References & Bibliography

CITATION INDEX

Appendix A // Field Engineering & Transport Physics References

Electrodynamic Suspension via Flux Pinning in Type-II Superconductors Applied Superconductivity. (2020). [H-LEV Quantum Locking]. (2020).
Report to the APS of the Study Group on Science and Technology of Directed Energy Weapons APS Study Group. Reviews of Modern Physics 59, Part II, 1987. (1987).
UWMAK-I – A Wisconsin Toroidal Fusion Reactor Design Badger, B., Abdou, M. A., et al. University of Wisconsin Report UWFDM-68, 1974. (1974).
Scaling relations for high gain, magnetized target fusion systems Barnes, D. C. Comments on Plasma Physics and Controlled Fusion 18, 17, 1997. (1997).
Field-Reversed Configuration (FRC) equilibrium and Stability Barnes, D. C. et al. 19th IAEA Fusion Energy Conf., Lyon, 2002. (2002).
MHD Instabilities Bateman, G. MIT Press, 1978. (1978).
Spheromaks Bellan, P. M. Imperial College Press, 2000. (2000).
An energy principle for hydromagnetic stability problems Bernstein, I. B. et al. Proceedings of the Royal Society A223, 17, 1958. (1958).
Transport Phenomena Bird, R. B., Stewart, W. E., and Lightfoot, E. W. John Wiley & Sons, 1960. (1960).
Nonlinear Magnetohydrodynamics Biskamp, D. Cambridge University Press, 1993. (1993).
Reversed field pinch research Bodin, H. A. B. and Newton, A. A. Nuclear Fusion 20, 1255, 1980. (1980).
Establishment of magnetic coordinates for a given magnetic field Boozer, A. H. Physics of Fluids 25, 520, 1982. (1982).
Physics of magnetically confined plasmas Boozer, A. H. Reviews of Modern Physics 76, 1071, 2004. (2004).
The Physics of Plasmas Boyd, T. J. M. and Sanderson, J. J. Cambridge University Press, 2003. (2003).
Reviews of Plasma Physics, Vol. 1 Braginskii, S. I. Consultants Bureau (Leontovich, ed.), 1965. (1965).
Introduction to Plasma Physics and Controlled Fusion (second edn.) Chen, F. F. Plenum Press, 1984. (1984).
Microwaves Made Simple: Principles and Applications Cheung, Stephen and Levien, Frederic. Artech House, 1985. (1985).
Electromagnetic Launching as a Major Contribution to Spaceflight Clarke A.C.. Journal of the British Interplanetary Society, Vol. 9, pp. 261-267. (1950).
Shear, periodicity, and plasma ballooning modes Connor, J. W., Hastie, R. J., and Taylor, J. B. Physical Review Letters 40, 396, 1978. (1978).
Topology of ballooning modes Coppi, B. Physical Review Letters 39, 939, 1977. (1977).
Optimal regimes for ignition and the Ignitor Experiment Coppi, B., Airoldi, A., Bombarda, F., Cenacchi, G., Defragiache, P., and Sugiyama, L. E. Nuclear Fusion 41, 1253, 2001. (2001).
Theory of Nonneutral Plasmas Davidson, R. C. W. A. Benjamin, 1974. (1974).
Plasma Dynamics Dendy, R. O. Clarendon Press, 1990. (1990).
Fusion Research Dolan, T. J. Pergamon Press, 1982. (1982).
Electron and ion runaway in a fully ionized gas Dreicer, H. Physical Review 117, 329, 1960. (1960).
Units of Measurement Dresner, Stephen and Miller, Harvey. Aylesbury, 1971. (1971).
Rain/Precipitation Encyclopaedia Britannica. Micropedia, vol. VIII, p. 390 and vol. 14, p. 960, 1978. (1978).
The Feynman Lectures on Physics Feynman, Richard P., Leighton, Robert B., and Sands, Matthew. Addison-Wesley, 1964. (1964).
Delphi Beam Weapon Technology Foley, Theresa M. Aviation Week and Space Technology 129, 79, 1988. (1988).
The Fusion Quest Fowler, T. K. John Hopkins University Press, 1997. (1997).
