Nakhleh Dossier Fusion & Weaponization Links

Executive Summary & Key Judgments

Professional Dossier: Dr. Charles W. Nakhleh — Assessment of Contributions to Advanced Plasma Physics and National Security Applications

This dossier provides a comprehensive assessment of the professional history, technical contributions, and programmatic leadership of Dr. Charles W. Nakhleh, a senior executive within the U.S. nuclear weapons complex. The analysis focuses on his roles at Los Alamos National Laboratory (LANL) and Sandia National Laboratories (SNL), with particular emphasis on his work in High Energy Density Physics (HEDP), the Magnetized Liner Inertial Fusion (MagLIF) program, and the leadership of LANL’s X-Theoretical Design (XTD) Division. The central objective is to identify and characterize the relationship between his work in advanced plasma and fusion physics and its application within a national security context, specifically concerning the potential weaponization of these technologies.

influential figure within the U.S. nuclear weapons complex, whose career trajectory from technical staff to senior executive leadership at both Sandia and Los Alamos National Laboratories places him at the nexus of theoretical weapons design and experimental validation. His career path represents a strategic, long-term investment by the National Nuclear Security Administration (NNSA) to cultivate a leader with deep, integrated expertise across the key disciplines and institutions responsible for the nation’s nuclear deterrent.

leadership roles related to the Magnetized Liner Inertial Fusion (MagLIF) program and other High Energy Density Physics (HEDP) experiments are directly and explicitly linked to the mission of the NNSA’s Stockpile Stewardship Program (SSP). His work on implosion physics, hydrodynamic instabilities, and integrated target design is fundamental to generating the experimental data required to validate the advanced simulation codes used to certify the U.S. nuclear arsenal.

• Key Judgment 2 (HIGH CONFIDENCE): Dr. Nakhleh’s technical contributions and

• Key Judgment 1 (HIGH CONFIDENCE): Dr. Charles W. Nakhleh is a central and

* Key Judgment 3 (HIGH CONFIDENCE): The primary “weaponization” aspect of this

• Key Judgment 4 (LOW CONFIDENCE): There is no open-source evidence to suggest

that Dr. Nakhleh’s work is associated with the development of novel, operational weapon systems based on compact fusion or advanced plasma principles (e.g., a “fusion-powered” directed energy weapon or a standalone thermonuclear explosive). The focus of his documented research and programmatic responsibilities is on fundamental physics relevant to understanding, assessing, and maintaining the current, legacy stockpile.

work is the use of HEDP experiments as scientific surrogates for studying the physics of a nuclear weapon primary. Research into the Magneto-Rayleigh-Taylor (MRT) instability in magnetically-imploded beryllium liners on the Z-Machine, for example, is a direct physical analogue to a critical failure mode in a modern thermonuclear device. This research is not peripheral to the weapons program; it is a cornerstone of the science-based approach to ensuring the reliability of the existing nuclear deterrent in the absence of underground testing.

An analysis of Dr. Charles W. Nakhleh’s career reveals a deliberate and strategic progression through the key theoretical and experimental centers of the U.S. nuclear weapons enterprise. His trajectory is not merely a sequence of promotions but a calculated cross-pollination of expertise between the nation’s primary nuclear design laboratory (Los Alamos) and its premier pulsed-power and engineering laboratory (Sandia). This path has made him uniquely qualified to lead the core scientific elements of the Stockpile Stewardship Program, as his experience encompasses both the theoretical design of nuclear weapons and the experimental validation that underpins modern certification.

After receiving his Ph.D. in Physics from Cornell University in 1996, Dr. Nakhleh began his career at Los Alamos National Laboratory as a technical staff member in the Applied Physics (X) Division.1 His early work immediately immersed him in the core missions of the post-Cold War nuclear complex. He served as a “weapon system point-of-contact,” a role that involves deep technical familiarity with the design and performance of a specific system in the U.S. stockpile. Concurrently, he worked extensively on “uncertainty quantification,” a critical discipline in the era of science-based stockpile stewardship that seeks to mathematically

Professional History and Programmatic Leadership

Early Career and Foundational Work (LANL, 1996 - c. 2007)

characterize the confidence in predictions made by complex simulation codes in the absence of full-scale testing.1

His potential was recognized early, as evidenced by his graduation from the Theoretical Institute of Thermonuclear and Nuclear Studies (TITANS) program at Los Alamos, an elite internal program designed to cultivate the next generation of senior weapons scientists.1 This early foundation in theoretical design, uncertainty quantification, and arms control policy established the intellectual framework for his subsequent leadership roles.

