About

I study exploration environments where subsurface systems remain poorly understood, are difficult to access, and early actions can permanently shape what becomes possible next.

Across marine reservoirs, terrestrial resource frontiers, and planetary surfaces, subsurface structure must often be inferred through indirect sensing before it can be verified through disturbance.

Interpretation remains non-unique. Ground truth is limited. Verification frequently requires disturbance that alters the system being studied. These conditions define a class of environments known as disturbance-constrained exploration systems.

My work examines how subsurface knowledge forms under these conditions and how exploration systems should operate when interpretation cannot converge before commitment.

My training spans geophysics, planetary science, and exploration systems engineering. I study subsurface environments where remote sensing provides indirect signals of structure but where confirming those signals requires direct interaction with the system.

These conditions occur in environments such as:

• Lunar volatile reservoirs and permanently shadowed regions
• Lava tubes and subsurface void systems
• Regolith mechanical stratigraphy and excavation environments
• Marine subsurface reservoirs and carbon storage systems
• Robotic subsurface exploration and sensing systems
   

Across these domains exploration follows a recurring progression:

1. indirect sensing and model inference
2. detectability limits and interpretive ambiguity
3. disturbance required for verification
4. infrastructure accumulation and irreversible commitments

My research focuses on the early stages of this progression, where uncertainty remains structurally dominant and where exploration systems must reason and act before subsurface structure can be resolved.

Exploration science is inseparable from the environments in which it operates. Subsurface systems impose physical limits on sensing, access, and verification.

Direct engagement with constraint-dominated environments through field geophysics, technical diving, and FAA-certified drone operations informs this work. These settings reinforce a practical discipline: exploration must respect the physical systems it interacts with.

The research described above has institutional consequences.

Exploration systems frequently require commitments before subsurface interpretation can converge. Infrastructure placement, drilling authorization, corridor fixation, and capital deployment can create irreversible exposure long before underlying physical conditions are fully understood.

Sustainable Exploration was founded to govern those commitments.

The organization evaluates whether proposed commitments preserve structural integrity before authority is exercised. Its work applies across energy infrastructure, marine systems, subsurface resources, capital programs, orbital regimes, and planetary development.

Sustainable Exploration operates upstream of engineering, finance, permitting, and execution. Its role is not to optimize projects but to determine whether commitment itself remains defensible under conditions of uncertainty and irreversibility.

Planetary environments serve as reference systems for commitment governance because irreversibility is exposed there with unusual clarity.

On the Moon and beyond, infrastructure placement, subsurface disturbance, and operational corridors permanently shape the environments in which they occur. Remediation cycles are limited and early decisions establish long-lived precedent.

These conditions reveal structural dynamics that also exist within terrestrial infrastructure systems but are often obscured by scale, liquidity, and institutional diffusion.

For this reason planetary exploration provides a clear reference environment for understanding irreversible commitments across Earth’s emerging infrastructure systems.