Construction of Earthquake Resistant Buildings: A Research Report

This report focuses on the construction of earthquake-resistant buildings, emphasizing the need to mitigate earthquake damage. It delves into the background of earthquakes, their measurement, and their impact on reinforced concrete structures. The report explores structural framing, requirements for structural safety, and various practices and technologies for low-cost earthquake-resistant construction, including the use of waste tire pads and rice/wheat straw buildings. The research methodology involves a review of secondary sources and the application of mathematical models. The study aims to provide a comprehensive understanding of earthquake-resistant building design and construction, offering valuable insights for engineers, architects, and policymakers involved in creating safer and more resilient structures. The report highlights the importance of understanding seismic waves and the behavior of structures during earthquakes, with a focus on the role of reinforced concrete frames and the significance of structural safety requirements. This report aims to provide a detailed analysis of the construction of earthquake resistant buildings.

Construction of earthquake resistant buildings 1
CONSTRUCTION OF EARTHQUAKE RESISTANT BUILDINGS
By Name
Course
Instructor
Institution
Location
Date

Construction of earthquake resistant buildings 2
TABLE OF CONTENTS
Executive summary.........................................................................................................................2
1.0 INTRODUCTION...................................................................................................................3
1.1 Research background.................................................................................................................3
1.2 Research background.................................................................................................................4
1.3 Project aims and objectives.......................................................................................................4
1.4 Significance of the research.......................................................................................................5
2.0 LITERATURE REVIEW.......................................................................................................5
2.1 Importance of studying earthquake...........................................................................................6
2.2 Measuring earthquakes..............................................................................................................7
2.3 Impacts of the earthquakes on Reinforced concrete buildings..................................................7
2.4 Structural framing......................................................................................................................8
2.4 Requirements for structural safety.............................................................................................8
2.6 Practices and technology for low cost earthquake resistance construction.............................11
2.61 Use of waste tire pads............................................................................................................11
2.62 Rice /wheat straw buildings...................................................................................................12
3.0 RESEARCH METHODOLOGY.........................................................................................13
3.1 Introduction..............................................................................................................................13
3.2 review of the Secondary sources.............................................................................................14
3.3 mathematical models...............................................................................................................14

Construction of earthquake resistant buildings 3
Conclusion....................................................................................................................................14
References......................................................................................................................................15

Construction of earthquake resistant buildings 4
CONSTRUCTION OF EARTHQUAKE RESISTANT BUILDINGS
Executive summary
The main focus of this research will be carrying out a research the construction of earthquake
resistant buildings. Mitigating the disturbing damages normally caused by the earthquakes is one
of the key requirements in various parts of the world. Because the occurrence of the earthquakes
is unpredictable, the only choice that is available is to design and build houses and other
structures which are earthquake resistant.
Earthquakes refers to the trembling of the earth’s surface, which is due to the rapid release of
energy in the Earth’s lithosphere which creates seismic waves. This energy can be produced by
the sudden dislocation of the segments of the crust, by volcanic eruption or even by a manmade
explosion. The main goal of the proposed research is to study and analysis the construction of
earthquake resistant buildings. Various specific objectives were set to aid in achieving the main
aim of the study. Because of that, it is very significant to have a deep understanding of the
construction of the resistant buildings.
It was very essential to understand the main features of the topic of research. Thus qualitative
research approach together with the literature review will be applied for this research. This
research methodology is very appropriate to conduct this study because the literature survey
offers information which is very detailed regarding to the construction of the earthquake resistant
buildings.

Construction of earthquake resistant buildings 5
1.0 INTRODUCTION
1.1 Research background
Disasters refers to the occurrences that are not expected and have a great impact on humanity. In
responding to this disasters, there have been great efforts that have been put in place to mitigate
the overwhelming effects of these disasters. The results of this efforts that have been put in place
are very motivating in the developed countries while very miserable and unfortunate in the
developing countries. Usually the earthquakes are considered as the greatest hazard on earth
which have claimed a lot of human lives and properties since time memorial. (Duggal, 2015, p.
520).
Mitigating the disturbing damages normally caused by the earthquakes is one of the key
requirements in various parts of the world. Because the occurrence of the earthquakes is
unpredictable, the only choice that is available is to design and build houses and other structures
which are earthquake resistant. A lot of efforts have been put in place regarding to the design and
construction of earthquake resistant buildings. With this implementation the number of lives lost
due to earthquakes has greatly reduced. By putting up earthquake resistant buildings it is
possible to mitigate the effects caused by the earthquakes (Booth, 2016, p. 62).
1.2 Research background
Very significant advancements have been achieved in the last 10years in the design and building
of structures that are resistant to earthquakes. This is as a result of the experimental and
analytical research which have conducted in different parts of the globe as well as the lessons