FRC Development Whitepaper FRC community. Innovative Confinement Concepts Workshop, PPPL, 1998. (1998).
Ideal Magnetohydrodynamics Freidberg, J. P. Plenum Press, 1987. (1987).
Biography of Physics Gamow, G. Harper and Row, 1964. (1964).
Controlled Thermonuclear Reactions Glasstone, S. and Loveberg, R. H. Van Nostrand, 1960. (1960).
Principles of Magnetohydrodynamics Goedbloed, H. and Poedts, S. Cambridge University Press, 2004. (2004).
Introduction to Plasma Physics Goldston, R. J. and Rutherford, P. H. Institute of Physics Publishing, 1995. (1995).
45.5-Tesla Direct-Current Magnetic Field Generation Hahn, S. , et al. Nature 570. (2019). [No-Insulation HTS Basis]. (2019).
Physics for Students of Science and Engineering Halliday, David and Resnick, Robert. John Wiley and Sons, 1962. (1962).
Beam Weapons: The Next Arms Race Hecht, Jeff. Plenum Press, 1984. (1984).
The Laser Guidebook Hecht, Jeff. McGraw-Hill, 1986. (1986).
Collisional Transport in Magnetized Plasmas Helander, P. and Sigmar, D. J. Cambridge University Press, 2002. (2002).
The spheromak path to fusion energy Hooper, E. B., Pearlstein, L. D., and Ryutov, D. D. Innovative Confinement Concepts Workshop, PPPL, 1998. (1998).
Spheromak overview Hooper, E. B. Fusion Summer Study, Snowmass, 1999. (1999).
Energy 101 Hughes, W. L. Dakota Alpha Press, 2004. (2004).
Principles of Plasma Diagnostics Hutchinson, I. H. Cambridge University Press, 1987. (1987).
Halbach Array Optimization for Maglev Propulsion Systems IEEE Trans. Magnetics. (2022). [The "Screamer" Configuration]. (2022).
ITER Technical Basis ITER Team. ITER EDA Documentation Series Number 24, IAEA, 2002. (2002).
Classical Electrodynamics Jackson, John D. John Wiley and Sons, 1962. (1962).
For Good Measure Johnstone, William D. Holt, Rinehart, and Winston, 1975. (1975).
Contactless Magnetic Pressure Forming at Multi-GPa Regimes Journal of Materials Processing. (2023). [Mag-Forge Specification]. (2023).
Hydromagnetic Stability of a Plasma Kadomstev, B. B. Consultants Bureau (Leontovich, ed.) Vol. 2, 1966. (1966).
Fusion Reactor Physics Kammash, T. Ann Arbor Science, 1975. (1975).
Nuclear Physics Kaplan, I. Addison-Wesley, 1963. (1963).
Principles of Plasma Physics Krall, Nicholas A. and Trivelpiece, Alvin W. McGraw-Hill, 1973. (1973).
Comparative Magnetospheres Krimigis, S. M. and Lanzerotti, Louis J. Physics Today 38, 24, 1985. (1985).
Standing Wave RF Acceleration of Macroscopic Payloads Laks Internal Research Review. (Restricted). [Flash Propulsion].
Hydromagnetic stability of a current-carrying pinch with noncircular cross section Laval, G., Pellat, R., and Soule, J. S. Physics of Fluids 17, 835, 1974. (1974).
Some criteria for a power producing thermonuclear reactor Lawson, J. D. Proceedings of the Physical Society B70, 6, 1957. (1957).
The Physics of Charged Particle Beams Lawson, J. D. Oxford University Press, 1978. (1978).
Levitated Dipole Whitepaper LDX Group. Innovative Confinement Concepts Workshop, PPPL, 1998. (1998).
Fundamentals of Optics, 3rd ed Levin, H. American Institute of Physics, 1957. (1957).
Magnetohydrodynamics and Spectral Theory Lifschitz, A. E. Kluwer Academic Publishers, 1989. (1989).
Particle Physics and Inflationary Cosmology Linde, A. Physics Today 40, 61, 1987. (1987).
Force-Free Magnetic Fields: The Beltrami Topology Lust, R. , Schluter, A. Zeitschrift für Astrophysik. (1954). [MEGA-1K Physics]. (1954).
