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Wael Guirguis

Students will gain a solid base on Earthquake Engineering and Seismic analysis fundametals, we will start from the basic concepts, you will gain the knowledge of how an earthquake is generated and acts on different structures, it will be illustrated with a very practical method and examples then we will illustrate the philosophy that the American codes ASCE7 & IBC follow and go though the main used factors in code such as Time period (T), Design accelation S1, Ss and give a brief on both equivalent lateral load and response spectrum methods.

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What's inside

Syllabus

Introduction
General & Basic Concepts
Seismic Codes Progression
Seismic Codes Design Philosophy
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How Seismic Force Is Developed
Inertia Force - Newton's First Law
Seismic Force Simulation Example
Seismic Force Magnitude
Buildings Behavior Under Seismic Forces
Tall vs Short Buildings Seismic Behaviour
ASCE7 & IBC Codes Provisions
Overview of Seismic Design Codes History
Time Period
Ss & S1
SDs & SD1
Equivalent Static vs Response Spectrum Method
Lecture 12 - Equivalent Static Load Procedure
Response Spectrum Method
How Response Spectrum Curve is Developed?
Response Spectrum DVA Curve
Response Spectrum Curve Fitting
Time History Analysis
Why Do We Use It
Time History Vs The Design Spectrum
Time History Scalling Method
Time History Scalling Method Advantages & Disadvantages
Conclusion

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Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Seismic Analysis & Earthquake Engineering - Fundamentals with these activities:
Review Structural Dynamics
Refresh your understanding of structural dynamics to better grasp how seismic forces affect buildings.
Browse courses on Structural Dynamics
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  • Review key concepts like natural frequency and damping.
  • Work through example problems involving dynamic loads.
Review 'Dynamics of Structures'
Gain a deeper understanding of the theoretical underpinnings of structural dynamics and seismic analysis.
Show steps
  • Focus on chapters related to earthquake response.
  • Work through example problems involving dynamic analysis.
Review 'Earthquake Resistant Design for Engineers'
Deepen your understanding of earthquake-resistant design principles.
View Melania on Amazon
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  • Read chapters related to seismic analysis methods.
  • Study examples of earthquake-resistant design.
Four other activities
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Calculate Time Period for Different Structures
Practice calculating the time period (T) for various building types to improve your proficiency with code provisions.
Show steps
  • Gather structural data for different building models.
  • Apply ASCE7/IBC formulas to calculate the time period.
  • Compare your results with software outputs.
Follow Tutorials on Response Spectrum Analysis
Enhance your skills in response spectrum analysis by following online tutorials and examples.
Show steps
  • Find tutorials demonstrating response spectrum analysis.
  • Replicate the analysis steps in structural analysis software.
  • Compare your results with the tutorial's outcomes.
Seismic Analysis of a Simple Building
Apply your knowledge by performing a seismic analysis of a simple building using the equivalent lateral force procedure.
Show steps
  • Select a simple building design.
  • Determine seismic design parameters based on ASCE7/IBC.
  • Calculate seismic base shear and distribute lateral forces.
  • Analyze the building's response to the applied forces.
Create a Presentation on Seismic Design Philosophy
Solidify your understanding of seismic design philosophy by creating a presentation summarizing key concepts and code provisions.
Show steps
  • Research the evolution of seismic design codes.
  • Summarize the key principles of ASCE7/IBC.
  • Prepare slides with clear explanations and visuals.

