01. Context & MotivationResearch Context & Problem Framing
Public debates treat AI energy impacts in silos, claiming AI either saves the planet via green optimization or destroys power grids through data-center expansion. No unified framework existed reconciling task-level efficiency with macro-level rebound.
02. Methodology & System DesignMethodology & Implementation
Synthesized empirical literature into a unified 4-mechanism model (efficiency progress & green innovation vs. compute demand & rebound) governed by 6 critical moderators (regulation, grid timing, spatial siting, AI maturity, human capital, and finance).
03. Empirical Findings & EvidenceFindings & Key Results
Demonstrates that AI energy impact is not a fixed trade-off but a governed relationship: AI lowers energy/carbon intensity while absolute emissions are dictated by regulatory, spatial, and temporal grid dispatch policies.
04. Topics & Methodology StackSSRN PaperJevons ParadoxAI Energy NexusMacroeconomic ModelingPolicy & Grid Governance