Construction of earthquake resistant buildings 6
gained by various parties involved in inspecting the damages caused by the recent
earthquakes. (Khan, 2016, p. 394).
Even with the great success that has been achieved in this field, very significant gaps still remain
in our understanding of the idea of seismic character of the reinforced concrete buildings and
many areas exist which specialists, both the practitioners and the researchers like to disagree.
1.3 Project aims and objectives
The main aim of this research will be carrying out a research the construction of earthquake
resistant buildings. With that various specific objectives were set to aid in assisting the main aim
of the research such as;
i. Carrying out a literature review regarding to the construction of earthquake resistant
buildings
ii. Understanding the entire concept of the earthquakes
iii. Finding out the effects of earthquakes on the reinforced concrete buildings
iv. Analysing the various practices and technology for low cost earthquake resistance
construction
1.4 Significance of the research
The findings of this research will be of great importance in assisting the various parties who are
involved in coming up with ways through which it can be possible to design and construct
earthquake resistant structures. The amount of damage and number of people who usually perish
due to earthquakes will greatly reduce with the establishment of earthquakes resistant buildings.

Construction of earthquake resistant buildings 7
2.0 LITERATURE REVIEW
Earthquakes refers to the shaking of the earth’s surface, resulting from the sudden release of
energy in the Earth’s lithosphere which creates seismic waves. This energy can be produced by
the sudden dislocation of the segments of the crust, by volcanic eruption or even by a manmade
explosion (PANKAJ AGRAWAL, 2016).
It is impossible to design and construct a structure which is 100% earthquake resistant, only that
its resistance to the earthquake can be improved. Special treatment is required to be given to the
structures depending on the region in which the particular site is located. The earthquakes that
have occurred in the recent past have raised various issues and have focused us to thick about the
manner in which we can construct houses and other structures that are earthquakes resistant
(Structures, 2015, p. 31).
2.1 Importance of studying earthquake
During the earthquakes both the masonry and the reinforced concrete buildings collapse due to
the intense shaking of the earth’s surface (AGRAWAL, 2014, p. 429).
The figure below illustrates the damage behavior of the reinforced concrete due to the shaking of
the earth’s surface.

Construction of earthquake resistant buildings 8
Fig 1: Earthquake shaking reverses tension and compression in the structural members Source
https://www.sciencelearn.org.nz
The illustration above shows the behavior of the reinforced concrete structures when an
earthquake occurs. The tension and the compression in the members ‘reverses due to the
earthquake loads, and usually the structure fails to resist and collapses.
2.2 Measuring earthquakes
The earthquakes are normally measure din a process referred to as seismology. Waves usually
travels in the surface of the earth during the occurrence of the earthquake and they carry with
them the earthquake loads o the surface of the of the earth and then the waves transfer the load
from the surface of the earth to the structure which in turn destroys it. Seismic waves are the

Construction of earthquake resistant buildings 9
waves which normally transfers the load from the structure of the earth to the structure and
destroys it. Seismology is the study of the seismic waves. (Plevris, 2014, p. 42).
2.3 Impacts of the earthquakes on Reinforced concrete buildings
The reinforced concrete buildings have been widely accepted in the various parts of the world in
the recent past. The reinforced concrete structures are usually made of the vertical members i.e.
the walls and the columns and the horizontal structural members which are usually beams and
slabs and in most cases are supported by foundations which transfers the load to the ground. The
structural system which is made up of the columns and beams is referred to as a reinforced
concrete frame (Chorro, 2015, p. 439).
Fig 2: The total horizontal earthquake forces in a building increases downward along its height
Source: https://www.sciencelearn.org.nz
The reinforced concrete frame plays a very essential role in resisting the earthquake waves. The
shaking as a result of the earthquake waves creates inertial forces in the building.