Microwave Breakdown in Gases MacDonald, A. D. John Wiley and Sons, 1966. (1966).
High Power Laser Coupling Maher, W. E., Nelson, D. J., and Nichols, D. B. Air Force Weapons Laboratory Report AFWL-TR-77-34, 1979. (1979).
A Conceptual Study of Commercial Fusion Power Plants Maisonnier, D., Cook, L., et al. EFDA Report EFDA-RP-RE-5.0, 2005. (2005).
Classical Electromagnetic Radiation Marion, Jerry B. Academic Press, 1968. (1968).
Fusion, the Energy of the Universe McCracken, G. and Stott, P. Elsevier Academic Press, 2005. (2005).
Mission and design of the Fusion Ignition Research Experiment (FIRE) Meade, D. M. Proc. 18th IAEA Int. Conf. on Fusion Energy, Sorrento, 2000. (2000).
Fifth-Order Motion Profiles for Jerk-Limited Trajectory Generation Mechatronics. (2021). [Zero-Ripple Standard]. (2021).
Aspect ratio scaling of ideal no-wall stability limits in high bootstrap fraction tokamak plasmas Menard, J. E., Bell, M. G., et al. Physics of Plasmas 11, 639, 2004. (2004).
Effect of Beam Intensity on Target Response to High-Intensity Pulsed CO₂ Laser Radiation Metz, S. A., Hettche, L. R., Stegman, R. L., and Schriempf, J. T. Journal of Applied Physics 46, 1634, 1975. (1975).
Introduction to the Physics of Intense Charged Particle Beams Miller, R. B. Plenum Press, 1982. (1982).
Partially Ionized Gases Mitchner, M. and Kruger, Charles H., Jr. John Wiley and Sons, 1973. (1973).
The Aries-I Tokamak Fusion Reactor Study Najmabadi, F., Conn, R. W., et al. Fusion Technology, p. 253, North Holland, 1991. (1991).
Overview of the ARIES-RS Reverse-Shear Tokamak Power Plant Study Najmabadi, F. and the ARIES Team. Fusion Engineering and Design Vol 38, P. 3, 1997. (1997).
ARIES-AT: An advanced Tokamak, advanced technology fusion power plant Najmabadi, F., Jardin, S. C. et al. Proc. 18th IAEA Int. Conf. on Fusion Energy, Sorrento, 2000. (2000).
US Stellarator program plan National Stellarator Program Planning Committee. Innovative Confinement Concepts Workshop, PPPL, 1998. (1998).
Adiabatic Charged Particle Motion Northrup, T. G. McGraw Hill (Kunkel, W. B. editor), 1966. (1966).
Magnetic Beneficiation of Highland and Hi-Ti Mare Soils: Magnet Requirements Oder R. et al. SPACE 90 - Engineering, Construction, and Operations in Space II, pp. 133-142, American Society of Civil Engineers, New York, NY. (1990).
Magnetic Beneficiation of Lunar Soils Oder R. et al. Lunar Materials Technology Symposium Proceedings, University of Arizona/NASA SERC, III-15-23. (1992).
Theoretical Analysis of Microwave Propagation Part, S. and Malaga, A. Rome Air Development Center Technical Report RADC-TR-84-74, 1984. (1984).
The spherical torus pathway to fusion power Peng, M. Innovative Confinement Concepts Workshop, PPPL, 1998. (1998).
Dense Plasma by Electromagnetic Fields Raizer, Yu. P. Soviet Physics 16, 688, 1973. (1973).
Fundamentals of Statistical and Thermal Physics Reif, F. McGraw-Hill, 1965. (1965).
Foundations of Electromagnetic Theory Reitz, John R. and Milford, Frederick J. Addison-Wesley, 1960. (1960).
Introduction to Special Relativity Resnick, Robert. John Wiley and Sons, 1968. (1968).
Bluebells and Nuclear Energy Reynolds, A. B. Cogito Books, 1996. (1996).
The Reversed Field Pinch Whitepaper RFP Research Community. Innovative Confinement Concepts Workshop, PPPL, 1998. (1998).