Career center

Learners who complete Seismic Analysis & Earthquake Engineering - Fundamentals will develop knowledge and skills that may be useful to these careers:
Structural Engineer
A Structural Engineer designs and assesses the structural integrity of buildings and other infrastructure. This often involves ensuring structures can withstand seismic activity. This course is a great resource for Structural Engineers, providing a solid understanding of Earthquake Engineering and Seismic analysis fundamentals. The material on ASCE7 and IBC codes, along with the Time period (T), Design acceleration S1, and Ss factors covered, directly applies to the calculations and design considerations Structural Engineers use daily. The course helps build the knowledge necessary to use equivalent lateral load and response spectrum methods.
Seismic Analyst
A Seismic Analyst uses specialized software and techniques to assess the seismic vulnerability of structures. This course helps aspiring Seismic Analysts build a strong foundation in Earthquake Engineering and Seismic analysis fundamentals. The in-depth coverage of topics like Time period, Design acceleration, and Response Spectrum Method is particularly valuable. You will gain a stronger understanding of the field as it develops, and an appreciation for methods like Time History Analysis.
Civil Engineer
Civil Engineering is a broad field, often encompassing structural and geotechnical aspects of construction. Many Civil Engineers find themselves involved in projects requiring seismic considerations. This course helps Civil Engineers gain a foundational understanding of Earthquake Engineering and Seismic analysis fundamentals. The detailed explanations of seismic codes, particularly ASCE7 and IBC, alongside factors like Time period (T) and Design acceleration S1, are especially relevant. It also helps build a solid base for understanding both equivalent lateral load and response spectrum methods.
Building Inspector
Building Inspectors examine buildings and other structures to ensure compliance with building codes and regulations. Knowledge of seismic design principles is vital in areas prone to earthquakes. This course helps Building Inspectors understand the fundamental principles of Earthquake Engineering and Seismic analysis. The detailed review of ASCE7 and IBC codes is especially valuable, as is the exploration of factors like Time period and Design acceleration. Building Inspectors can also benefit from understanding the differences between equivalent static and response spectrum methods.
Architectural Engineer
Architectural Engineering integrates architectural design with engineering principles, often focusing on structural systems. This course provides Architectural Engineers with the knowledge to integrate seismic considerations into their designs. The coverage of ASCE7 and IBC codes, plus topics like Time period and Design acceleration, helps Architectural Engineers collaborate effectively with structural engineers. By studying earthquake engineering from the ground up, the student pursuing Architectural Engineering can make more informed decisions.
Research Engineer
Research Engineers conduct research and development activities to improve engineering practices and technologies. This course can be a great starting point for Research Engineers interested in earthquake engineering. The course helps one to begin to understand the challenges, and especially helps build a useful foundation if your research involves seismic behavior of structures or the development of new seismic-resistant materials and techniques. The exploration of Time History Analysis may inform future research.
Disaster Response Coordinator
A Disaster Response Coordinator organizes and manages responses to natural disasters and other emergencies. In earthquake-prone areas, understanding how structures behave during seismic events is valuable. This course may be useful for Disaster Response Coordinators, giving them a foundational knowledge of Earthquake Engineering and Seismic analysis principles. The section on buildings behavior under seismic forces may be informative and may improve response strategies.
Geotechnical Engineer
Geotechnical Engineering involves studying soil and rock mechanics to design foundations and earthworks. Understanding how seismic forces affect the ground is crucial. This course will be useful for Geotechnical Engineers, particularly the sections covering how an earthquake is generated and acts on different structures. The course may also enhance their ability to assess site-specific seismic hazards, offering a base upon which one can build more specialized skills related to soil-structure interaction during earthquakes. The overview of seismic design codes history may be helpful.
Natural Hazards Analyst
A Natural Hazards Analyst studies the occurrence and impact of natural disasters, including earthquakes. Understanding the source and mechanics of earthquakes is crucial for this role. This course can be very helpful for Natural Hazards Analysts, providing an overview of Earthquake Engineering and Seismic analysis. Studying Seismic analysis fundamentals may make the task of the analyst much easier.
Urban Planner
Urban Planning involves designing and developing cities and communities, considering factors like safety and resilience. Understanding the impact of earthquakes is crucial in seismically active regions. This course may be useful for Urban Planners, helping them to gain awareness of how seismic forces affect buildings and infrastructure. The overview of seismic design codes and their evolution can inform planning decisions aimed at mitigating earthquake risks. The section on buildings behavior under seismic forces may improve design choices.
Professor
Professors teach courses, perform research, and publish scholarly articles at the university level. This course is a great introduction for Professors who need to teach in areas relating to Earthquake Engineering and Seismic Analysis. The course may serve as a valuable refresher, or a new area of study. The course serves to establish a foundation for teaching and research.
Construction Manager
Construction Management involves planning, coordinating, and overseeing construction projects. A basic understanding of seismic design principles can be beneficial for Construction Managers, particularly in earthquake-prone regions. This course may be useful for Construction Managers, giving insight into how seismic forces are developed and how buildings behave under seismic forces. The overview of seismic design codes and the main factors used can aid in communication with engineers and architects. The course may also help Construction Managers to understand the importance of Time History Analysis.
Risk Assessor
Risk Assessors identify and evaluate potential risks to organizations, including natural disasters. This course may be useful for Risk Assessors, introducing them to the principles of Earthquake Engineering. The overview of seismic codes and how seismic force is developed may contribute to better risk assessments in earthquake-prone areas. The course may also encourage the risk assessor to invest in more advanced study.
Lecturer
Lecturers teach courses, often at the university level, in engineering and related fields. To teach effectively in areas related to structural engineering, a Lecturer needs a firm grasp of seismic related knowledge. This course may be useful for Lecturers, and covers Earthquake Engineering, and Seismic analysis fundamentals. This course may help a Lecturer who must teach structural and civil engineering related courses.
Public Safety Officer
Public Safety Officers can assist with community safety procedures and enforcement of safety regulations. In regions prone to earthquakes, awareness of seismic risks and building codes is beneficial. This course may be useful for Public Safety Officers, and may help them to better understand the factors that contribute to building safety during seismic events. This may lead to improved community safety.

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Seismic Analysis & Earthquake Engineering - Fundamentals.
Provides a rigorous treatment of structural dynamics, covering topics such as single-degree-of-freedom systems, multi-degree-of-freedom systems, and earthquake response analysis. It valuable resource for understanding the theoretical foundations of seismic analysis. This book is commonly used as a textbook at academic institutions.

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