Elizabeth R. S. Burnim is a Research Scientist and Abstract Expressionist artist investigating the emergence of macroscopic order in complex systems. With over 35 years of experience spanning aerospace fluid mechanics, national laboratory technology assessment, and advanced quantum transport theory, her work uniquely bridges the boundaries between rigorous physical reductionism and creative-intuitive strategy. Operating as an independent practice under her own name, she directs research and creative initiatives investigating non-equilibrium transport, field-wave configurations, and phase transitions.
Artistic Practice: In Metamorfosi (2026)
The In Metamorfosi series constitutes an accelerated experimental cycle tracking the evolution of systemic density:
Movements I–III (Atmospheric Initialization): Analysis of foundational material frameworks and light-field density.
Movements IV–V (Systemic Criticality): The final study of Self-Organized Criticality. Movement IV functions as a high-dimensional lattice of potential energy, while Movement V documents the emergent state of phase-stable equilibrium.
As a painter, Elizabeth treats the large-scale canvas as a high-dimensional experimental apparatus. Her dense oil paintings explore how order, pattern, and macroscopic coherence naturally emerge from microscopic, chaotic elements. This creative practice acts as a visual manifestation of many-body dynamics, analogue gravity horizons, and optical interference patterns. Her spatial approach to light, movement, and atmospheric density is heavily informed by historical and modern masters of form:
Tiepolo & Turner: She translates Tiepolo’s weightless, theatrical use of luminous space and Turner’s turbulent, dissolving atmospheric vortices into a rigorous visual exploration of fluid mechanics and acoustic metric systems.
Rothko & Joan Mitchell: Her canvases dialogue directly with the expansive, vibrational fields of Rothko, treating his color-field boundaries as physical phases of nonequilibrium states. This quiet tension is shattered by the kinetic, high-velocity brushwork of Joan Mitchell, which she deploys to capture the chaotic, localized instabilities of optical interference geometries.