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International Journal for Computational Civil and Structural Engineering, 14(3), 161-168 (2018)
Magazine of Civil Engineering, No. 7, 198-207 (2018).
Magazine of Civil Engineering, 69(1), 3–22 (2017).
Magazine of Civil Engineering, 81(5), 160–173 (2018).
International Journal for Computational Civil and Structural Engineering. 2018.

Research of building energy efficiency design and engineering quality management system based on Network Ling Wang1, a, WenLing Tian1,b, LingLing Fan2,c 1Civil Engineering College, Hebei University of Technology ,Tianjin City, China 2School of Civil Engineering, ShiJiazhuang TieDao University, Shijiazhuang City, Hebei Province, China awlark@sina.com, b wltian@hebut.edu.cn, c fanlingling76@163.com Keywords: Building energy efficiency, Building design, Management system, Network.
Development of system for building energy efficiency design and engineering quality management should be an advanced, complete and authoritative management system based on network from the situation.
Conclusion Building energy efficient design and engineering quality management system is researched and developed based on network in this paper.
Scientific and efficient, networked building energy efficient design and engineering quality management are realized, so as to generate economic benefits and provide a strong guarantee for the development of energy efficient building.
[4] GB 50178-93, Design standard for thermal design of civil building, Chinese national standard

Civil engineering investment.
Civil engineering investment main contain:regulating reservoir, normal water reservoir, Membrane Biotechnology reaction tank, equipment room etc, total 286 thousand, shown in Table 3.
Table 3 Civil engineering investment Order number Building name Useful volume（m3） Construction type Quantity/unit Unit pricem3/yuan Construction cost （ten thousand） 1 regulating reservoir 80 Steel reinforced concrete 1 900 7.2 2 Grille reservoir 30 Steel reinforced concrete 1 500 1.5 3 Sludge concentration tank 40 Steel reinforced concrete 1 500 2.0 4 Water pump house, equipment room 60m2 Brick concrete 1 800 4.8 5 Normal water reservoir 80 Steel reinforced concrete 1 900 7.2 6 Membrane Biotechnology reaction tank 65 Steel reinforced concrete 1 900 5.9 Total civil engineering investment 28.6 Equipment installation project investment.
Project civil engineering investment is 286 thousands RMB, equipment installation engineering investment is 484 thousands, the other fee is 50 thousands, total money is 820 thousands.
Environmental engineering 2002.20 (2): 30-31 [11]Chui Yong Zheng.

The product models, imported form the product EBOM(Engineering BOM), could be converted to the process models for assembly involving essential assembly information and data, which are form assembling database concerned with all kinds of data, as shown in Fig.2.
The forward cargo door of one civil aircraft is taken as example to test the applicability of the visualization system, shown in Fig.5.
(2) The system platform of assembling process visualization was carried out in certain civil aircraft manufacturing practice.
Modern Manufacturing Engineering, 6(2006), p.55(In Chinese) [2] S.G.Liu.Aeronautical Manufacturing Technology, 10(2006), p.38(In Chinese) [3] B.Li, H.Tao.
Manufacturing Information Engineering of China, Vol.36 (2007), p.26(In Chinese) [6] Y.Q.

Research on Deformation Control of Anchor Bolt Supporting Red Clay Deep Foundation Pit Yongliang Deng 1,a, Qiming Li 2,b and Ying Lu 3,c 1Department of Construction and Real Estate, School of Civil Engineering, Southeast University, Nanjing, China 2Department of Construction and Real Estate, School of Civil Engineering, Southeast University, Nanjing, China 3Department of Construction and Real Estate, School of Civil Engineering, Southeast University, Nanjing, China adengyongliang@seu.edu.cn, bnjlqming@163.com, cluying_happy@126.com Keywords: red clay, deformation control, anchor bolt, numerical simulation Abstract: In order to study the deformation characteristics of red clay deep foundation pit, the horizontal displacement of lateral wall and the subsidence of surrounding surface were analysed in the step-by-step excavation of red clay deep foundation pit in the construction process.
Characteristics of Red Clay & Forecasting Method of Foundation Pit's Deformation In southwest China, red clay is a common object in engineering.
In addition, red clay features "reverse profile" and "fissuring" in Engineering Geology[9].
[5] Jianlin Yu, Xiaonan Gong, Research on deformation characteristics of foundation project, China Civil Engineering Journal, 35(2002) 86-90
[7] Mingju Zhang, Erxiang Song, Finite element analysis of deformation performance of soil nail support, China Civil Engineering Journal, 32(1999) 59-63 [8] Xiaonan Gong, Considerations on foundation project, China Civil Engineering Journal, 38(2005) 99-102

