literature demonstrates that governance must account for scale, cross-scale interactions, and SES dynamics (Folke, 2006;Gunderson and Holling, 2002;Holling, 1973) even in pursuit of static goals. Such system dynamics and cross-scale interactions make it impossible for a managed system to maintain a desired goal state for any length of time (Angeler et al., 2020).The concept of social-ecological resilience, as originally developed by Holling (1973), has been diluted through time, and has lost focus upon its core underpinnings: the multi-scale processes and structures that define linked systems of humans and their environments. Here, we refocus research on social-ecological resilience to this core conception, which applies to dynamics in linked social, ecological, and economic systems. This refocus on Holling's perspective ensures that SES research is based upon a sound foundation that accounts for the essential role of biophysical systems in social-ecological resilience.An important question for building the next global development agenda on resilience thinking, therefore, is the extent to which the current SDGs incorporate critical aspects of SES dynamism as revealed through social-ecological resilience research. Nevertheless, critical analysis of global sustainable development frameworks from a social-ecological resilience perspective is limited. A recent review by Reyers et al. (2022) highlighted six shifts towards resilience thinking that, if implemented, will contribute to future sustainable development: from capitals to capacities, from objects to relations, from outcomes to processes, from closed to open systems, from generic interventions to context sensitivity, and from linear to complex causality.