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AI for Sustainable Development:
Challenges and Solutions in Engineering
Deepak Bikram Thapa Chhetri PhD. Engineering
Director of Engineering
Kantipur City College
Agenda
1
Sustainable Development
AI and Data Science for Sustainable Development
2
Civil Engineering
AI in Civil Engineering Infrastructure Development
3
Disaster Management
AI in Disaster Management
4
Challenges and Future Prospect
Challenges, Solutions and Recommendations & Future prospects,
Professor Jeffrey D. Sachs
Source: https://www.youtube.com/watch?v=7UpsWS5hxNg&ab_channel=MonashSustainableDevelopmentInstitute
Professor Jeffrey D. Sachs is a renowned American
economist, author, and director of the Center for Sustainable
Development at Columbia University.
He is a key figure in the achievement of the United Nations'
Sustainable Development Goals (SDGs).
He is also a Special Adviser to the United Nations Secretary-
General on the Sustainable Development Goals.
Sachs has written extensively on global development,
poverty reduction, and sustainable development. He has
been a key advisor to several world leaders and has played a
crucial role in shaping global policies on economic development
and sustainability.
His notable works include "The End of Poverty" and "A New
Global Roadmap for Sustainable Development".
AI and Data Science for Sustainable Development
Professor Jeffrey D. Sachs
Source: https://www.youtube.com/watch?v=7UpsWS5hxNg&ab_channel=MonashSustainableDevelopmentInstitute
Artificial Intelligence (AI) in achieving the Sustainable Development Goals (SDGs).
AI-driven tools are critical for early warning
systems, real-time disaster response, and
efficient recovery strategies, particularly in
multi-hazard risk-prone areas.
Disaster Management
AI is revolutionizing the way we design, build, and
maintain infrastructure. It enables smart construction,
optimizes resource use, and ensures sustainable
practices in urban development.
Civil Engineering
From AI-powered climate models to tools that optimize
renewable energy use and track carbon footprints, these
technologies are vital for combating climate change
effectively.
Climate Change Mitigation:
With AI, we can streamline project
planning, predict maintenance needs,
and ensure longevity in infrastructure
through advanced lifecycle assessments
Infrastructure Development:
Our primary goal is to explore how AI
can act as a catalyst in addressing
some of the most pressing global
challenges outlined in the SDGs.
From fostering sustainable practices
to driving innovation, AI offers
unparalleled potential in creating
solutions that are efficient,
scalable, and impactful.
Objective
The Intersection of AI and Sustainable Development
Your Text Here
Your Text Here
Your Text Here
Optimize
Resource
Use:
Reduce
Carbon
Footprints:
Enhance
Resilience:
Through predictive analytics, AI helps us allocate and utilize resources
efficiently, minimizing waste..
01
Advanced AI models can track emissions, suggest renewable energy
alternatives, and promote energy-efficient solutions.
02
AI-driven systems can predict risks, adapt to changing conditions, and
strengthen our ability to withstand and recover from challenges like
disasters or climate impacts.
03
Applications in Infrastructure:
✓ AI is transforming the way we design and construct infrastructure by ensuring sustainability at every stage of the lifecycle, from planning to
execution and maintenance.
✓ In disaster management, AI aids in creating disaster-resilient infrastructure that can withstand hazards, protect communities, and ensure
continuity in the face of disruptions.
AI in Civil Engineering Infrastructure Development
• AI is enabling predictive models to select sustainable building
materials that balance cost, durability, and environmental impact
• .It helps optimize designs to enhance energy efficiency and
reduce material wastage during construction.
Smart Design:
• Through the integration of AI and IoT, we now have
real-time structural health monitoring systems that
detect potential issues like cracks, stress, or fatigue
in infrastructure.
• These systems improve safety by enabling proactive
maintenance and extending the lifespan of critical
infrastructure.
Monitoring:
• AI-powered machinery, such as robotic arms and
autonomous vehicles, is revolutionizing construction
processes by improving accuracy, reducing human error,
and speeding up project timelines.