This early period was also marked by contributions to the broader national security and arms control mission. Publications from this time include analyses of “Noble Gas Atmospheric Monitoring for International Safeguards at Reprocessing Facilities” and the “Technical Challenges for Dismantlement Verification”.3 This work demonstrates a holistic understanding of the nuclear fuel cycle and weapons lifecycle, from production and stewardship to dismantlement and verification, providing a broad strategic context for his more focused work on weapons physics.

The Z-Machine is a cornerstone of the Stockpile Stewardship Program, capable of generating extreme temperatures and pressures relevant to nuclear weapons physics. Dr. Nakhleh’s department was responsible for designing the targets for two primary experimental campaigns: magnetically-driven ICF, specifically the Magnetized Liner Inertial Fusion (MagLIF) concept, and radiation-effects experiments.1 The MagLIF concept is a magneto-inertial fusion (MIF) approach that uses the Z-Machine’s immense electrical current (up to 20 MA) to magnetically implode a cylindrical metal tube (“liner”) onto a pre-magnetized and laser-preheated fusion fuel, with the goal of achieving thermonuclear conditions.6

In a move that would prove formative for his career, Dr. Nakhleh transitioned to Sandia National Laboratories, where he eventually became the leader of the Inertial Confinement Fusion (ICF) Target Design Department within the Pulsed Power Sciences Center.1 This position was of immense strategic importance, placing him in charge of the

His time at Sandia provided him with direct, ground-truth experience in the immense challenges of bridging the gap between theoretical models and the complex, often counter-intuitive results of HEDP experiments. He was at the forefront of designing

Sandia National Laboratories (c. 2007 - 2013): The Crucible of Pulsed Power

theoretical design and analysis for experiments conducted on Sandia’s Z-Machine, the world’s most powerful pulsed-power facility.1

Los Alamos National Laboratory (2013 - Present): Return to the Design Agency

experiments intended to provide the data needed for code validation. This period was not a departure from the weapons program but a deep dive into its experimental heart, allowing him to “see my home laboratory from a distance… [and] see up close how a different lab functioned”.2 This experience was a critical investment by the nuclear security enterprise in developing a leader with an integrated understanding of both the design codes and the experiments that validate them.

In 2013, Dr. Nakhleh returned to Los Alamos to assume the role of Division Leader for the X-Theoretical Design (XTD) Division, a position he held until 2018.1 XTD is the historical and current center of theoretical nuclear weapons design at Los Alamos, responsible for the physics design, assessment, and certification of the U.S. nuclear arsenal.1 His leadership of this division placed him in direct charge of the scientists and physicists who perform the annual assessments of the stockpile and design the life extension programs and alterations for legacy systems.

Following his successful tenure leading XTD, Dr. Nakhleh was promoted to his current role as the Associate Laboratory Director for Weapons Physics (ALDX).1 This is one of the most senior scientific leadership positions at the Laboratory. In this capacity, he has direct line-management responsibility for all of LANL’s “nuclear weapons designers and simulation code architects”.1 Furthermore, he has programmatic responsibility for the entire NA-11 portfolio, which encompasses weapons science, high-performance computing, and technology maturation, representing a budget of over $700M.12 His career had come full circle: the physicist who began by studying uncertainty in weapons codes now leads the entire directorate responsible for developing and applying those codes to certify the nation’s deterrent.

The following table provides a consolidated summary of Dr. Nakhleh’s career progression and the expanding scope of his responsibilities within the U.S. nuclear weapons complex.

