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Online since: October 2013
Authors: Omar Lengerke, Fredy Giovany Osorio Gutiérrez, Hernán González Acuña
afosorio2@unab.edu.co, bhgonzalez3@unab.edu.co, colengerke@unab.edu.co
Keywords:Mass Damper, Analysis, Dynamics, Mechatronics Engineering, Civil Engineering, Robotics, Buildings, Parallel Robot,
Abstract.This article presents a CAD design and analysis of the dynamics of a mass damper, used to reduce amplitude of vibrations in a high building.
Introduction Engineering focuseson solving problems which arise from the continuous advance of knowledge in many fields.
Architecture and civil engineering, particularly, concentrate on a better use of valuable ground in urban zones, posing challenges to the limits of existing technologies in the development of ever higher structures.
This project pretends to analyze the movement of these edifices and through physical and mathematical fundaments and software tools, to lay the foundations to convert these devices intoactive security systems, using parallel robotsin simulation of structures to develop and prove a mechatronics engineering concept applied in the field of civil engineering and architecture.
[4] Chaiviriyawong and Prachaseree, "Applications Of Passive Mass Dampers For Civil Engineering Structural Control," Princes of Songkla University, Bangkok, Tailandia, 2009
Introduction Engineering focuseson solving problems which arise from the continuous advance of knowledge in many fields.
Architecture and civil engineering, particularly, concentrate on a better use of valuable ground in urban zones, posing challenges to the limits of existing technologies in the development of ever higher structures.
This project pretends to analyze the movement of these edifices and through physical and mathematical fundaments and software tools, to lay the foundations to convert these devices intoactive security systems, using parallel robotsin simulation of structures to develop and prove a mechatronics engineering concept applied in the field of civil engineering and architecture.
[4] Chaiviriyawong and Prachaseree, "Applications Of Passive Mass Dampers For Civil Engineering Structural Control," Princes of Songkla University, Bangkok, Tailandia, 2009
Online since: February 2014
Authors: Li Fang Zhang, Li Hong He, Nian Wang, Li Li
Discussion about Excellence Engineers Education and Training Program of Materials Science and Engineering
L.
In the materials science and engineering classroom, the boundaries are blurred between science and engineering.
materials Physical properties of materials 6 Computer application technology Computational materials science Engineering application software Characteristic knowledge areas 7 Civil engineering materials Engineering material, Cement and concrete, Asphalt and asphalt mixture, Chemical building materials Environmental materials, Functional materials, Building energy-saving materials, Corrosion and protection of materials, Special ceramics, Soil reinforcement principle The major of material science and engineering is a wide major.
The characteristic professional knowledge is aimed at the major of material science and engineering of our college, in which the major field is the civil engineering materials and the central professional knowledge is composed by the compulsory and elective knowledge units Conclusion Based on "3+1 Program" of talents training mode for the "Excellence Engineers Education and Training Program", the following conclusions can be made: (1) The framework of talents training mode for cooperative education was devised, in which science and engineering, theory and practice, academia and industry are comined to prepare students who not only create, design, and build, but understand the nature and behavior of the materials used in the building
LIU: Excellence in Engineering Education:Views of Undergraduate Engineering Students, Journal of Engineering Education,p253-262,2007 [3] Jiang, H.: Making Teaching Reformation for Cultivating Innovative Talents.
In the materials science and engineering classroom, the boundaries are blurred between science and engineering.
materials Physical properties of materials 6 Computer application technology Computational materials science Engineering application software Characteristic knowledge areas 7 Civil engineering materials Engineering material, Cement and concrete, Asphalt and asphalt mixture, Chemical building materials Environmental materials, Functional materials, Building energy-saving materials, Corrosion and protection of materials, Special ceramics, Soil reinforcement principle The major of material science and engineering is a wide major.
The characteristic professional knowledge is aimed at the major of material science and engineering of our college, in which the major field is the civil engineering materials and the central professional knowledge is composed by the compulsory and elective knowledge units Conclusion Based on "3+1 Program" of talents training mode for the "Excellence Engineers Education and Training Program", the following conclusions can be made: (1) The framework of talents training mode for cooperative education was devised, in which science and engineering, theory and practice, academia and industry are comined to prepare students who not only create, design, and build, but understand the nature and behavior of the materials used in the building
LIU: Excellence in Engineering Education:Views of Undergraduate Engineering Students, Journal of Engineering Education,p253-262,2007 [3] Jiang, H.: Making Teaching Reformation for Cultivating Innovative Talents.
Online since: January 2015
Authors: Nikolay Vatin, Olga Gamayunova
Petersburg State Polytechnical University, Civil Engineering Institute.
