Making supply chains 'perfectly efficient' creates a vacuum that causes them to collapse like a boiling liquid.
March 19, 2026
Original Paper
Cavitation-Induced Hysteresis in Economic Networks: A Hydrodynamic Phase Transition Model of Operational Solvency
SSRN · 6229538
The Takeaway
Using hydrodynamic modeling on semiconductor data, researchers found that the pursuit of efficiency reduces the 'pressure' (liquidity) in a network. When volatility hits, the system undergoes a physical-style phase transition where it doesn't just slow down—it 'cavitates,' creating permanent structural voids that prevent recovery.
From the abstract
Standard models of supply chain dynamics, specifically the "Bullwhip E ect," treat network nodes as elastic media subject to harmonic oscillation. This framework assumes that capacity is a continuous variable and that perturbations are reversible: when variance subsides, the system relaxes to equilibrium. We propose that this linear approximation holds only within laminar flow regimes and fails to account for topological phase transitions observed during high-amplitude volatility. Using a hydrod