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Impact of friction dampers and ductility factor on the seismic response of concrete moment resisting frame buildings


Impact of friction dampers and ductility factor on the seismic response of concrete moment resisting frame buildings

Pilorge, Anne-Gaelle (2018) Impact of friction dampers and ductility factor on the seismic response of concrete moment resisting frame buildings. Masters thesis, Concordia University.

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Infrastructures around the world are impacted by seismic events and therefore can suffer different types of losses that include: life, structure, economy and much more. It is important to control the vibration in structures using appropriate design methods, materials, and energy dissipation devices. There are many different types of energy dissipating devices providing supplemental damping to structures and control their vibration response. This research focuses on friction devices, particularly, the inline friction dampers used in diagonal bracings to control the vibration in buildings. There is no standard design process available in the National Building Code of Canada to design buildings with friction dampers. The procedure suggested in FEMA guidelines is quite complicated to use. The focus here is to use a rational method for building design with friction dampers and demonstrate the impact of friction dampers in the design process, and seismic response. Currently, dampers are used as a device which are supplementary to the structure post- design, to increase its strength and stiffness that benefit structures. However, that produces a highly conservative design which may not be economically justified. By letting the dampers take about a tart of the lateral forces, structure can be optimized. The effect of fiction dampers was observed by the reduction of moment and shear on columns, the reduction of cost. Six structures were designed for this study: elastic with and without dampers, moderately-ductile with and without dampers and ductile with and without dampers.

This study demonstrates that by designing and applying friction dampers into the design stage, the beams and columns attract less moment and shear impacting their sizes. While designing the structure, adding dampers helped reduce the cost in material for all three structures by around 7.5% in contrasts to the same model without dampers. An optimization of the structure section was made after adding the dampers into the structure. The impact of moment and shear into the columns and beams was shown to also be reduced of nearly 25-40% (the average is 29.5%). The seismic response of the different building models was determined using nonlinear pushover and time-history analyses. The results show that despite having smaller sections for beams and columns, the structures with dampers have reduced drift as compared to those without dampers. It was clearly demonstrated that friction dampers have an impact into the design of structures making them stronger with a higher response and lower cost. After calculating the cost of material and the overall results of analysis, the ductile structure is found to be the most economical choice. However, considering the post-earthquake damage and repair cost, the moderately-ductile structure with dampers will be a better option.

Divisions:Concordia University > Gina Cody School of Engineering and Computer Science > Building, Civil and Environmental Engineering
Item Type:Thesis (Masters)
Authors:Pilorge, Anne-Gaelle
Institution:Concordia University
Degree Name:M.A. Sc.
Program:Civil Engineering
Date:November 2018
Thesis Supervisor(s):Bagchi, Ashutosh
Keywords:Performance base design, Friction dampers, concrete design, cost analysis, dynamic & static analysis, linear & non-linear analysis, ductility, seismic engineering.
ID Code:984904
Deposited By: Anne-Gaëlle Pilorgé
Deposited On:17 Jun 2019 19:25
Last Modified:17 Jun 2019 19:25


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