• Automated scheduling and resource allocation further
enhance productivity and sustainability.
Construction Automation:
Challenges in Civil Engineering with AI
High Initial Costs for AI Integration:
Data Scarcity and Quality Concerns: Regulatory and Ethical Challenges:
Need for a Skilled Workforce:
• AI systems rely heavily on high-quality data for accurate
predictions and analysis.
• In many cases, data is either insufficient, outdated, or
inconsistent, limiting the effectiveness of AI applications in
infrastructure projects.
• The successful implementation of AI depends on a
workforce trained in both civil engineering and AI
technologies.
• The lack of expertise in areas like machine
learning, data analytics, and IoT integration creates
a gap that needs to be addressed through education
and training.
• Implementing AI technologies requires significant
upfront investment in software, hardware, and
infrastructure.
• For many organizations, especially in developing
regions, this can be a barrier to adoption.
• The use of AI in civil engineering raises questions
about compliance with regulations, data privacy, and
ethical considerations, particularly in automation and
decision-making processes.
• The absence of clear standards and frameworks
can slow down adoption and raise trust issues.
Nepal's
Vulnerability
Quotient:
Nepal, ranking 11th in
earthquakes, faces
significant seismic risk.
11th Earthquake
Nepal, placed 30th in flood
risk, confronts substantial
exposure to flooding.
30th Flood Risk
Nepal's 4th ranking in
Climate Change
underscores the growing
impact of environmental
shifts in the region.
4th Climate Change
Nepal, ranking 20th in Multi-
Hazard Prone areas, faces
a multitude of natural
disaster risks.
20th Multi Hazard Prone
Prediction and Early Warning Systems:
• AI leverages large datasets, such as satellite imagery and
meteorological data, to provide accurate forecasting of
disasters like floods, earthquakes, landslides, and hurricanes.
• These systems enable early warnings, giving communities and
authorities critical time to prepare and mitigate impacts
Emergency Response:
• AI-driven systems assist in decision-making during emergencies,
such as identifying safe evacuation routes and allocating
resources efficiently.
• Real-time data analysis by AI ensures timely and effective
disaster response, even in chaotic environments.
AI in Disaster Management
Applications
Damage Assessment:
• AI-enabled drones and image recognition technologies are
used for rapid post-disaster evaluations, identifying areas of
destruction, infrastructure damage, and affected populations.
• This accelerates recovery planning and ensures aid reaches
where it’s needed the most.
FIG. 1. Artificial Intelligence for Disaster Response
(AIDR) process flow.10
DOI:10.1089/big.2014.0064
Combining Human Computing and Machine Learning to Make
Sense of Big (Aerial) Data for Disaster Response
Ferda Ofli,1,* Patrick Meier,2 Muhammad Imran,1 Carlos Castillo,1 Devis Tuia,3
Nicolas Rey,4 Julien Briant,4 Pauline Millet,4 Friedrich Reinhard,5 Matthew Parkan,6
and Ste´phane Joost6
AI for Sustainable Development Challenges and Solutions in Engineering
Climate Change Mitigation through AI
• AI algorithms are being used to design energy-efficient buildings
and infrastructure, optimizing layouts, material usage, and energy
consumption.
• These designs contribute to lower energy requirements, reducing
overall carbon footprints.
AI in Energy-Efficient Designs:
• AI enhances climate models by analyzing vast amounts
of data from satellites, sensors, and historical records.
• It improves the accuracy of climate predictions, helping
policymakers plan for mitigation and adaptation strategies.
Climate Modeling and Forecasting:
• AI tools assess the carbon emissions associated with
construction projects, from material production to transportation
and execution.
• This enables decision-makers to implement measures that
reduce the environmental impact of infrastructure development.
Carbon Footprint Analysis of Infrastructure Projects:
Challenges in AI Implementation for Sustainability
• AI implementation requires advanced
technological infrastructure, such as reliable
internet, computational power, and IoT devices,
which are often unavailable in underserved areas.
• These gaps hinder equitable access to AI-driven
solutions for sustainability.
