Plasma architecture01
Field-Reversed Configuration
A compact, high-beta plasma topology being developed for magnetic confinement, pulsed operation and a pathway toward advanced fuels.
Start a conversationAdvanced fusion research platform
Taking on the problems others avoid
Solving Earth's hardest energy problems.
Power, propulsion and infrastructure.TilghmanKraftwerk is advancing OMER‑III, a field-reversed configuration fusion concept integrating advanced plasma control, aneutronic fuel-cycle research and direct energy conversion.
PlatformFRC
Fuel researchp–¹¹B
ConversionDirect
Conceptual OMER‑III visualization
01 / Mission
Advanced energy for difficult environments
Energy abundance is an engineering problem—and we intend to solve it.
TilghmanKraftwerk is focused on the hardest parts of the energy system: compact generation, plasma stability, high-density power, direct conversion, industrial deployment and the extension of reliable power beyond Earth.
02 / OMER‑III
One platform. Three connected problems.
OMER‑III is organized as a staged experimental program. Each subsystem must be modeled, measured and validated before commercial performance claims can be established.
Fuel pathway02
Aneutronic Research
A staged research program centered on proton–boron-11 concepts, with intermediate experiments designed to retire the hardest physics risks first.
Power architecture03
Direct Energy Conversion
A long-term approach intended to convert charged-particle energy into electricity while reducing dependence on conventional thermal cycles.
03 / Experimental infrastructure
Built to turn hypotheses into measurements
A serious laboratory for a serious engineering problem.
The development environment is conceived around high-vacuum systems, pulsed power, magnet assemblies, plasma diagnostics, controls, materials testing and disciplined configuration management.
Conceptual laboratory visualization
04 / Development path
Evidence before escalation
A program built around measurable gates.
The program advances only when the data closes the preceding question. This turns a very ambitious endpoint into a sequence of bounded engineering decisions.
Stage 01
Model
Physics basis, digital twin, boundary conditions and failure-mode definition.
Stage 02
Validate
Component rigs for plasma formation, magnets, pulsed power, vacuum and diagnostics.
Stage 03
Integrate
A controlled prototype campaign with traceable engineering requirements.
Stage 04
Scale
Commercial and space-system architecture informed by measured prototype data.
05 / TilghieSpace
Power beyond the grid
The same energy problem—without a horizon.
TilghieSpace extends the OMER‑III research architecture toward high-density space power, electric propulsion and long-duration infrastructure. These are future applications dependent on successful terrestrial validation.
Enter TilghieSpace06 / Proposed campus
Atlantic City, New Jersey
Advanced energy and space manufacturing under one roof.
The proposed Atlantic City Advanced Energy & Space Manufacturing Campus is intended to unite prototype assembly, test operations, direct-conversion research and space-system integration in a single waterfront industrial environment.
Facility plans remain subject to acquisition, financing, permitting and program validation.
TilghmanKraftwerk brings together fusion research, energy systems, commercial real estate development and infrastructure strategy. The company's thesis is direct: the physical environment for innovation matters as much as the device being developed inside it.
08 / Contact
Scientific, institutional and strategic inquiries
Build the next stage with us.
Contact TilghmanKraftwerk
Partnerships · Engineering · Capital · Facilities