Los Alamos National Laboratory

Key Responsibilities & Mission Context

Technical Staff Member, Applied

Served as a weapon system

1996 - c. 2007

Position / Title

Institution

Dates

(LANL)

c. 2007 - 2013

Physics (X) Division

Sandia National Laboratories (SNL)

Leader, ICF Target Design Department

point-of-contact, developed methods for uncertainty quantification in simulation codes, and contributed to arms control and dismantlement verification analyses. Graduate of the TITANS program.1

Led the theoretical design and analysis of targets for the Z Pulsed-Power Facility, including magnetically-driven inertial confinement fusion (MagLIF) and radiation-effects experiments.1

Oversaw all nuclear weapon physics design, assessment, and certification efforts at the Laboratory, leading the core group of theoretical weapons designers.1

Direct line and programmatic responsibility for all nuclear weapons designers, simulation code

Associate Laboratory Director, Weapons Physics (ALDX)

Los Alamos National Laboratory (LANL)

Los Alamos National Laboratory (LANL)

Division Leader, X-Theoretical Design (XTD)

2018 - Present

2013 - 2018

architects, and the NA-11 portfolio for weapons science, computing, and technology maturation.1

Technical Contributions to Magnetized Liner Inertial Fusion (MagLIF) and HEDP

Dr. Nakhleh’s tenure at Sandia National Laboratories placed him at the center of the experimental and theoretical work on the MagLIF concept. His name appears on a significant body of peer-reviewed literature from this period, detailing foundational experiments in HEDP. An analysis of these publications reveals a clear focus on understanding and mitigating the primary physics challenges associated with magnetically-driven implosions, work that has direct and profound implications for the science of nuclear weapons.

Implosion Physics and Hydrodynamic Instabilities: A primary focus of Dr. Nakhleh’s collaborative work at Sandia was the study of the Magneto-Rayleigh-Taylor (MRT) instability. The MRT instability is a fundamental challenge in any Z-pinch or magnetically-driven implosion, where the lower-density magnetic field “bubble” pushes on the higher-density plasma “liner,” causing any imperfections on the liner surface to grow exponentially and potentially destroying the integrity of the implosion.13 Maintaining a stable, symmetric implosion is the single most critical factor for successfully compressing a fuel target to fusion conditions.

Dr. Nakhleh’s technical contributions, as documented in the open literature, can be categorized into three interconnected areas: the study of hydrodynamic instabilities, the design of integrated fusion targets, and the validation of experimental diagnostics and techniques.

Several key papers co-authored by Dr. Nakhleh report on the first controlled experiments to measure MRT growth in fast (sub-100 nanosecond) Z-pinches.15 The methodology involved

Analysis of Key Publications and Reports

Integrated MagLIF Target Design and Simulation: Beyond studying specific instabilities, Dr. Nakhleh was a key contributor to the overall design of integrated MagLIF experiments.8 These publications detail how the three core components of MagLIF—axial pre-magnetization of the fuel (

Bz ≈10 T), laser pre-heating of the fuel (Elas ≈2 kJ), and the main current pulse from Z for implosion (Imax ≈18−20 MA)—are combined in a self-consistent design.8 His role as head of the ICF Target Design Department meant his team was responsible for the theoretical and computational work, using codes like LASNEX, to model the entire process from laser absorption to final stagnation, providing the designs for the first neutron-producing MagLIF experiments.8

using initially solid aluminum or beryllium tubes machined with microscopic, sinusoidal perturbations of known wavelengths (e.g., 25-400 µm). The Z-machine would then drive ~20 MA of current through the liner, and a sophisticated, high-resolution X-ray radiography system would capture a sequence of images of the liner’s surface as it imploded, allowing for precise measurement of the instability growth.16 This work was essential for benchmarking the radiation-magnetohydrodynamic simulation codes used to design the experiments, demonstrating remarkable agreement between the simulations and the physical reality down to very small wavelengths.16

This body of research is not fundamentally about developing fusion as a commercial energy source. It is a direct, unclassified investigation into the physics of a nuclear weapon primary. The implosion of a cylindrical or spherical metal “pusher” (the liner) onto a fuel core is the basic mechanism of the primary stage of a modern thermonuclear weapon. The hydrodynamic instabilities, particularly the Rayleigh-Taylor instability and its magnetic counterpart, are the most critical failure modes that can disrupt the symmetric compression required for an efficient nuclear detonation. In the absence of full-scale underground testing, the Stockpile Stewardship Program relies entirely on advanced simulation codes to certify the performance and reliability of these weapon systems. The experiments on the Z-machine, studying the implosion of beryllium liners under extreme magnetic pressure, provide the only accessible, real-world data in this HEDP regime to validate and improve the physics models within those secret weapons codes. Therefore, when Dr. Nakhleh co-authors a paper on “Beryllium liner implosion experiments on the Z accelerator,” he is directly contributing to the scientific foundation that ensures the credibility of the U.S. nuclear deterrent.13

The following table highlights a selection of Dr. Nakhleh’s key publications from his time at Sandia, illustrating the focus on implosion physics and code validation.

