The SDG-BASE™ program is an initiative of Penn State's College of Engineering Sustainability Council and the Law, Policy and Engineering (LPE) initiative to foster action towards advancing the SDGs. It recognizes students' experiences and achievements in sustainability and provides a platform to share these with future employers.
The Sustainable Development Goals (SDGs) are part of the United Nations 2015-2030 global agenda for achieving poverty reduction and sustainable development for people, planet, prosperity, peace and partnerships, through 17 goals, 169 targets and 230 indicators measuring progress. Engineersplay an important role developing innovative solutions to address the SDGs, driving societal change. Read more below.
You can be a leader, an agent of change by engaging and working with communities to understand their sustainability challenges and engineering sustainable and socially responsible solutions that can be implemented and adopted with the support, participation, and consent of the community. This approach contributes to a more sustainable, equitable, inclusive, and environmentally just future.
In this page you will find resourcesthat will help guide you towards becoming an empowered, global, sustainability conscious and socially responsible engineer.
Resources
“The problems of the environment and of social and economic equity are interrelated, and their solutions are technological in nature. I believe that engineers and the National Academy of Engineering have a special role to play in this regard.“ – Robert A. Frosch, a member of the National Academy of Engineering
Diversity, Equity, and Inclusion: Best Practices in Engineering|ASCE
Expanding the K-12 Pipeline
Universal Design
Sustainability
Sustainability Approaches in Engineering
Sustainable engineers recognize that their works are embedded in complex social, environmental, political, and economic systems that require a broader and more integrative approach than has historically been applied.
Engineering for Sustainable Development Guiding Principles (The Royal Academy of Engineering, UK):
Principle 1. Look beyond your own locality and the immediate future
Principle 2. Innovate and be creative
Principle 3. Seek a balanced solution
Principle 4. Seek engagement from all stakeholders
Principle 5. Make sure you know the needs and wants
Principle 6. Plan and manage effectively
Principle 7. Give sustainability the benefit of any doubt
Principle 8. If polluters must pollute… then they must pay as well
Principle 9. Adopt a holistic, “cradel-to-grave” approach
Principle 10. Do things right, having decided on the right thing to do
Principle 11. Beware cost cutting that masquerades as value engineering
“Society’s pressing-problems such as the Sustainable Development Goals require be examined from an innovative, systemic, comprehensive and transdisciplinary approach, such as the LPE platform, where policy and law inform and are informed by engineering, science, and technology.” –
Sandra Allain, Director Law, Policy, and Engineering at Penn State
Engineering for One Planet (EOP), a global initiative working to equip all engineers across all disciplines with the fundamental skills and principles of environmental and social sustainability
National Academy of Engineering – Grand Challenges for Engineering
Computational Sustainability enriches computer science. Working on sustainability problems, which involve uncertainty, machine learning, optimization, remote sensing, and decision making, enriches computer science by generating compelling new computational challenge problems.
Engineering for Sustainable Development: Delivering on the Sustainable Development Goalspublished by UNESCO and the International Centre for Engineering Education in 2021, highlights the crucial role of engineering in achieving each of the 17 SDGs
Engineering and the Climate Crisis
Inventing Green: Tools for Design and Sustainability
The Basics of the Circular Economy
Circular Economy is a systems solution framework that tackles global challenges like climate change, biodiversity loss, waste, and pollution. It is based on three principles, driven by design: eliminate waste and pollution, circulate products and materials (at their highest value), and regenerate nature. It is paramount to solving global challenges in resource scarcity, sustainable manufacturing, and supply chain uncertainty.
2022 Symposium National Academy of Engineering – Extraordinary Engineering Impacts on Society
A consensus study report of the National Academies of Sciences, Engineering, and Medicine: Strengthening Sustainability Programs and Curricula at the Undergraduate and Graduate Levels (2020)
Education for Sustainable Development Goals and Key Competencies for Sustainability – UNESCO
Penn State IEngineer Collection:
“All 17 Goals can be related toengineering and every one requires engineering to achieve its goal.” – Ms Audrey Azoulay, Director-General of UNESCO