Infrastructure Gaps:
• Integrating AI technologies into legacy systems can be
complex and costly, often requiring significant
overhauls of existing workflows.
• Organizations may face challenges in balancing the
adoption of new technologies with maintaining
current operations.
Integration Issues with Existing Systems:
• Many developing regions lack the infrastructure to
collect, store, and analyze high-quality data, which
is essential for AI systems.
• Insufficient data limits the effectiveness of AI in
addressing localized sustainability challenges.
Limited Data Availability in Developing Regions:
• AI-driven decision-making raises ethical concerns,
such as biases in algorithms, privacy issues, and
the potential for unequal distribution of resources.
• Ensuring transparency, fairness, and
accountability in AI systems is a critical challenge
for sustainable development.
Ethical Dilemmas in Decision-Making:
Solutions and Recommendations
Investment in AI Research and Infrastructure:
• Governments and organizations must prioritize funding
for AI research and development to create innovative
solutions tailored to sustainability challenges.
• Infrastructure upgrades, such as better data
collection systems and high-performance computing
facilities, are essential to support AI implementation.
Public-Private Partnerships for Scalable AI Projects:
• Collaboration between public institutions, private
enterprises, and non-profits can accelerate the development
and scaling of AI-based solutions.
• These partnerships can pool resources, expertise, and
technology to ensure wider access to sustainable
innovations.
Capacity Building Through Training and Education:
• Investing in training programs for engineers,
policymakers, and other stakeholders can bridge the skills
gap in AI.
• Education initiatives focusing on AI for sustainability will
empower the next generation to develop and apply
cutting-edge technologies effectively.
Ethical Guidelines for AI in Engineering and Disaster Management:
• Establishing robust ethical frameworks will ensure transparency,
fairness, and accountability in AI-driven decision-making.
• Clear guidelines can address concerns like data privacy,
algorithmic biases, and equitable resource distribution.
Future Prospects
Your Text Here
Your Text Here
Your Text Here
01
02
03
• AI will enable adaptive infrastructure, capable of responding to
dynamic climate conditions like extreme weather events or rising sea
levels.
• Predictive modeling and real-time adjustments will ensure
infrastructure remains resilient and sustainable in the face of climate
challenges.
AI in Adaptive Infrastructure for Climate Resilience:
• The combination of AI, IoT, and Blockchain will create highly
interconnected systems, enhancing transparency, efficiency, and data-
driven decision-making.
• IoT sensors will collect real-time data, while blockchain ensures secure
and traceable processes, powered by AI analytics.
Integration of AI with Emerging Technologies like IoT and Blockchain:
• International cooperation will foster the exchange of knowledge,
resources, and technologies, accelerating AI adoption for global
sustainability goals.
• Collaborative efforts will address issues like data sharing, ethical AI
governance, and capacity building.
Global Collaboration for AI-Driven Sustainability Initiatives:
AI in achieving Sustainable Development Goals by 2030
AI offers game-changing innovations, including predictive design, automated
construction, structural monitoring, and disaster response systems, to
revolutionize these fields sustainably.
Transformative Potential in Civil Engineering and Disaster Management:
Ensuring fairness, transparency, and inclusivity in AI systems is critical for
equitable outcomes that benefit all regions and communities, especially
vulnerable populations.
The Importance of Ethical and Inclusive AI:
Achieving AI-driven sustainability requires global partnerships, investments in
research, and capacity building to unlock impactful innovations for a greener,
resilient future.
Call for Action Towards Global Collaboration:
Addressing AI implementation barriers, such as data gaps, ethical dilemmas,
and infrastructure constraints, demands coordinated efforts from governments,
industries, academia, and communities.
Overcoming Challenges Requires Collaboration:
AI as a Catalyst for
Sustainability.
Artificial intelligence plays a pivotal role in driving sustainable development by optimizing resource use,
enhancing infrastructure resilience and enabling climate change mitigation.
