Jamie Miller

I bridge the gap between complex subsurface science and actionable intellectual property strategy. With a Master’s degree in Earth and Planetary Science and hands-on experience as a Patent Engineer for a high-growth geothermal startup, I specialize in translating sophisticated technical data into high-value assets and regulatory frameworks.

Following a structured period focused on a strategic family relocation to Florida, I am now re-entering the professional landscape. I am seeking a "roots-down" opportunity in the Greater West Palm Beach / Jupiter / Treasure Coast area where I can apply my expertise in geotech, environmental science, or technical writing.

I am driven by projects that offer long-term institutional stability and the opportunity to solve environmental or infrastructural challenges in Florida’s unique geological landscape.

Open to discussions regarding Environmental Consulting, Water Management, and Technology Transfer roles.

Scientific Analysis: Computational modeling, surface and subsurface systems, and planetary data analysis.

Assets Strategy: Patent drafting, data/invention mining, technical specification writing, SOPs, and competitive landscape analysis.

Strategic Communication: Translating "lab-bench" science for stakeholders, legal teams, and regulatory bodies.

Writing Consultancy, Remote/Gainesville, FL - Freelance Writing Consultant

Jan 2024 - Present

• Collaboratively assist writers in professional spheres
• Tailoring documents to suit writers’ mission statements

EnhancedGeo, Remote/St. Petersburg, FL - Patent Engineer

Dec 2022 - Dec 2023

• Crafted patent applications and supporting technical documentation
• Mined data and inventions for R&D
• Advisor for scientific and engineering feasibility

Johns Hopkins University/Applied Physics Laboratory, Baltimore, MD - Graduate Fellow Earth & Planetary Sciences

Aug 2014 - May 2022

• Custom experimental design of Mars environmental simulation chambers
• Electronics, plumbing, and vacuum systems to control temperature, pressure, and humidity
• Target studies of thermally and diffusion driven water and salt behaviors in Mars soils with implications to hydrological cycles and planetary habitability
• Numerical models to parameterize experimental data and extrapolate to real-world applications