Plasmas and Controlled Fusion Rose, D. J. and Clark, M. MIT Press, 1961. (1961).
Learning About Energy Rose, D. J. Plenum Press, 1986. (1986).
Refractivity Gradients in the Northern Hemisphere Sampson, C. A. ITS Report No. OTR-75-59, 1975. (1975).
Particle Accelerators and their Uses Scharff, Waldemar. Harwood Academic Publishers, 1986. (1986).
On Gauge Invariance and Vacuum Polarization Schwinger, J. Physical Review 82. (1951). [1MT / Vacuum Breakdown Limits]. (1951).
Fundamentals of Plasma Physics Seshadri, S. R. American Elsevier, 1973. (1973).
Plasma Equilibrium in a Magnetic Field Shafranov, V. D. Consultants Bureau (Leontovich, ed.) Vol. 2, 1966. (1966).
Laser Generation of a Relativistic Electron Beam Shope, S. L., et al. Sandia Report NS-32, 3092, 1985. (1985).
Why magnetized target fusion offers a low-cost development path for fusion energy Siemon, R. E., Lindemuth, I. R., and Schoenberg, K. F. Comments on Plasma Physics and Controlled Fusion 18, 363, 1999. (1999).
Electromagnetic Launch of Lunar Material Snow W.; Kolm H.. NASA SP-509, Vol. 2, pp. 117-135. (1992).
Plasma Confinement in Closed Magnetic Systems Solov'ev, L. S. and Shafranov, V. D. Consultants Bureau (Leontovich, ed.) Vol. 5, 1967. (1967).
US Spherical Torus Fusion Energy Science Research Spherical Torus White Paper. Fusion Summer Study, Snowmass, 1999. (1999).
The Physics of Fully Ionized Gases (second edn.) Spitzer, L. Interscience, 1962. (1962).
Fusion Plasma Analysis Stacey, W. M. John Wiley & Sons, 1981. (1981).
Fusion Plasma Physics Stacey, W. M. Wiley-VCH, 2005. (2005).
Two-dimensional calculation of tokamak stability Sykes, A. and Wesson, J. A. Nuclear Fusion 14, 645, 1974. (1974).
Reviews of Modern Physics 45, 178 Tawara, H. and Russek, A. Journal, 1973. (1973).
Magnetic Beneficiation of Highland and Hi-Ti Mare Soils: Rock, Mineral, and Glassy Components Taylor L.; Oder R.. SPACE 90 - Engineering, Construction, and Operations in Space II, pp. 143-152, American Society of Civil Engineers, New York, NY. (1990).
Sustainable Energy Tester, J. W., Drake, E. M., Driscoll, M. J., Golay, M. W., and Peters, W. A. MIT Press, 2005. (2005).
Radiation Protection Effectiveness of a Proposed Magnetic Shielding Concept for Manned Mars Missions Townsend L. et al. SAE Paper No. 901343. (1990).
MHD limits to plasma confinement Troyon, F. Plasma Physics and Controlled Fusion 26 (1A), 209, 1984. (1984).
America the Powerless Waltar, A. E. Cogito Books, 1995. (1995).
Handbook of Chemistry and Physics, 45th ed Weast, Robert C. (ed.). Chemical Rubber Co., 1964. (1964).
Hydromagnetic stability of tokamaks Wesson, J. A. Nuclear Fusion 18, 87, 1978. (1978).
Tokamaks (third edn.) Wesson, J. Oxford University Press, 2004. (2004).
Theory of Toroidally Confined Plasmas White, R. B. Imperial College Press, 2001. (2001).
Infrared Absorptances of Partially Ordered Alloys at Elevated Temperatures Wieting, T. J. and Schriempf, J. T. Journal of Applied Physics 47, 4009, 1976. (1976).
Practical Handgun Ballistics Williams, Mason. Charles C. Thomas, 1980. (1980).
The Application of Electrical Overstress Models to Gate Protection Networks Wunsch, D. C. Proc. 16th Annual IEE Reliability Symposium, 1978. (1978).
Chen, L.K., Nakamura, H.T., "Advanced Magnetic Confinement Strategies for High-Pressure Plasma Processing in Industrial Applications," Journal of Applied Plasma Physics, vol. 47, 2022.