NVIDIA Project DIGITS With New GB10 Superchip Debuts as World’s Smallest
AI Supercomputer Capable of Running 200B-Parameter Models
NVIDIA Puts Grace Blackwell on Every Desk and at Every AI
Developer’s Fingertips
AI for Sustainable Development Challenges and Solutions in Engineering
THANK YOU
For your kind Attention

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AI for Sustainable Development Challenges and Solutions in Engineering

  • 1. AI for Sustainable Development: Challenges and Solutions in Engineering Deepak Bikram Thapa Chhetri PhD. Engineering Director of Engineering Kantipur City College
  • 2. Agenda 1 Sustainable Development AI and Data Science for Sustainable Development 2 Civil Engineering AI in Civil Engineering Infrastructure Development 3 Disaster Management AI in Disaster Management 4 Challenges and Future Prospect Challenges, Solutions and Recommendations & Future prospects,
  • 3. Professor Jeffrey D. Sachs Source: https://www.youtube.com/watch?v=7UpsWS5hxNg&ab_channel=MonashSustainableDevelopmentInstitute Professor Jeffrey D. Sachs is a renowned American economist, author, and director of the Center for Sustainable Development at Columbia University. He is a key figure in the achievement of the United Nations' Sustainable Development Goals (SDGs). He is also a Special Adviser to the United Nations Secretary- General on the Sustainable Development Goals. Sachs has written extensively on global development, poverty reduction, and sustainable development. He has been a key advisor to several world leaders and has played a crucial role in shaping global policies on economic development and sustainability. His notable works include "The End of Poverty" and "A New Global Roadmap for Sustainable Development".
  • 4. AI and Data Science for Sustainable Development Professor Jeffrey D. Sachs Source: https://www.youtube.com/watch?v=7UpsWS5hxNg&ab_channel=MonashSustainableDevelopmentInstitute
  • 5. Artificial Intelligence (AI) in achieving the Sustainable Development Goals (SDGs). AI-driven tools are critical for early warning systems, real-time disaster response, and efficient recovery strategies, particularly in multi-hazard risk-prone areas. Disaster Management AI is revolutionizing the way we design, build, and maintain infrastructure. It enables smart construction, optimizes resource use, and ensures sustainable practices in urban development. Civil Engineering From AI-powered climate models to tools that optimize renewable energy use and track carbon footprints, these technologies are vital for combating climate change effectively. Climate Change Mitigation: With AI, we can streamline project planning, predict maintenance needs, and ensure longevity in infrastructure through advanced lifecycle assessments Infrastructure Development: Our primary goal is to explore how AI can act as a catalyst in addressing some of the most pressing global challenges outlined in the SDGs. From fostering sustainable practices to driving innovation, AI offers unparalleled potential in creating solutions that are efficient, scalable, and impactful. Objective
  • 6. The Intersection of AI and Sustainable Development Your Text Here Your Text Here Your Text Here Optimize Resource Use: Reduce Carbon Footprints: Enhance Resilience: Through predictive analytics, AI helps us allocate and utilize resources efficiently, minimizing waste.. 01 Advanced AI models can track emissions, suggest renewable energy alternatives, and promote energy-efficient solutions. 02 AI-driven systems can predict risks, adapt to changing conditions, and strengthen our ability to withstand and recover from challenges like disasters or climate impacts. 03 Applications in Infrastructure: ✓ AI is transforming the way we design and construct infrastructure by ensuring sustainability at every stage of the lifecycle, from planning to execution and maintenance. ✓ In disaster management, AI aids in creating disaster-resilient infrastructure that can withstand hazards, protect communities, and ensure continuity in the face of disruptions.
