Report archive / Six curricula
Follow a frontier from first principles.
Each route is ordered as a technical curriculum. Begin at its first report, follow the prerequisite chain, and use the open problems to turn reading into investigation.
- Frontiers
- 06
- Reports
- 102
- Reading
- 22H
Frontier 01 / 17 reports
Deep Space
Propulsion, in-situ resources, and machines built to outlive their makers.
Deep Space
Deep Space Is an Infrastructure Problem
Deep Space
The Cislunar Transportation Spine
Deep Space
Designing the Delta-V Ledger
Deep Space
Choosing the Deep-Space Propulsion Portfolio
Deep Space
Power and Thermal Control Beyond Earth
Deep Space
Building the Lunar Information Utility
Deep Space
Engineering the Deep-Space Radiation Architecture
Deep Space
Closing the Deep-Space Life-Support Loops
Deep Space
Designing for Human Performance Away from Earth
Deep Space
Selecting the First Lunar Institutional Region
Deep Space
Turning Lunar Regolith into Infrastructure
Deep Space
The Lunar Surface Energy Grid
Deep Space
The Autonomous Lunar Logistics Fleet
Deep Space
Orbital Propellant as Infrastructure
Deep Space
Transporting and Landing the First Mars Campaign
Deep Space
Constructing the First Mars Industrial Base
Deep Space
From Outposts to Off-World Institutions
Frontier 02 / 17 reports
Deep Ocean
Pressure-tolerant systems for the least observed habitats on Earth.
Deep Ocean
Project Atlantis
Deep Ocean
The Atlantis Capability Map
Deep Ocean
The Scientific Case for Atlantis
Deep Ocean
Where Atlantis Should Begin
Deep Ocean
Atlantis in Operation
Deep Ocean
The Pressure Architecture of Atlantis
Deep Ocean
The Human Envelope of Atlantis
Deep Ocean
The Life-Support Architecture of Atlantis
Deep Ocean
The Power Architecture of Atlantis
Deep Ocean
The Thermal Architecture of Atlantis
Deep Ocean
The Communications Architecture of Atlantis
Deep Ocean
The Positioning Architecture of Atlantis
Deep Ocean
The Robotic Fleet of Atlantis
Deep Ocean
The Ports of Underwater Civilization
Deep Ocean
The Surface-to-Seafloor Logistics System
Deep Ocean
Constructing the First Seafloor Institution
Deep Ocean
Keeping the Seafloor Institution Alive
Frontier 03 / 17 reports
Deep Crust
Tools, materials, and sensing architectures for kilometers of hot rock.
Deep Crust
Project Lithos: Building an Institution in the Deep Crust
Deep Crust
Reading the Deep Earth Before We Drill
Deep Crust
The Physics of Drilling Deep Rock
Deep Crust
Failure Mechanics of the Crust
Deep Crust
Materials Beyond the Thermal Frontier
Deep Crust
Sensing the Inaccessible Well
Deep Crust
Architecture of a Deep-Crust Well
Deep Crust
Closing the Deep-Crust Circulation Loop
Deep Crust
Extracting Useful Heat from Hot Rock
Deep Crust
Controlling Induced Seismicity
Deep Crust
The Robotic Fleet of Project Lithos
Deep Crust
Constructing the First Deep-Crust Station
Deep Crust
Operating a Subsurface Heat Institution
Deep Crust
Keeping Deep Wells Alive
Deep Crust
The Environmental Compact for Deep Heat
Deep Crust
Making Deep Heat Bankable
Deep Crust
A Network of Deep-Crust Institutions
Frontier 04 / 17 reports
Fusion Energy
The industrial stack behind confined stars and abundant process heat.
Fusion Energy
The Fusion Mission
Fusion Energy
The Plasma Contract
Fusion Energy
Choosing the Confinement Architecture
Fusion Energy
The Magnetic Skeleton
Fusion Energy
Vacuum as a Working Medium
Fusion Energy
Feeding the Burning Plasma
Fusion Energy
Heating and Driving the Current
Fusion Energy
Measuring and Controlling the Burn
Fusion Energy
Surviving the Plasma Boundary
Fusion Energy
Breeding Fuel in the Blanket
Fusion Energy
Converting Neutron Heat into Power
Fusion Energy
Maintaining the Activated Machine
Fusion Energy
Designing Fusion Safety from First Principles
Fusion Energy
Closing the Tritium Fuel Cycle
Fusion Energy
Making Availability and Economics Physical
Fusion Energy
Constructing and Commissioning the First Plant
Fusion Energy
Building a Reproducible Fusion Industry
Frontier 05 / 17 reports
Cryo-Quantum Infrastructure
Infrastructure that makes fragile quantum states repeatable at scale.
Cryo-Quantum Infrastructure
Defining Cryogenic Quantum Infrastructure
Cryo-Quantum Infrastructure
The Thermal Budget of a Quantum Machine
Cryo-Quantum Infrastructure
Designing the Dilution-Refrigeration Plant
Cryo-Quantum Infrastructure
Vacuum and Radiation Shields for Millikelvin Systems
Cryo-Quantum Infrastructure
Materials and Joints at Millikelvin Temperatures
Cryo-Quantum Infrastructure
Wiring the Thermal Gradient
Cryo-Quantum Infrastructure
The Microwave Control and Readout Chain
Cryo-Quantum Infrastructure
Vibration and Acoustic Control in Cryogenic Systems
Cryo-Quantum Infrastructure
The Magnetic and Electromagnetic Environment
Cryo-Quantum Infrastructure
Cryogenic Control Electronics
Cryo-Quantum Infrastructure
Quantum Packaging and Interconnect
Cryo-Quantum Infrastructure
Calibration and Cryogenic Metrology
Cryo-Quantum Infrastructure
The Automation and Control Plane
Cryo-Quantum Infrastructure
The Resource Architecture for Quantum Materials Simulation
Cryo-Quantum Infrastructure
Reliability and Maintenance of Cryogenic Quantum Infrastructure
Cryo-Quantum Infrastructure
Building the Cryogenic Quantum Factory
Cryo-Quantum Infrastructure
The Quantum Materials Foundry
Frontier 06 / 17 reports
EUV Lithography
The source, optics, masks, resists, metrology, and factories that print matter near atomic scale.
EUV Lithography
The Industrial Mission of EUV Lithography
EUV Lithography
The 13.5-Nanometer Imaging Contract
EUV Lithography
The Laser-Produced Tin-Plasma Source
EUV Lithography
Controlling Tin Droplets and Dual-Pulse Coupling
EUV Lithography
Protecting the EUV Collector
EUV Lithography
Multilayer Mirrors and Atomic-Precision Optics
EUV Lithography
Projection Optics and High NA Imaging
EUV Lithography
Vacuum, Hydrogen, and Optical Lifetime
EUV Lithography
The Reflective Reticle and EUV Pellicle
EUV Lithography
Mask Defects, Repair, and Actinic Inspection
EUV Lithography
EUV Resist Chemistry and Underlayers
EUV Lithography
Photon Stochastics and the Patterning Failure Cliff
EUV Lithography
Computational Lithography and Pattern Intelligence
EUV Lithography
Precision Mechatronics for Overlay and Focus
EUV Lithography
Pattern Transfer, Etch, and Yield
EUV Lithography
Operating EUV in High-Volume Manufacturing
EUV Lithography