Space Resources (Non-Thesis)

A space resources graduate degree is inherently interdisciplinary, combining space engineering, planetary science, materials processing, economics and policy to enable the discovery, extraction and utilization of resources beyond Earth. Core components typically include:

• Planetary Science and Space Environment Fundamentals
  Study of planetary geology, regolith properties, orbital mechanics, radiation environments and microgravity effects.
  
  
• Space Systems and Engineering
  Spacecraft systems, robotics, propulsion, power systems, thermal control and mission design.
  
  
• Resource Identification and Characterization
  Remote sensing, spectroscopy, geophysics and in situ measurement techniques to locate and assess extraterrestrial resources such as water ice, metals and volatiles.
  
  
• In-Situ Resource Utilization (ISRU)
  Methods for extracting, processing and using space-based materials for fuel, construction, life support and manufacturing.
  
  
• Materials Science and Processing in Extreme Environments
  Behavior of materials in vacuum, radiationand microgravity; sintering, meltingand additive manufacturing using planetary materials.
  
  
• Computational Modeling and Simulation
  Multiphysics modeling of excavation, thermal processes, fluid flow and structural systems in reduced gravity.
  
  
• Systems Engineering and Mission Economics
  Trade-space analysis, lifecycle costing, risk assessment and systems integration.
  
  
• Policy, Law and Ethics of Space Resources
  International space law, governance frameworks, commercial policy and sustainability considerations.
  
  
• Capstone Project or Thesis
  An applied or research-focused project addressing a real space resource challenge, often aligned with space agencies or commercial ventures.
  
  

These programs prepare graduates to operate at the intersection of engineering, science, economics and space policy.

The field of space resources is advancing rapidly as space access becomes more frequent and commercialized. Key technologies include:

• In-Situ Resource Utilization (ISRU) Technologies
  Extraction of water ice for propellant and life support, oxygen production from regolith and metal recovery.
  
  
• Space Robotics and Autonomous Systems
  AI-enabled excavation, drilling, navigation and robotic construction in remote and hazardous environments.
  
  
• Additive Manufacturing and In-Space Fabrication
  3D printing using lunar or asteroid materials for structures, tools and replacement parts.
  
  
• Advanced Remote Sensing and Prospecting
  High-resolution orbital imaging, radar and spectroscopic techniques for resource mapping.
  
  
• Energy Systems for Space Operations
  Nuclear power systems, solar arrays, energy storage and thermal management for sustained operations.
  
  
• Computational Mechanics and Multiphysics Modeling
  Coupled fluid–structure–thermal simulations to predict excavation, processing and structural performance in low gravity.
  
  
• Digital Twins and AI-Driven Mission Design
  Virtual mission environments for planning, optimization and real-time operations support.
  
  
• Extreme-Environment Materials and Structures
  Materials designed to withstand radiation, temperature extremes, abrasive regolith and vacuum.
  
  
• Reusable Launch and In-Space Transportation Systems
  Enabling economically viable resource transport and infrastructure development.
  
  

These advances are transforming space resources from speculative science into a strategic pillar of future space infrastructure.

Graduates in space resources pursue careers across government, commercial space, research and policy sectors. Common roles include:

• Space Systems or Mission Engineer – Designing missions that incorporate resource extraction and utilization.
  
  
• ISRU Engineer or Scientist – Developing technologies for resource processing and utilization in space.
  
  
• Planetary Geologist or Resource Analyst – Characterizing extraterrestrial materials and environments.
  
  
• Robotics or Autonomy Engineer – Creating robotic systems for mining, construction and exploration.
  
  
• Materials or Manufacturing Engineer (Space Applications) – Developing in-space fabrication and construction methods.
  
  
• Energy Systems Engineer (Space) – Designing power and thermal systems for off-world operations.
  
  
• Aerospace or Launch Systems Engineer – Supporting transportation of resources and infrastructure.
  
  
• Technology Strategy or Program Manager – Managing space resource development programs.
  
  
• Policy, Legal or Regulatory Specialist – Working on space governance and commercial frameworks.
  
  
• Research Scientist or Academic – Advancing foundational knowledge in planetary resources and ISRU.
  
  

Graduates are particularly valued for their ability to work across engineering, science, economics and international policy.

Research in space resources is focused on enabling sustained human and robotic presence beyond Earth. Major research directions include:

• Water Ice and Volatile Extraction
  Prospecting, extraction and processing of lunar and asteroid water for fuel and life support.
  
  
• Regolith Mechanics and Excavation
  Understanding soil behavior, tool interaction and dust mitigation in reduced gravity.
  
  
• Additive Manufacturing with Planetary Materials
  Structural components, habitats and infrastructure built from in-situ materials.
  
  
• Energy Systems for Off-World Operations
  Nuclear, solar and hybrid systems for long-duration missions.
  
  
• Computational Mechanics and Multiphysics Modeling
  Integrated models of excavation, thermal processing and structural performance.
  
  
• Autonomous and AI-Driven Operations
  Self-directing robotic systems for prospecting, mining and construction.
  
  
• Extreme-Environment Materials and Structures
  Radiation-tolerant, abrasion-resistant and thermally stable materials.
  
  
• Space Resource Economics and Systems Optimization
  Techno-economic modeling, lifecycle analysis and infrastructure scaling.
  
  
• Planetary Protection and Sustainability
  Ensuring responsible resource use and preservation of extraterrestrial environments.
  
  
• Cislunar and Deep-Space Infrastructure Development
  Supporting lunar bases, Mars missions and asteroid operations.

These research areas position space resources as a foundational discipline for the space economy, enabling exploration, settlement and long-term sustainability beyond Earth.

Current research in mineral and energy economics reflects the global transition toward sustainable, low-carbon and resilient energy systems, as well as ongoing challenges in resource efficiency and environmental policy. Key areas of active research include:

• Energy transition modeling and decarbonization pathways, exploring how economies can shift toward renewable energy while maintaining stability and growth.
• Critical mineral supply chains, evaluating the economic and geopolitical dynamics of materials essential to batteries, electronics and green technologies.
• Carbon pricing, taxation and emissions markets, studying the effectiveness of policy tools for climate mitigation.
• Integration of renewable energy and storage technologies, assessing market incentives and infrastructure needs.
• Resource governance and environmental regulation, analyzing how policies influence sustainability and social outcomes.
• Energy access and equity, particularly in developing regions where economic growth depends on affordable and reliable energy.
• Technological innovation and risk assessment, including digital transformation, automation and AI-driven resource optimization.
• Financial modeling and investment under uncertainty, evaluating risk in volatile energy and mineral markets.

These research directions are united by a shared goal: to understand and optimize the economic systems that support responsible energy use, sustainable resource extraction and global environmental balance.