Appendix B // Dispatch References

[DR-01] Gravitational effect of electromagnetic energy density and stress-energy tensor coupling. Wald, R.M. General Relativity, University of Chicago Press (1984). [link]
[DR-02] Testing the equivalence principle and Einstein field equations with atom interferometry. Fixler, D., Foster, G.T., McGuirk, J.M., Snadden, M.J. Science, 315, 74-77 (2007). [link]
[DR-03] Precision measurement of the Newtonian gravitational constant. Quinn, T.J., Speake, C.C., Richter, S.J., Davis, R.S., Gundlach, A. Physical Review Letters, 111(10), 101102 (2013). [link]
[DR-04] Development of high-field superconducting magnets for particle physics. Ballarino, A., Bottura, L. Nature Physics, 5(5), 311-316 (2009). [link]
[DR-05] Atom interferometry tests of fundamental symmetries. Müller, H., Chiow, S.W., Herrmann, S., Chu, S. Physical Review Letters, 100(18), 180405 (2008). [link]
[DR-06] Magnetic Confinement Fusion. Wesson, J. Tokamaks, Oxford University Press (2004). [link]
[DR-07] High-temperature superconductors for high-field magnets. Larbalestier, D.C., Cooley, L.D., Rikel, M.O., et al. Nature, 414(6861), 368-377 (2001). [link]
[DR-08] REBCO High Temperature Superconductor Cables. Syvret, P., Ballarino, A., Bottura, L., et al. IEEE Transactions on Applied Superconductivity, 23(3), 4801405 (2013). [link]
[DR-09] Magnetic pressure and confinement in tokamaks. Sheffield, J. Physics of Fluids, 4(7), 1584-1596 (1994). [link]
[DR-10] Structural analysis of high-field superconducting magnets. Mitchell, N. Superconductor Science and Technology, 27(4), 044005 (2014). [link]
[DR-11] Plasma Confinement in Toroidal Geometry. Wesson, J. Nuclear Fusion, 49, 104015 (2009). [link]
[DR-12] Kink Instability in Cylindrical Plasma. Suydam, B. R. Physical Review Letters, 5, 206-208 (1960). [link]
[DR-13] Pinch Effect and Plasma Stability. Shafranov, V. D. Reviews of Plasma Physics, 2, 103-151 (1966). [link]
[DR-14] Superconducting Magnets for Plasma Confinement. Wilson, M. N. Superconductor Science and Technology, 10, 1-45 (1997). [link]
[DR-15] Coherent Structures in Confined Plasmas. Diamond, P. H. Physics of Plasmas, 15, 012303 (2008). [link]
[DR-16] Charged Particle Dynamics in Electromagnetic Fields. Northrop, T. G. Physics of Fluids, Vol. 6, pp. 1831-1842 (1963). [link]
[DR-17] Active Magnetic Shielding of Space Vehicles. Spillantini, G. Nuclear Instruments and Methods in Physics Research Section A, Vol. 444, pp. 144-149 (2000). [link]
[DR-18] Superconducting Magnets for Radiation Protection in Space. Durante, M. & Cucinotta, F. A. Nature Reviews Physics, Vol. 10, pp. 338-350 (2008). [link]
[DR-19] Lorentz Force Deflection of Cosmic Rays: Engineering Requirements for Deep Space Missions. Townsend, L. W. Acta Astronautica, Vol. 63, pp. 1099-1108 (2008). [link]
[DR-20] Design and Testing of YBCO Superconducting Coils for Spacecraft Radiation Shielding. Snitchler, G. L. & Frye, J. M. IEEE Transactions on Applied Superconductivity, Vol. 15, pp. 1559-1562 (2005). [link]
[DR-21] High-Temperature Superconductors for Fusion Energy Applications. Larbalestier, D.C., Cooley, L.D., Rikel, M.O., et al. Nature Materials, 13(4), 375-381 (2014). [link]
[DR-22] Compact Tokamak Fusion Reactors. Sykes, A. Journal of Fusion Energy, 25(2), 159-164 (2006). [link]
[DR-23] Recent Progress in REBCO Superconductor Development and Applications. Sorbom, B.N., Ball, S.J., Palmer, T.R., et al. Fusion Engineering and Design, 100, 378-405 (2015). [link]
[DR-24] Advances in High-Temperature Superconducting Wire for Fusion Magnets. Orain, J.-P., Febvre, P., Grandotto, M. IEEE Transactions on Applied Superconductivity, 28(3), 4200208 (2018). [link]
[DR-25] Manufacturing Challenges and Solutions for Industrial-Scale REBCO Tape Production. Knoll, A., Maury, F. Superconductor Science and Technology, 29(8), 083001 (2016). [link]

