Carbon dioxide (CO₂) transportation infrastructure is a critical part of the carbon capture and storage (CCS) value chain, and pipeline design must balance technical performance, safety, reliability, and cost constraints. Designing effective carbon gathering and transmission systems is essential to the safe and efficient movement of captured CO₂.
In Design of Carbon Transportation Infrastructure, you’ll develop an understanding of CO₂ pipeline transportation conceptualization and the considerations that shape techno‑economic objectives, constraints, and processes. You’ll explore pipeline components and constraints for liquid and gaseous CO₂, design and routing considerations, mechanical design principles, electrical and instrumentation (E&I) design requirements, and life cycle assessment (LCA) for carbon pipeline and marine transportation.
You’ll work through structured content, applied assignments, and quizzes that focus on pipeline conceptualization, design and routing, mechanical design, E&I design, and LCA, using realistic carbon transportation contexts.
By the end of this course, you’ll be prepared to apply engineering design principles and standards to CO₂ transportation infrastructure. You’ll be able to define design objectives and constraints, evaluate routing and design factors that influence safety, reliability, and cost, and describe key mechanical and E&I considerations. You’ll also be able to explain how life cycle assessment can be used to inform and improve carbon transportation infrastructure design.
Upon successful completion of this course, you’ll be able to:
SAIT is located on the traditional territories of the Niitsitapi (Blackfoot) and the people of Treaty 7 which includes the Siksika, the Piikani, the Kainai, the Tsuut'ina and the Îyârhe Nakoda of Bearspaw, Chiniki and Goodstoney.
We are situated in an area the Blackfoot tribes traditionally called Moh'kinsstis, where the Bow River meets the Elbow River. We now call it the city of Calgary, which is also home to the Métis Nation of Alberta.