimation of a condition of objects in the conditions of uncertainty. Computer Research and Modeling, 11 (3), 477-492.

Menshikov, P.V. (2021). Modeling methods in forensic engineering: Artificial modeling languages in forensics. Technology and language, 2 (2), 77-85.

Pasko, R., & Terenchuk, S. (2020). The use of neuro-fuzzy models in expert support systems for forensic building-technical expertise. ScienceRise, (2), 10-18.

Fu, L.M., & Fu, L.C. (1990). Mapping rule-based systems into neural architecture. Knowledge-Based Systems, 3(1), 48-56.

Tan, A.H. (1997). Cascade ARTMAP: Integrating neural computation and symbolic knowledge processing. IEEE Transactions on Neural Networks, 8(2), 237-250.

Jang, J.S. (1993). ANFIS: adaptive-network-based fuzzy inference system. IEEE transactions on systems, man, and cybernetics, 23(3), 665-685.

Atanassov, K. T. (2017). Type-1 fuzzy sets and intuitionistic fuzzy sets. Algorithms, 10(3), 106. https://doi.org/10.3390/a10030106.

Pasko, R., Aznaurian, I., Terenchuk, S., (2020). Adaptation of fuzzy inference system to the task of assessment impact of repair-building works on the technical condition of the construction object. Management of Development of Complex Systems, 42, 113-118.

Downloads

Published

2021-06-30

How to Cite

Terenchuk, S., Pasko, R., Panko, O., & Zaprivoda, V. (2021). MODELS, METHODS, AND MEANS OF REPRODUCTION OF EXPERT KNOWLEDGE IN INTELLIGENT SUPPORT SYSTEM BUILDING-TECHNICAL EXPERTISE. Scientific Journal of Astana IT University, 6(6), 76–87. https://doi.org/10.37943/AITU.2021.43.51.007

Issue

Section

Articles
betpas