Appendix C // Lunar Mass Driver Research Bibliography

Magnetic Sails and Interplanetary Travel — Zubrin, R. M., and Andrews, D. G. Journal of Spacecraft and Rockets, Vol. 28, No. 2, 1991, pp. 197–203.
Mini-Magnetospheric Plasma Propulsion — Winglee, R., Slough, J., Ziemba, T., and Goodson, A. Journal of Geophysical Research, Vol. 105, 2000, pp. 21,067–21,077.
An Atomic Coilgun — Narevicius, E., et al. New Journal of Physics, Vol. 9, No. 10, October 2007, pp. 358–366.
Towards Magnetic Slowing of Atoms and Molecules — Narevicius, E., et al. New Journal of Physics, Vol. 9, No. 4, April 2007, pp. 96–103.
Space Applications for Contactless Coilguns — Lipinski, R. J., Beard, S., et al. IEEE Transactions on Magnetics, Vol. 29, No. 1, January 1993.
Brown University Magnetic Levitation/Supercooling Research — Paine, C., and Seidel, G. NASA OACT Third Annual Workshop on Advanced Propulsion Concepts, JPL Internal Document D-9416, Pasadena CA, 30–31 January 1992.
A Possibility of Gravitational Force Shielding by Bulk YBa2Cu3O7-x Superconductor — Podkletnov, E., and Nieminen, R. Physica C, Vol. 203, 1992, pp. 441–444.
The Colonization of Space — O'Neill, Gerard K. Physics Today, 27(9), 32–40 (1974).
The High Frontier: Human Colonies in Space — O'Neill, Gerard K. William Morrow and Company, 1977. ISBN 978-0-688-03133-8.
Electromagnetic Mass Drivers — Chilton, F., Hibbs, B., Kolm, H., O'Neill, G.K., Phillips, J. In Space-Based Manufacturing from Non-Terrestrial Materials, AIAA, 1977.
Electromagnetic Launch of Lunar Material — Snow, W.R., and Kolm, H.H. NASA Space Resources, SP-509, Vol. 3, 1992.

Research Repository

Extreme field generation and superconducting systems.

Magnetic fields at the limits of what matter can sustain. Highfield Magnetics develops the coil systems, superconducting materials, and quench protection infrastructure required for continuous fields above 20 Tesla and pulsed fields beyond 100 Tesla. The division works primarily with high-temperature superconductors — REBCO (rare-earth barium copper oxide) coated conductors and Bi-2212 round wire — that operate at liquid nitrogen temperatures and above, eliminating the liquid helium dependency of legacy NbTi and Nb3Sn systems. Applications span fusion confinement magnets, particle accelerator dipoles, ultra-high-field NMR and MRI systems, and the containment fields for Antimatter Production's Penning traps. The current world record for a continuous-field superconducting magnet stands at 45.5 Tesla.

Technical Notes

**Technical Note: Highfield-Plasma Interface Phenomena** Recent theoretical analysis suggests unresolved coupling mechanisms between ultra-high magnetic field generation and plasma confinement dynamics. At field strengths approaching 100+ Tesla, conventional magnetohydrodynamic models break down near plasma-field boundaries, revealing gap areas in our understanding. Primary concern centers on field-plasma feedback loops during rapid magnetic compression events. Preliminary calculations indicate possible resonance conditions where plasma instabilities could dramatically amplify or collapse magnetic field gradients beyond predicted thresholds. The critical plasma beta regime—where magnetic and kinetic pressures equilibrate—remains poorly characterized under these extreme conditions. Key unresolved questions include: Do quantum corrections to plasma conductivity become significant at ultra-high field strengths? Can magnetic reconnection events trigger runaway plasma heating in compressed geometries? What role does relativistic electron drift play in field stability? Experimental validation requires simultaneous high-field generation and plasma diagnostics—technically challenging given measurement interference and containment requirements. Theoretical work suggests investigating modified Grad-Shafranov equilibria and non-ideal MHD effects as starting points for enhanced modeling frameworks. Further investigation warranted before practical applications.