  • 7. AI in Civil Engineering Infrastructure Development • AI is enabling predictive models to select sustainable building materials that balance cost, durability, and environmental impact • .It helps optimize designs to enhance energy efficiency and reduce material wastage during construction. Smart Design: • Through the integration of AI and IoT, we now have real-time structural health monitoring systems that detect potential issues like cracks, stress, or fatigue in infrastructure. • These systems improve safety by enabling proactive maintenance and extending the lifespan of critical infrastructure. Monitoring: • AI-powered machinery, such as robotic arms and autonomous vehicles, is revolutionizing construction processes by improving accuracy, reducing human error, and speeding up project timelines. • Automated scheduling and resource allocation further enhance productivity and sustainability. Construction Automation:
  • 8. Challenges in Civil Engineering with AI High Initial Costs for AI Integration: Data Scarcity and Quality Concerns: Regulatory and Ethical Challenges: Need for a Skilled Workforce: • AI systems rely heavily on high-quality data for accurate predictions and analysis. • In many cases, data is either insufficient, outdated, or inconsistent, limiting the effectiveness of AI applications in infrastructure projects. • The successful implementation of AI depends on a workforce trained in both civil engineering and AI technologies. • The lack of expertise in areas like machine learning, data analytics, and IoT integration creates a gap that needs to be addressed through education and training. • Implementing AI technologies requires significant upfront investment in software, hardware, and infrastructure. • For many organizations, especially in developing regions, this can be a barrier to adoption. • The use of AI in civil engineering raises questions about compliance with regulations, data privacy, and ethical considerations, particularly in automation and decision-making processes. • The absence of clear standards and frameworks can slow down adoption and raise trust issues.
  • 9. Nepal's Vulnerability Quotient: Nepal, ranking 11th in earthquakes, faces significant seismic risk. 11th Earthquake Nepal, placed 30th in flood risk, confronts substantial exposure to flooding. 30th Flood Risk Nepal's 4th ranking in Climate Change underscores the growing impact of environmental shifts in the region. 4th Climate Change Nepal, ranking 20th in Multi- Hazard Prone areas, faces a multitude of natural disaster risks. 20th Multi Hazard Prone
  • 10. Prediction and Early Warning Systems: • AI leverages large datasets, such as satellite imagery and meteorological data, to provide accurate forecasting of disasters like floods, earthquakes, landslides, and hurricanes. • These systems enable early warnings, giving communities and authorities critical time to prepare and mitigate impacts Emergency Response: • AI-driven systems assist in decision-making during emergencies, such as identifying safe evacuation routes and allocating resources efficiently. • Real-time data analysis by AI ensures timely and effective disaster response, even in chaotic environments. AI in Disaster Management Applications Damage Assessment: • AI-enabled drones and image recognition technologies are used for rapid post-disaster evaluations, identifying areas of destruction, infrastructure damage, and affected populations. • This accelerates recovery planning and ensures aid reaches where it’s needed the most. FIG. 1. Artificial Intelligence for Disaster Response (AIDR) process flow.10 DOI:10.1089/big.2014.0064 Combining Human Computing and Machine Learning to Make Sense of Big (Aerial) Data for Disaster Response Ferda Ofli,1,* Patrick Meier,2 Muhammad Imran,1 Carlos Castillo,1 Devis Tuia,3 Nicolas Rey,4 Julien Briant,4 Pauline Millet,4 Friedrich Reinhard,5 Matthew Parkan,6 and Ste´phane Joost6
  • 12. Climate Change Mitigation through AI • AI algorithms are being used to design energy-efficient buildings and infrastructure, optimizing layouts, material usage, and energy consumption. • These designs contribute to lower energy requirements, reducing overall carbon footprints. AI in Energy-Efficient Designs: • AI enhances climate models by analyzing vast amounts of data from satellites, sensors, and historical records. • It improves the accuracy of climate predictions, helping policymakers plan for mitigation and adaptation strategies. Climate Modeling and Forecasting: • AI tools assess the carbon emissions associated with construction projects, from material production to transportation and execution. • This enables decision-makers to implement measures that reduce the environmental impact of infrastructure development. Carbon Footprint Analysis of Infrastructure Projects:
