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Research paper: Earthquake Engineering - Coggle Diagram

- - - - Why are advanced designs not used in poorer regions?
      - What are the cultural and social barriers to adopting new technologies?
      - Can seismic resilience be affordable and culturally adapted?
    - - Analyze how different communities, especially in the Global South or marginalized urban areas, experience unequal access to seismic-resilient infrastructure. Explore barriers like cost, policy, awareness, and cultural relevance.
    - - Marini et al. (2014)
        
        Touches on cost, renovation challenges, and eco-efficiency, particularly across European cities.
        
        This makes it useful to discuss economic barriers and strategies for equitable upgrades—especially in older or poorer communities.
      - Freddi et al. (2021)
        
        Helps explore how seismic resilience isn’t just about tech—it’s about systems and access.
        
        Talks about soft resilience measures and community risk, including economic and political dimensions.
      - BigRentz (2024)
        
        Its simple overview is helpful for identifying gaps between what’s possible and what’s actually being built, especially in different economic contexts.
- - - - How do specific materials or technologies improve seismic resilience?
      - What are the engineering trade-offs between different systems (e.g., base isolation vs. energy dissipation)?
      - How are tools like BIM or AI changing the design process?
    - - Explore the science behind materials like shape memory alloys, fiber-reinforced polymers, and seismic isolation systems. Dive deep into how these work and compare their effectiveness through a technical lens.
    - - Shahjalal et al. (2024)
        
        Focuses on innovations like fiber-reinforced polymers and smart materials. It’s ideal for a scientific paper because it directly addresses new technologies and their real-world application in seismic design
        
        Discusses emerging tech like AI and BIM, which are super relevant for analyzing seismic design from a technical/scientific standpoint.
        
        This gives me specific tools and concepts to explore, test, and compare from an engineering perspective.
      - Yenidogan (2021)
        
        Covers seismic isolation technology—perfect to explore scientific mechanisms like base isolators or energy dissipators.
        
        Focuses on seismic isolation systems, which are a highly technical aspect of earthquake engineering.
        
        It provides a detailed review of technologies like base isolators, which are perfect for answering questions like “How do these systems actually work?” or “What are their limitations?”
      - Gioncu & Mazzolani (2010)
        
        Offers technical depth on seismic design principles, materials behavior, and structural analysis. Great for building your technical argument.
        
        It's ideal for grounding your more modern analysis in established seismic design knowledge, so you can show how far tech has come—and where it's still limited.
- - - - What did ancient builders know that we’re only now rediscovering?
      - How can we integrate historical wisdom with cutting-edge design?
      - Are there overlooked or devalued regional methods that could inform future practices?
    - - Trace the evolution of earthquake-resistant structures from historical techniques (like timber framing or flexible joints) to present-day smart systems. Analyze what ancient practices got right—and how we’re rediscovering them
    - - Bayraktar et al. (2012)
        
        This one was a no-brainer. It draws direct parallels between ancient earthquake-resistant methods and modern technologies, which makes it ideal for a historical-to-future trajectory.
      - Gioncu & Mazzolani (2010)
        
        Provides a strong foundation in modern seismic theory—important for comparing what ancient methods didn’t account for and where modern engineering improves on them.
        
        I need this to analyze and contrast ancient vs. modern approaches meaningfully.
      - Marini et al. (2014)
        
        Brings in a forward-looking element by talking about renovation and eco-efficiency.
        
        Helps me bridge the past and future, asking how we can revive old practices (like passive design) in sustainable seismic architecture.
      - Shahjalal et aI (2024)
        
        Bridges current innovations and emerging technologies like AI and BIM—useful for speculating about the future of earthquake engineering.
- - - - Who gets access to earthquake-resistant buildings—and who doesn't?
      - How can future-oriented technologies serve the most vulnerable populations?
      - What responsibilities do we have to build ethically in high-risk zones?
    - - Explore the moral and ethical responsibilities architects and engineers face when designing in seismic zones. Look ahead to how climate change, urban expansion, and inequality intersect with building design.
    - - Freddi et al. (2021)
        
        This is great for raising ethical questions about preparedness, governance, and unequal risk
        
        Offers a multidisciplinary approach, including policy, warning systems, and soft infrastructure—not just buildings.
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      - Shahjalal et al. (2024)
        
        That brings up ethical issues like: If we can build safer, why don’t we do it everywhere?
        
        it highlights barriers to implementing advanced tech, such as cost or complexity.
      - Marini et al. (2014)
        
        Discusses renovation of existing stock for sustainability and resilience, which ties into ethical issues of retrofit vs. rebuild, especially for vulnerable populations.
        
        Raises questions like: who gets prioritized in seismic upgrades?