Thus, the Civil Engineering Institute offers the following programs in the field of energy efficiency and energy saving: 1.
Gamayunova: Activities of Civil Engineering Institute to attract foreign students for training in civil engineering programs (2014) Applied Mechanics and Materials, Vols. 635-637, pp 2076-2080 [4] D.G.
[37] V.M Yakubson: Energy audit of buildings and industrial plants (2011) Magazine of Civil Engineering. 5, pp. 2 (rus) [38] V.M Yakubson: Energy efficiency of buildings and structures: practical steps (2013) Magazine of Civil Engineering, 6 (41), pp. 5-6 (rus) [39] V.Yakubson: Politics of St.
Petersburg in energy saving and energy efficiency (2010) Magazine of Civil Engineering, 1, pp. 5-6 (rus) [40] T.O.
Thus, the Civil Engineering Institute offers the following programs in the field of energy efficiency and energy saving: 1.
Gamayunova: Activities of Civil Engineering Institute to attract foreign students for training in civil engineering programs (2014) Applied Mechanics and Materials, Vols. 635-637, pp 2076-2080 [4] D.G.
[37] V.M Yakubson: Energy audit of buildings and industrial plants (2011) Magazine of Civil Engineering. 5, pp. 2 (rus) [38] V.M Yakubson: Energy efficiency of buildings and structures: practical steps (2013) Magazine of Civil Engineering, 6 (41), pp. 5-6 (rus) [39] V.Yakubson: Politics of St.
Petersburg in energy saving and energy efficiency (2010) Magazine of Civil Engineering, 1, pp. 5-6 (rus) [40] T.O.
Online since: February 2014
Authors: Pavel Vlček, Darja Kubečková, Karel Kubečka, Hana Vaculikova, Veronika Sojkova
Risk analysis of asbestos structures and their impact on the internal environment of buildings
Pavel Vlcek1, a *, Karel Kubecka2,b, Hana Vaculikova1,c Darja Kubeckova1,d Veronika Sojkova3,d
1VSB-TU Ostrava, Faculty of Civil Engineering, Department of Building Construction, L.Podeste 1875,Ostrava-Poruba, 70833, Czech Republic
2 VŠB – TUO, Faculty of Civil Engineering, Department of Building Structures, L.
Podeste 1875, 708 33 Ostrava Poruba, Czech Republic 3STU in Bratislava, Faculty of Civil Engineering, Department of Forensic Institute, Radlinskeho11 Bratislava, Slovak Republic apavel.vlcek1@vsb.cz, bkarel.kubecka@vsb.cz, chana.vaculikova@vsb.cz, ddarja.kubeckova@vsb.cz, dveronika.sojkova@stuba.sk Keywords: asbestos, risk analysis, internal environment Abstract.
Asbestos products were abundantly used in the civil engineering in 70's and 80's.
In the past this material was used very often in civil engineering for its good thermal insulating and mechanical properties, resistance to fire, strength and resistance to acids and alkalis.
Podeste 1875, 708 33 Ostrava Poruba, Czech Republic 3STU in Bratislava, Faculty of Civil Engineering, Department of Forensic Institute, Radlinskeho11 Bratislava, Slovak Republic apavel.vlcek1@vsb.cz, bkarel.kubecka@vsb.cz, chana.vaculikova@vsb.cz, ddarja.kubeckova@vsb.cz, dveronika.sojkova@stuba.sk Keywords: asbestos, risk analysis, internal environment Abstract.
Asbestos products were abundantly used in the civil engineering in 70's and 80's.
In the past this material was used very often in civil engineering for its good thermal insulating and mechanical properties, resistance to fire, strength and resistance to acids and alkalis.
Online since: March 2017
Authors: Svetlana Lvovna Shambina, Sergey Nikolayevich Krivoshapko, Christian A. Bock Hyeng
Later, invention of reinforced plastics gave a possibility to use them in thin-walled shells for civil and industrial buildings.
The engineered structures business unit brings together Gurit’s global capabilities in engineering, materials science, prototyping and manufacturing.
IOSR Journal of Engineering (IOSRJEN), 2013, Vol. 3, Iss. 3, p. 43-53
Gurit Engineered Structures Images: www.flickr.com/photos (2015)
Composite Structures for Civil and Architectural Engineering.
The engineered structures business unit brings together Gurit’s global capabilities in engineering, materials science, prototyping and manufacturing.
IOSR Journal of Engineering (IOSRJEN), 2013, Vol. 3, Iss. 3, p. 43-53
Gurit Engineered Structures Images: www.flickr.com/photos (2015)
Composite Structures for Civil and Architectural Engineering.