Key Technical Contribution /

Journal / Venue

Year

Title

2010

Significance

Physics of Plasmas

Physical Review Letters

“Measurements of Magneto-Rayleigh- Taylor Instability Growth during the Implosion of Initially Solid Al Tubes…”

Reports on the first controlled, quantitative measurements of MRT instability growth in fast Z-pinches, providing critical validation data for simulation codes.16

An extended paper providing more detailed analysis of the MRT experiments, including the effects of current-induced ablation and comparisons to simulations across a range of wavelengths.14

An overview article detailing the development of pulsed-power ICF concepts at Sandia, including MagLIF, where Dr. Nakhleh is listed as a contributor.21

“Measurements of magneto-Rayleigh- Taylor instability growth during the implosion of initially solid metal liners”

“Pulsed-power driven inertial confinement fusion development at Sandia National Laboratories”

Details simulations of electrothermal instabilities, a precursor to MRT, in current-carrying

“Simulations of electrothermal instability growth in solid aluminum

IEEE Transactions on Plasma Science

Physics of Plasmas

2012

rods”

Physical Review Letters

rods on the Z accelerator, co-authored by Nakhleh.22

“Observations of modified three-dimensional instability structure for imploding z-pinch liners that are premagnetized…”

Reports on novel experimental data showing that pre-magnetizing a liner with an axial field dramatically changes the instability structure from symmetric to helical, a key finding for MagLIF.23

Dr. Nakhleh’s work was not conducted in isolation but as part of a highly integrated, multi-institutional effort involving the top experts in the U.S. HEDP community. An analysis of his co-authorship network reveals the command structure of the MagLIF program and the broader collaborative ecosystem dedicated to stockpile stewardship science. This network is

Professional Network and Collaborations in High Energy Density Physics

Presents the first integrated magnetohydrodyna mic simulations used to design the initial neutron-producing MagLIF experiments, a paper on which Nakhleh was a key contributor.8

“Design of magnetized liner inertial fusion (MagLIF) experiments using the Z facility”

Physics of Plasmas

Key Co-Author Analysis

not a loose academic affiliation but a tightly-knit team of senior scientists and program leaders from the national laboratories and key industrial partners, executing a high-priority NNSA mission.

The author lists on Dr. Nakhleh’s most significant publications from his Sandia tenure read as a “who’s who” of the pulsed-power and Z-pinch physics world. His most frequent and significant collaborators include the program’s most senior figures, demonstrating that his role in theoretical design was central to the experimental campaigns.

• Dr. Daniel B. Sinars: A constant presence on Nakhleh’s key papers, Dr. Sinars is a leading experimentalist and, as of 2021, the Director of the entire Pulsed Power Sciences Center at Sandia.24 A recipient of the Presidential Early Career Award for Scientists and Engineers (PECASE), his expertise is in developing the novel X-ray diagnostics that made the quantitative measurement of MRT instability possible.25 The collaboration between Sinars (the experimental and diagnostic lead) and Nakhleh (the theoretical design lead) formed the core of the MagLIF experimental effort.

• Dr. Stephen A. Slutz: Dr. Slutz is a Distinguished Member of Technical Staff at Sandia and is widely credited as the original inventor of the MagLIF concept.28 His 2010 Physics of Plasmas paper is the foundational theoretical document for the program. Dr. Nakhleh’s co-authorship on subsequent experimental papers with Dr. Slutz indicates that he was working directly with the concept’s originator to translate the theoretical idea into physical reality.23

• Dr. Kyle J. Peterson: A staff scientist and later manager for ICF Target Design at Sandia, Dr. Peterson was another core member of the experimental team, frequently serving as lead author on papers where Nakhleh was a key contributor.22 His work focused on both instability growth and experiments with beryllium liners.32

The affiliations of the co-authors on these papers map the institutional network required to execute these complex experiments. This network is dominated by the NNSA’s three nuclear weapons laboratories, with critical support from industry.

