Independent Practice

Materials engineering and crystallographic analysis

Fifteen years in applied extractive metallurgy, structural geomechanics, and academic crystallographic research. Independent counsel delivered without contractor bias or corporate overhead.

Academic Foundation

From geomechanics to crystal morphology

Early field commissions across Western Australian nickel belts established the core methodology: macrostructural slope failures originate at sub-microscopic cleavage interfaces. Laboratory practice shifted naturally from bulk extraction monitoring to single-crystal petrographic analysis.

Today the San Francisco facility functions as both a materials verification laboratory and a private research cabinet. Structural engineers and institutional curators receive identical mathematical rigor across every mineralogical audit.

Analytical Standard

Solve for the mineral lattice and grain boundaries, and the mechanical failure mode reveals itself every single time.

Dr. Julian Vance, Principal Metallurgist

Laboratory Capabilities

Diagnostic apparatus and field assays

Optical Microscopy

Polarized transmitted petrography

Olympus BX53 dual-polarization bench outfitted for thin-section petrographic analysis. Identifies optical extinction angles, micro-fracturing, and polymorphic mineral phases down to sub-micron resolution.

Mechanical Testing

Vickers micro-hardness profiling

Diamond indenter testing to establish tensile tolerance and localized cleavage resistance. Verifies fracture toughness parameters across core samples before industrial structural deployment.

Spectroscopic Verification

Confocal Raman spectroscopy

Non-destructive molecular identification via collaborative beamline access. Analyzes mineral morphology, gemstone provenance, and structural inclusion matrices without altering specimen integrity.

Direct scientific counsel

Available for forensic material testing, failure mode testimony, and confidential accession audits for private cabinets and institutional collections.