Online since: December 2010
Authors: Tian Rong Huang, Peng Cheng Wu, Peng Jun Yue, Gong Qi Cheng
Development in Research of Engineering Investigation
for Offshore Wind Farm
Tianrong Huang1, a, Pengcheng Wu2, b, Gongqi Cheng 3, c, PengJun Yue 4, d
1 China Ping an Insurance (Group) Operation Management Centre, China 201201
2 Shanghai International Shipping Service Centre Development Company, China200082
3 College of Civil Engineering, Tongji University China 200092
4College of Civil and Environment, Beijing University of Science and Technology, China100083
atinyo_huang@126.com,bshgjhyfwzx@126.com, cchenggongqi@126.com,dxyuepengjun@126.com
Keywords: offshore wind farm; engineering investigation; site conditions; design bases; experience of investigation.
Offshore engineering investigation includes oceanographic engineering survey, oceanographic rock and soil measurement, and oceanographic engineering environment survey.
l Soil stratification and description l Shear strength of soil and deformation characteristic l Site stress condition The lab civil work test should analyze the property variation of site soil stratum in the horizontal direction, satisfying the requirements of construction design.
Requirements of Engineering Investigation.
Journal of Civil Engineering and Management, 2006, 11(6): 189-195
Offshore engineering investigation includes oceanographic engineering survey, oceanographic rock and soil measurement, and oceanographic engineering environment survey.
l Soil stratification and description l Shear strength of soil and deformation characteristic l Site stress condition The lab civil work test should analyze the property variation of site soil stratum in the horizontal direction, satisfying the requirements of construction design.
Requirements of Engineering Investigation.
Journal of Civil Engineering and Management, 2006, 11(6): 189-195
Online since: September 2008
Authors: Thomas B. Messervey, Dan M. Frangopol
Messervey2,b
1
Falzur Khan Endowed Chair of Structural Engineering and Architecture, Department of Civil and
Environmental Engineering, ATLSS Center, Lehigh University, Bethlehem, PA, USA
2
Department of Structural Mechanics, University of Pavia, Italy
Keywords: Health monitoring, Durability-based design, Reliability-based assessment, Risk, Lifecycle management.
In terms of magnitude, new civil engineering construction is the largest industry in the world representing approximately 10% of annual GDP.
References [1] Frangopol, D.M. and Liu, M., 2007, Maintenance and Management of Civil Infrastructure based on Condition, Safety, Optimization, and Life-Cycle Cost, Structure and Infrastructure Engineering, 3(1), 29-41
Proceedings of the NSF Civil, Mechanical and Manufacturing Innovation (CMMI) Engineering Research and Innovation Conference, Knoxville, Tennessee, January 7-10, 2008
[17] Kong, J.S., and Frangopol, D.M. 2005, Sensitivity Analysis in Reliability-Based Lifetime Performance Prediction Using Simulation, Journal of Materials in Civil Engineering, ASCE, 17(3), 296-306
In terms of magnitude, new civil engineering construction is the largest industry in the world representing approximately 10% of annual GDP.
References [1] Frangopol, D.M. and Liu, M., 2007, Maintenance and Management of Civil Infrastructure based on Condition, Safety, Optimization, and Life-Cycle Cost, Structure and Infrastructure Engineering, 3(1), 29-41
Proceedings of the NSF Civil, Mechanical and Manufacturing Innovation (CMMI) Engineering Research and Innovation Conference, Knoxville, Tennessee, January 7-10, 2008
[17] Kong, J.S., and Frangopol, D.M. 2005, Sensitivity Analysis in Reliability-Based Lifetime Performance Prediction Using Simulation, Journal of Materials in Civil Engineering, ASCE, 17(3), 296-306
Online since: July 2014
Edited by: Guang Fan Li, Chao He Chen, Bi Feng Jiang, Qi Zhong Shen
Collection of selected, peer reviewed papers from the 2014 International Conference on Civil, Architechture and Building Materials (CEABM 2014), May 24-25, 2014, Haikou, China.
