This Capstone project is the final part of the MicroMasters Program in Chemistry and Technology for Sustainability. Design a sustainable biobased process and evaluate the technological, societal and economic impact to finish the MicroMasters Program.
Embark on an exciting journey into the world of sustainable biobased processes with this advanced capstone project. As the crowning achievement of the MicroMasters Program in Chemistry and Technology for Sustainability, this course offers you the unique opportunity to apply your knowledge and skills to design a cutting-edge, eco-friendly process from biomass to finished product. You'll dive deep into the intricacies of conversion processes, making critical decisions about catalysts, reactor types, organisms, and feedstocks while keeping sustainability at the forefront of your design.
To excel in this capstone project, you must have successfully completed all other courses in the MicroMasters Program in Chemistry and Technology for Sustainability with verified certificates. These courses include:
The knowledge and skills gained from these courses are essential for tackling the complex challenges presented in this capstone project.
By completing this capstone project, you'll not only earn your MicroMasters credential but also gain the confidence and expertise to make a significant impact in the field of sustainable chemistry and technology.
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People depend on nature to sustain and fulfill human life, yet the values of nature are typically ignored in decisions. Mapping and modeling ecosystem services can help highlight the diverse benefits provided to people by nature (what and where) and explore how those benefits might change under different management options--thus bringing information about nature’s values into decisions in practical ways. With these approaches, we can improve the state of biodiversity and human well-being by motivating greater and more cost-effective investments in both.
This course introduces the Natural Capital Project’s (NatCap’s) approach to using ecosystem service information to inform decisions. It uses specific examples to illustrate how the approach has worked in each case and highlights key methods and tools used in implementation.
Learn the basic principles and characteristics of biochemical technology in water and wastewater treatment engineering. This course describes the basic principles, process composition, operation characteristics, process calculation methods and some engineering examples of the main biological treatment methods in water and wastewater treatment.
Learn about the basic consumer science, business, logistics, supply chain, and economic principles that are essential for a successful transition from fossil resources to renewable biomass resources in a biobased economy.
This MOOC is the first part of an interconnected series of four MOOCs on Designing Resilient Regenerative Systems (DRRS) which bring together science, design and transformative praxis as a fluid, intervention-based and synergistic process for addressing complex challenges. This is explored through extending our worldviews, reframing complexity, designing as nature, activating our minds through physical movement, and connecting with new communities of practice. Successful completion of MOOC#1 is your gateway to enter the ETH Zurich DRRS executive degree program, with the first Certificate of Advanced Studies (CAS).