Construction of earthquake resistant buildings 10
2.4 Structural framing
Usually there are two types of the structural framing which have the ability to withstand seismic
loads together with gravity. The framed construction may comprise the following.
The light framing members which have a diagonal bracing such as infill walls or wood frames
for resisting the lateral loads (García, 2010, p. 339).
Substantial rigid jointed columns and the beams that are capable of resisting the lateral loads by
themselves. Comparing the bearing walls and the framed construction. The framed construction
can be used for the construction of a greater number of the storey. The ductility and strength can
be much better controlled in the framed construction. Normally the strength of the frame d
construction is not influenced by the number and size of the openings (Anagnostopoulo, 2012,
p. 66).
2.4 Requirements for structural safety
The following main requirements of structural safety of the building can be achieved by:
A free standing wall must be designed to be safe as a vertical cantilever. This requirement will
be very complex to be achieved in unreinforced masonry Zone. Thus all the portions inside the
building must be held on the sides as well as Parapets must be reinforced and held to the main
structural frames or slabs.
The horizontal reinforcement in the walls is needed for transferring their own out-of-plane
inertial loads horizontally to the shear walls.
The walls must be effectively tied to avoid separation at the vertical joints due to the ground
shaking (Bertero, 2018, p. 110)

Construction of earthquake resistant buildings 11
The shear walls must be present along both axes of the building
Floor or roof elements must be tied together and have ability to exhibit diaphragm action
A shear wall must be capable of resisting all the horizontal forces because of its own mass and
those masses that are transmitted to it.
All the trusses of the structure must be anchored to the supporting walls and have an arrangement
for the transferring their inertial forces to the end walls.
For all the past earthquake, the reinforced concrete frame structures which have columns and
beams of various heights within one storey, suffered more damage in the shorter columns as
compared to the teller column in the same storey (Dowrick, 2016) .Two examples of the
buildings with short columns in the building on a sloping ground and a building with a
mezzanine floor can be as shown in the figure below.

Construction of earthquake resistant buildings 12
Fig 3: buildings with short columns Source https://www.sciencelearn.org.nz
The poor behavior of short column is because of the earthquake, tall column and a short column
of same cross section move horizontally by the same amount which can be seen from the given
figure.
Fig 4: The poor behavior of short column is because of the earthquake
Source : https://www.sciencelearn.org.nz
Nevertheless, the short column is stiffer as compared to the taller and it attracts larger
earthquakes forces. The stiffness of a column indicates the resistance to the deformation, the
larger is the stiffness, a larger force is thus required to deform it.

Construction of earthquake resistant buildings 13
2.6 Practices and technology for low cost earthquake resistance construction
There are economical and more conventional simple construction practices which can be
incorporated in the construction of earthquake resistant buildings which can reduce cost of
construction and make it safer to live in. Some of the practices and technology include:
 Use of waste tire pads
 Rice straw buildings
 Wooden and Bamboo house
3.0 RESEARCH METHODOLOGY
3.1 Introduction
Usually the research methodology is characterised as a thoughtful methodology which gives
assurance to the analyst or the researcher to collect relevant information or data to embrace the
examination relating to this topic of research by applying the various research approaches. The
main goal of the proposed research is to study and analysis the construction of earthquake
resistant buildings. Various specific objectives were set to aid in achieving the main aim of the
study. Because of that, it is very significant to have a deep understanding of the construction of
the resistant buildings.
It was very essential to understand the main features of the topic of research. Thus qualitative
research approach together with the literature review will be applied for this research. This
research methodology is very appropriate to conduct this study because the literature survey

Construction of earthquake resistant buildings 14
offers information which is very detailed regarding to the construction of the earthquake resistant
buildings.
This research approach gives a summary of the previous researches that have been conducted by
other scholars regarding to the construction of the earthquake resistant buildings and due to that
it gives a brief description of the regarding to the construction of the earthquake resistant
buildings.
Some of the techniques that were applied during the research include;
3.2 review of the Secondary sources
Various secondary sources such books, journal and other publications that contains information
relevant to the topic of research were reviewed. By reviewing the secondary sources, it is much
easier to achieve the aims of the study as it gives the summary regarding to the construction of
earthquake resistant buildings.
3.3 mathematical models
Different mathematical models will be applied during the study. The mathematical models that
will be used must relating to the construction of the earthquake resistant buildings.
Merits of mathematical models
Some of the benefits of using the mathematical models in research include;
 They are very easy and fast to create
 They have the ability to simply a very complex situation
 They can aid in improving the understanding of the real life variables
 With the mathematical models it is possible to make predictions

