WatCISL members Vanessa Schweizer and Kasra Motlaghzadeh present research at the 11th Annual Conference of the Society for Decision-Making Under Deep Uncertainty

Thursday, November 21, 2024

Vanessa Schweizer

Associate Professor
519-888-4567 x45106
Location: EV1 211
Link to profile: Vanessa Schweizer

The 11th Annual Conference of the Society for Decision Making Under Deep Uncertainty (DMDU) will take place from November 19th to 21st at the University of Denver, with support from the U.S. Bureau of Reclamation. The theme of this year’s conference is “Bridging the gap between modeling and decisions: how can DMDU techniques better support decision makers?”.

Navigating Deeply Uncertain and Dynamic Futures for Deploying National Direct Air Capture Systems

Vanessa Schweizer, Kasra Motlaghzadeh

Abstract

According to the IPCC, achieving the 1.5°C target set by the Paris Agreement requires scaling up current carbon dioxide removal methods ten-fold. These methods are essential for enabling netzero emissions both by compensating for residual positive emissions and by reducing atmospheric CO2 to safe levels reversing temperature overshoot. However, significant socio-economic and technological uncertainties must be considered when making policy decisions to ensure sustainable growth. This presentation reports research in progress to systematically explore a large number of possible qualitative scenarios of direct air capture and storage (DACCS) in Canada. The goal is to develop dynamic adaptive policy pathways (DAPP) for the Canadian government to guide the development of this emerging sector. We used expert elicitation with the cross-impact balance method to generate a large number of qualitative scenarios taking into account the dependencies of various key uncertainties for DACCS development and deployment in Canada. These scenarios cover a wide range of dimensions, from social aspects like public perception to techno-economic factors such as future cost pathways. In the next steps of our project, we will use these scenarios to identify critical branching points of the system (i.e., points of divergence across alternative futures) that should be considered for dynamic policy design and planning. Later phases of the project will employ energy-economy models to quantify different transition costs between actions, forming the basis for our DAPP for the Canadian DACCS system.