The application of Stochastic Order to Stochastic Multiobjective Programming Problems Mingfa Zheng 1, a, Qihang He 2,b , Zutong Wang 3,c and Dongqing Su 1,a 1 Science College, Air Force Engineering University, Xi’an, 710051, China 2 Information and Navigation College, Air Force Engineering University, 710051, Xi’an 3 Equipment Management and Safety Engineering College Air Force Engineering University, Xi’an, 710051, China a mingfazheng@126.com, b bravetom@163.com, cmingfa103@163.com Keywords: Stochastic programming; Multiobjective programming; Partial Pareto efficiency; Stochastic order Abstract.
The results obtained can provide theoretical basis for dealing with the stochastic problems in field of civil engineering and transportation.
Introduction In field of civil engineering and transportation, many real-life problems often require considering stochastic multiobjective programming (SMOP) problems[1], and the solution of such problems always be transformed into its equivalent deterministic multiobjective programming (MOP) problem initially, then solving the MOP problem, which is called multiobjective approach [2].
In most engineering applications, we want to minimize the random objective in the long run, therefore, the expected value is introduced to remove the random ambiguity in problem (1), and corresponding solution model can be presented as (2) Computing the set of optimal solutions of the deterministic problem (2) instead of the set of stochastically optimal solutions raises the question how the two sets of solutions are related to each other.

Addition of Grog-Clay Ceramic Waste in Multiple use Mortar Jonas Alexandre1,a, Afonso Rangel Garcez de Azevedo1,b, Gustavo de Castro Xavier1,c, Juliana Correa Trindade 1,d, Kíssila Botelho Goliath1,e and Sergio Neves Monteiro2,f 1UENF - State University of the Northern Rio de Janeiro, LECIV – Civil Engineering Laboratory; Av.
Alberto Lamego, 2000, 28013-602, Campos dos Goytacazes, Brazil. 2IME - Military Institute of Engineering, Department of Materials Science, Praça General Tibúrcio, 80, 22290-270, Rio de Janeiro, Brazil.
The clay ceramic industry for civil construction is responsible for the fabrication of common red products such as bricks, roofing tiles and structural blocks.
Solutions have been proposed for the discarded grog, like a cover layer for dirt road, but the most promising is an addition to similar materials for civil construction.
Both materials had their characteristics measured at the Laboratory of Civil Engineering (LECIV), of the State University of the Northern Rio de Janeiro (UENF), Campos dos Goytacazes, where this work was conducted.

The conference was organized by the Slovak University of Technology in Bratislava, Faculty of Civil Engineering, in cooperation with the Slovak Society of Mechanics, Slovak Academy of Science in Bratislava.
The conference is focused on major problems in research and development in the following areas:  Seismic Behavior of Structures  Aeroelasticity of Structures  Thermomechanics and Fire Resistance  Structure-Subgrade Interaction  Optimization of Structures  Life Span and Safety of Structures  Damage to and Failure of Structures  Diagnostics and Experimental Analysis The presented publication is divided into three chapters: Chapter 1: Statics and Stability of Civil Structures, Chapter 2: Dynamics and Wind Engineering, Chapter 3: Problems in Material Engineering.
Editors Scientific Committee Chairman: Jendzelovsky Norbert Slovak University of Technology Bratislava, Slovakia Members: Bencat Jan University of Zilina, Slovakia Gyorgyi Jozsef Budapest University of Technology and Economics, Hungary Janas Petr VSB-Technical University of Ostrava, Czech Republic Kralik Juraj Slovak University of Technology Bratislava, Slovakia Maca Jiri Czech Technical University in Prague, Czech Republic Melcer Jozef University of Zilina, Slovakia Novak Drahomir Brno University of Technology, Czech Republic Partov Doncho Higher School of Civil Engineering (VSU) Sofia, Bulgaria Ravinger Jan Slovak University of Technology Bratislava, Slovakia Skrzypczyk Jerzy Silesian University of Technology, Gliwice, Poland Sokol Milan Slovak University of Technology Bratislava, Slovakia Conference organized by: Slovak University of Technology in Bratislava, Slovakia Faculty of Civil Engineering Department of

Preface The book includes articles based on the research results presented at the 2nd International Conference on Civil Engineering and Materials (ICCEM'2024), held on 13-14 December 2024 in Al-Hoceima, Morocco.
The conference provided a vital platform for professionals from Morocco and around the world to convene, share research findings, and discuss the latest advancements in civil engineering and materials science.
The presented edition is dedicated to advanced building materials, computational research and modelling in civil engineering, and issues in soil stabilisation.
The collected articles will be beneficial to many researchers and engineers in the construction industry.

The findings suggest that HRC has significant potential as a substitute for traditional concrete in various civil engineering applications.
Introduction The integration of waste tires or their components into civil engineering materials is essential for fostering sustainable development.
Shulman, “Civil engineering applications of tyres,” 2003.
Ibrahim, “Mechanical Properties of Recycled Steel Tire Fibres in Concrete,” Technical Report, Faculty of Civil Engineering, University Technology Malaysia, 2012.
Ogbeifun Cephas, “Splitting tensile strength assessment of lightweight foamed concrete reinforced with waste tyre steel fibres,” International Journal of Civil Engineering and Technology, vol. 9, no. 9, 2018