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Geothermal Frontier – Beta

This is an integrated knowledge sharing platform that aggregates global datasets on institutional research capacity and country-level geothermal profiles. It is designed to support cross-sector collaboration and the advancement of next-generation geothermal technologies. The platform facilitates access to structured data, technical insights, and networked expertise to accelerate the development of higher-enthalpy resources and drive cost-competitive deployment at scale.

Honua Resources

Honua Resources – Exploration & Development Team

Institution Type: Industry

Institution Website

New York, USA

Contact

Eric Peterson
Chief Executive Officer
[email protected]

Areas of Expertise

  • Resource Characterization & Modeling
  • Drilling & Well Design
  • Monitoring & Instrumentation
  • Reservoir Creation & Management
  • Engineering & Power Generation

Resource Characterization & Modeling

This area focuses on identifying, assessing, and modeling geothermal resources to understand their size, temperature, and viability. It supports better decision-making by improving predictions of subsurface conditions and resource potential.

  • Exploration, Appraisal, Site Selection Active
  • Geological Modeling Active
  • Geophysical Modeling Active
  • Reservoir Modeling Active
  • Coupled Process Modeling Active
  • Crustal Stress, Geomechanics/Rock Mechanics Active
  • Water/Rock Geochemistry Active
  • Seismic Risk & Mitigation Active
  • Water Resource Management Active
  • High-Performance Computing (HPC) for Coupled or Multiphysics Simulations Active
  • Environmental Risk Assessment Active
Advanced Multi-Physics Geophysics (HeliTEM/AEM, 2D/3D Seismic, MT, Gravity) & Subsurface 3D Digital Twin Integration. We specialize in end-to-end geophysical processing, structural and stratigraphic interpretation, and joint inversion to map hydrothermal alteration zones, clay caps, and deep fault architectures. These datasets are coupled directly with thermodynamic and geomechanical reservoir models on high-performance computing (HPC) workflows to de-risk exploration through appraisal.
Temperature Note Our computational geophysics, joint inversion, and 3D digital twin simulations have no physical temperature limits and are fully capable of modeling deep Superhot Rock (SHR) thermal regimes exceeding 400°C.
Pressure Note Our geomechanical and thermodynamic reservoir models simulate high-pressure, deep crustal stress environments and supercritical fluid dynamics without hardware pressure limits.
Ability to Adjust T & P Simultaneously Yes

Drilling & Well Design

This area covers technologies and expertise needed to safely and efficiently access geothermal resources at depth. It includes innovations in drilling methods, materials, and well design and construction to reduce costs and effectively reach higher-enthalpy systems in more geologic regions.

  • Conventional Rotary Drilling Active
  • Energy Drilling Active
  • Hybrid Systems Active
  • Well Completion (Cements, Liners, Flow Control) Active
  • Casing Materials (Thermal Stresses, Corrosion, Abrasion) Active
  • Advanced Materials for Drilling & Well Integrity Active
Advanced Well Engineering, Slim Hole Test Well Design, and Oil & Gas Technology Adaptation to geothermal
Temperature Note Our well designs, completion architectures, and thermal stress simulations are engineered for high-enthalpy volcanic and sedimentary systems capable of withstanding extreme superhot environments exceeding 350°C–400°C.
Pressure Note Wellbore integrity, casing design, and geomechanical stress simulations account for high-pressure deep reservoir and supercritical fluid conditions.
Ability to Adjust T & P Simultaneously Yes

Monitoring & Instrumentation

This area enables real-time measurement and analysis of geothermal systems through advanced sensors and data tools. It supports performance optimization, risk reduction, and improved understanding of subsurface behavior over time.

  • Downhole Sensors Planned
  • Electrical Components for Geothermal Wells Planned
  • Fiber Optic Sensing Systems (DTS, DAS, DSS) Planned
  • Real-Time Telemetry & Data Acquisition Systems Planned
  • Acoustic Emission Monitoring Planned
  • High-Temperature Electronics for Sensors & Data Systems Planned
  • Borehole Imaging Technologies Planned
  • Environmental Monitoring Planned
  • Permanent Surface Passive Seismic Array Planned
Real-time Subsurface Telemetry Integration & Digital Twin Data Ingestion. We specialize in integrating fiber optic distributed acoustic/temperature sensing (DAS/DTS), borehole imaging, and microseismic telemetry directly into live 3D reservoir models for dynamic risk mitigation and reservoir tracking.
Temperature Note Our data architectures and monitoring workflows are engineered to process high-temperature telemetry streams from extreme high-enthalpy and superhot rock environments exceeding 350°C–400°C.
Pressure Note Designed for deep subsurface monitoring architectures and supercritical fluid conditions.
Ability to Adjust T & P Simultaneously Yes

Reservoir Creation & Management

This area focuses on developing and sustaining productive geothermal systems, including enhanced and closed-loop systems. It involves techniques to develop the geothermal reservoir, manage the system, and optimize fluid flow and heat extraction over the project’s life.

  • Closed-Loop Systems Planned
  • EGS (Hydraulic Stimulation, Zonal Isolation, High-Temp Proppants) Planned
  • Thermal Stimulation or Heat Management Planned
Thermodynamic Reservoir Engineering, Fracture Network Creation, and Coupled THMC Simulation. We model hydraulic and thermal stimulation, multi-well heat exchange dynamics, and zonal isolation architectures across high-temperature volcanic hydrothermal regimes and sedimentary multi-well configurations.
Temperature Note Our computational reservoir simulation and stimulation modeling toolkits evaluate fluid-rock interactions and heat sweeping efficiency in high-enthalpy and superhot rock environments exceeding 350°C–400°C.
Pressure Note Capable of modeling multi-stage fracture propagation, geomechanical in-situ stress fields, and supercritical fluid behavior under deep reservoir pressures.
Ability to Adjust T & P Simultaneously Yes

Engineering & Power Generation

This area addresses the conversion of geothermal heat into usable energy through plant design and system integration. It includes advancements in power cycles, efficiency improvements, and technologies for reliable, cost-competitive electricity generation.

  • Surface Engineering (Piping, Turbines, Power Plant Components) Planned
  • Power Production (Grid Connection/Integration) Planned
  • Heat Exchange & Thermal Management Technologies Planned
  • Opportunities for Co-Production Planned
  • Integration with Hydrogen or Thermal Energy Storage Systems Planned
  • Alternative Working Fluids Planned
Behind-the-Meter Microgrid Offtake & Surface Integration Planning. As an active subsurface exploration and development operator, our planned surface scope focuses on integrating high-enthalpy production into islanded defense microgrid architectures (14-day energy islanding mandates), partnering with surface EPCs and turbine manufacturers for plant execution.
Temperature Note Targeting surface handling and power conversion systems for high-enthalpy and superhot fluid streams (>350°C).
Pressure Note Planned surface balance-of-plant interfaces for deep, high-pressure reservoir production.
Ability to Adjust T & P Simultaneously No

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