The 459 papers are grouped as follows:
Chapter 1: Sustainable City and Regional Development,
Chapter 2: Renewable Energy and Building Energy-Saving Technologies,
Chapter 3: Indoor Environment,
Chapter 4: City Ecological Environment,
Chapter 5: Water Purification and Wastewater Engineering, Treatment Technologies,
Chapter 6: Air Environment Control and Architectural Environment Improvement Techniques,
Chapter 7: Environmental Engineering and Monitoring, Environmental Protection Technologies,
Chapter 8: Road and Railway Engineering,
Chapter 9: Bridge Engineering,
Chapter 10: Transportation Planning and Systems, Routing and Logistics Engineering,
Chapter 11: Traffic and Transportation Control and Applied Information Technology,
Chapter 12: Computer Application Technology and Mathematical Modeling Keyword: Sustainable City and Regional Development; Renewable Energy and Building Energy-Saving Technologies; Indoor Environment
; City Ecological Environment; Water Purification and Wastewater Engineering, Treatment Technologies; Air Environment Control and Architectural Environment Improvement Techniques; Environmental Engineering, Environmental Protection; Road and Railway Engineering; Bridge Engineering; Transportation Planning and Systems
The 459 papers are grouped as follows:
Chapter 1: Sustainable City and Regional Development,
Chapter 2: Renewable Energy and Building Energy-Saving Technologies,
Chapter 3: Indoor Environment,
Chapter 4: City Ecological Environment,
Chapter 5: Water Purification and Wastewater Engineering, Treatment Technologies,
Chapter 6: Air Environment Control and Architectural Environment Improvement Techniques,
Chapter 7: Environmental Engineering and Monitoring, Environmental Protection Technologies,
Chapter 8: Road and Railway Engineering,
Chapter 9: Bridge Engineering,
Chapter 10: Transportation Planning and Systems, Routing and Logistics Engineering,
Chapter 11: Traffic and Transportation Control and Applied Information Technology,
Chapter 12: Computer Application Technology and Mathematical Modeling Keyword: Sustainable City and Regional Development; Renewable Energy and Building Energy-Saving Technologies; Indoor Environment
; City Ecological Environment; Water Purification and Wastewater Engineering, Treatment Technologies; Air Environment Control and Architectural Environment Improvement Techniques; Environmental Engineering, Environmental Protection; Road and Railway Engineering; Bridge Engineering; Transportation Planning and Systems
Online since: August 2014
Authors: Ivo Kusák, Miroslav Lunak, Jaroslav Smutny, Marta Kořenská, Lubos Pazdera, Libor Topolář
Application Acoustic Emission Method and Impedance Spectroscopy for Monitoring Concrete During Hardening
Lubos PAZDERA1, a, Libor TOPOLAR1,b , Marta KORENSKA1,c , Jaroslav SMUTNY2,d , Ivo KUSAK1,e and Miroslav LUNAK1,f
1Brno University of Technology, Faculty of Civil Engineering, Department of Physics, Czech Republic
2Brno University of Technology, Faculty of Civil Engineering,
Department of Railway Structures and Constructions, Czech Republic
apazdera.l@fce.vutbr.cz, btopolar.l@fce.vutbr.cz, ckorenska.m@fce.vutbr.cz, dsmutny.j@fce.vutbr.cz, ekusak.i@fce.vutbr.cz, flunak.m@fce.vutbr.cz, gkorenska.m@fce.vutbr.cz
Keywords: acoustic emission, impedance spectroscopy, concrete, hardening, civil engineering
Abstract.
High-Performance Concrete, EBS, Prague, 2005 [2] Mikulic D., Sekulic D., Stirmer M., Bjegovic D.: Application of Ultrasonic Methods for Early Age Concrete Characterisation, The 8th International Conference of the Slovenian Society for Non-Destructive Testing, “Application of Contemporary Non-Destructive Testing in Engineering”, Portoroz, Slovenia, 2005 [3] Topolar L., Pazdera L., Cikrle L., Acoustic emission monitoring during static modulus elasticity test of concrete specimen, Applied Mechanics and Materials Volume 486, 2014, Pages 267-272 [4] Korenska M., Manychova M., Pazdera L., Experimental study of the nonlinear effects generated in a concrete structure with damaged integrity, Russian Journal of Nondestructive Testing Volume 49, Issue 9, September 2013, Pages 530-537
High-Performance Concrete, EBS, Prague, 2005 [2] Mikulic D., Sekulic D., Stirmer M., Bjegovic D.: Application of Ultrasonic Methods for Early Age Concrete Characterisation, The 8th International Conference of the Slovenian Society for Non-Destructive Testing, “Application of Contemporary Non-Destructive Testing in Engineering”, Portoroz, Slovenia, 2005 [3] Topolar L., Pazdera L., Cikrle L., Acoustic emission monitoring during static modulus elasticity test of concrete specimen, Applied Mechanics and Materials Volume 486, 2014, Pages 267-272 [4] Korenska M., Manychova M., Pazdera L., Experimental study of the nonlinear effects generated in a concrete structure with damaged integrity, Russian Journal of Nondestructive Testing Volume 49, Issue 9, September 2013, Pages 530-537