  • 13. Challenges in AI Implementation for Sustainability • AI implementation requires advanced technological infrastructure, such as reliable internet, computational power, and IoT devices, which are often unavailable in underserved areas. • These gaps hinder equitable access to AI-driven solutions for sustainability. Infrastructure Gaps: • Integrating AI technologies into legacy systems can be complex and costly, often requiring significant overhauls of existing workflows. • Organizations may face challenges in balancing the adoption of new technologies with maintaining current operations. Integration Issues with Existing Systems: • Many developing regions lack the infrastructure to collect, store, and analyze high-quality data, which is essential for AI systems. • Insufficient data limits the effectiveness of AI in addressing localized sustainability challenges. Limited Data Availability in Developing Regions: • AI-driven decision-making raises ethical concerns, such as biases in algorithms, privacy issues, and the potential for unequal distribution of resources. • Ensuring transparency, fairness, and accountability in AI systems is a critical challenge for sustainable development. Ethical Dilemmas in Decision-Making:
  • 14. Solutions and Recommendations Investment in AI Research and Infrastructure: • Governments and organizations must prioritize funding for AI research and development to create innovative solutions tailored to sustainability challenges. • Infrastructure upgrades, such as better data collection systems and high-performance computing facilities, are essential to support AI implementation. Public-Private Partnerships for Scalable AI Projects: • Collaboration between public institutions, private enterprises, and non-profits can accelerate the development and scaling of AI-based solutions. • These partnerships can pool resources, expertise, and technology to ensure wider access to sustainable innovations. Capacity Building Through Training and Education: • Investing in training programs for engineers, policymakers, and other stakeholders can bridge the skills gap in AI. • Education initiatives focusing on AI for sustainability will empower the next generation to develop and apply cutting-edge technologies effectively. Ethical Guidelines for AI in Engineering and Disaster Management: • Establishing robust ethical frameworks will ensure transparency, fairness, and accountability in AI-driven decision-making. • Clear guidelines can address concerns like data privacy, algorithmic biases, and equitable resource distribution.
  • 15. Future Prospects Your Text Here Your Text Here Your Text Here 01 02 03 • AI will enable adaptive infrastructure, capable of responding to dynamic climate conditions like extreme weather events or rising sea levels. • Predictive modeling and real-time adjustments will ensure infrastructure remains resilient and sustainable in the face of climate challenges. AI in Adaptive Infrastructure for Climate Resilience: • The combination of AI, IoT, and Blockchain will create highly interconnected systems, enhancing transparency, efficiency, and data- driven decision-making. • IoT sensors will collect real-time data, while blockchain ensures secure and traceable processes, powered by AI analytics. Integration of AI with Emerging Technologies like IoT and Blockchain: • International cooperation will foster the exchange of knowledge, resources, and technologies, accelerating AI adoption for global sustainability goals. • Collaborative efforts will address issues like data sharing, ethical AI governance, and capacity building. Global Collaboration for AI-Driven Sustainability Initiatives:
  • 16. AI in achieving Sustainable Development Goals by 2030 AI offers game-changing innovations, including predictive design, automated construction, structural monitoring, and disaster response systems, to revolutionize these fields sustainably. Transformative Potential in Civil Engineering and Disaster Management: Ensuring fairness, transparency, and inclusivity in AI systems is critical for equitable outcomes that benefit all regions and communities, especially vulnerable populations. The Importance of Ethical and Inclusive AI: Achieving AI-driven sustainability requires global partnerships, investments in research, and capacity building to unlock impactful innovations for a greener, resilient future. Call for Action Towards Global Collaboration: Addressing AI implementation barriers, such as data gaps, ethical dilemmas, and infrastructure constraints, demands coordinated efforts from governments, industries, academia, and communities. Overcoming Challenges Requires Collaboration: AI as a Catalyst for Sustainability. Artificial intelligence plays a pivotal role in driving sustainable development by optimizing resource use, enhancing infrastructure resilience and enabling climate change mitigation.
  • 17. NVIDIA Project DIGITS With New GB10 Superchip Debuts as World’s Smallest AI Supercomputer Capable of Running 200B-Parameter Models NVIDIA Puts Grace Blackwell on Every Desk and at Every AI Developer’s Fingertips
  • 19. THANK YOU For your kind Attention