Construction of earthquake resistant buildings 15
 They can greatly aid in controlling such as in the aircraft control.
 For one to carry out simulation he/she requires a deeper understanding of the subject
PROJECT PLANNING AND GHANTT CHART
The Gantt chart below show the range which is required for all the activities to be carried out.
The advancement of the venture is divided into four diverse breakthrough which will assist in
finishing errand and in addition give an essential contribution from the direct sources. For all
the assignments which are arranged in this task has been allocated sufficient time.
Fig 7: Gantt chart
This research just covers the proposed study yet as shown by the change of the arrangement
many stages may be incorporated extending as indicated by the given reasons for every activity.

Construction of earthquake resistant buildings 16
Conclusion
In conclusion, very significant advancements have been achieved in the last 10years in the
design and building of structures that are resistant to earthquakes. This is as a result of the
experimental and analytical research which have conducted in different parts of the globe as well
as the lessons gained by various parties involved in inspecting the damages caused by the recent
earthquakes.
Mitigating the disturbing damages normally caused by the earthquakes is one of the key
requirements in various parts of the world. Because the occurrence of the earthquakes is
unpredictable, the only choice that is available is to design and build houses and other structures
which are earthquake resistant. A lot of efforts have been put in place regarding to the design and
construction of earthquake resistant buildings. With this implementation the number of lives lost
due to earthquakes has greatly reduced. By putting up earthquake resistant buildings it is possible
to mitigate the effects caused by the earthquakes
References

Construction of earthquake resistant buildings 17
AGRAWAL, P., 2014. EARTHQUAKE RESISTANT DESIGN OF STRUCTURES. 4th ed.
London: PHI Learning Pvt. Ltd.
Anagnostopoulo, S. A., 2012. Computer analysis and design of earthquake resistant structures:
a handbook. 3rd ed. Texas: Computational Mechanics Publications.
Bertero, V. V., 2018. Earthquake-resistant Reinforced Concrete Building Construction:
Organization and final recommendations. 4th ed. London: University of California, University
Extension.
Booth, E. D., 2016. Earthquake Design Practice for Buildings. 2nd ed. Chicago: Edmund D.
Booth.
Chorro, I., 2015. Earthquake Resistant Engineering Structures XI. 4th ed. Chicago: WIT Press.
Dowrick, D. J., 2016. Earthquake resistant design: for engineers and architects. 1st ed.
Auckland: Wiley.
Duggal, S. K., 2015. Earthquake Resistant Design of Structure. 2nd ed. London: OUP India,.
Fujino, Y., 2015. Stock Management for Sustainable Urban Regeneration. 3rd ed. London:
Springer Science & Business Media.
García, B., 2010. Earthquake architecture: new construction techniques for earthquake disaster
prevention. 3rd ed. Sydney: LOFT and HBI.
Khan, M. A., 2016. Earthquake-Resistant Structures: Design, Build, and Retrofit. 4th ed.
London: Butterworth-Heinemann.

Construction of earthquake resistant buildings 18
Manohar, S., 2014. Seismic Design of RC Buildings: Theory and Practice. 3rd ed. Chicago:
Springer.
PANKAJ AGRAWAL, 2016. EARTHQUAKE RESISTANT DESIGN OF STRUCTURES. 5th ed.
London: PHI Learning Pvt. Ltd..
Plevris, V., 2014. Structural Seismic Design Optimization and Earthquake Engineering:
Formulations and Applications: Formulations and Applications. 4th ed. London: IGI Global.
Sharma, N., 2011. R.C.C Design & Drawing. 4th ed. Berlin: S. K. Kataria & Son.
Structures, D. o. S.-R. S., 2015. Ductility of Seismic-Resistant Steel Structures. 1st ed. Chicago:
CRC Press.
.

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