• Sandia National Laboratories (SNL): The undisputed hub of the experimental work, as the host of the Z-Machine. The majority of co-authors on MagLIF papers are from SNL’s

Institutional Network Mapping

Pulsed Power Sciences Center.17

• General Atomics: Personnel from General Atomics, including Diana Schroen, Korbie

• Los Alamos National Laboratory (LANL): Even on experiments led by Sandia, LANL

• Lawrence Livermore National Laboratory (LLNL): LLNL collaborators, such as Joseph

Koning and Michael Marinak, appear on papers focused on simulation and code development, indicating a tri-lab effort to benchmark and improve the predictive capabilities of their respective hydrodynamics codes.22

personnel appear as co-authors, highlighting the deep integration between the labs. For instance, on a 2013 paper on 3D instability structures, a LANL affiliation is noted alongside those from Sandia and General Atomics.23

Killebrew, and B.E. Blue, are frequently listed as co-authors on the experimental papers.17 This points to General Atomics’ critical role as an industrial partner, likely responsible for the complex target fabrication and specialized diagnostic components required for these experiments.

The structure of this collaborative network underscores the nature of the work. It is not an academic exercise but a programmatic one. The presence of the facility director, the concept’s inventor, and senior scientists from all three NNSA weapons labs on the same papers demonstrates that Dr. Nakhleh was a key leader within a high-priority, enterprise-wide strategic initiative.

As the lead experimentalist and facility director, Sinars’ collaboration with Nakhleh represents the critical link between theoretical target design and experimental execution and measurement.17

Director, Pulsed Power Sciences Center; Expert in HEDP diagnostics

As the inventor of the MagLIF concept, his

Distinguished Member of Technical Staff;

Sandia National Laboratories

Sandia National Laboratories

Significance of Collaboration

Known Role / Expertise

Dr. Stephen A. Slutz

Collaborator Name

Dr. Daniel B. Sinars

Primary Institution

Physicist

Dr. Kyle J. Peterson

Sandia National Laboratories

Manager / Staff Scientist, ICF Target Design

collaboration with Nakhleh signifies the direct translation of his foundational theory into tangible experimental designs.23

A key experimentalist and frequent lead author on MagLIF papers, working alongside Nakhleh on instability growth and liner performance experiments.22

A key theorist and simulation expert at Sandia, collaborating with Nakhleh on modeling electrothermal and hydrodynamic instabilities.22

A senior leader in HEDP and ICF physics at both Sandia and later LLNL, his presence indicates high-level programmatic involvement.17

Represents the critical industrial partnership, likely

Sandia National Laboratories / LLNL

Senior Manager / Director

Sandia National Laboratories

Dr. Michael C. Herrmann

Diana G. Schroen

Dr. Edmund P. Yu

General Atomics

Staff Scientist

Scientist

in the area of advanced target fabrication, essential for conducting the experiments designed by Nakhleh’s team.23

Assessment of National Security and Dual-Use Implications

High Energy Density Physics (HEDP) experiments on facilities like the Z-Machine are a cornerstone of the SSP. They are the only means available to create macroscopic samples of matter under conditions of temperature and pressure that begin to approach those inside an imploding nuclear weapon. The data from these experiments—such as the radiographic images of MRT instability growth that Dr. Nakhleh helped analyze—are used for “code validation”.37 The complex, multi-physics simulation codes used to model nuclear weapon performance are validated by demonstrating that they can accurately predict the outcome of

The Stockpile Stewardship Program (SSP) was established after the U.S. moratorium on underground nuclear testing in 1992. Its mission is to ensure the safety, security, and reliability of the nation’s nuclear arsenal through a science-based approach, relying on non-nuclear experiments and advanced simulation.34 Dr. Nakhleh’s own words confirm his mission focus: “The Stockpile Stewardship Program provides the scientific and engineering capabilities that the Laboratory depends on to steward a safe, secure, and reliable stockpile”.36

The synthesis of Dr. Nakhleh’s programmatic leadership roles, technical contributions, and professional network provides a clear and unambiguous picture of the national security implications of his work. The connection to “weaponization” is direct and undeniable, but must be understood within the specific context of the U.S. Stockpile Stewardship Program. His work is not aimed at creating new types of weapons from plasma or fusion, but at providing the fundamental science required to maintain and certify the existing U.S. nuclear deterrent.

The Role of HEDP in Stockpile Stewardship

Analysis of Unclassified Reporting on “Applications”

these HEDP experiments. This builds the scientific confidence required for weapons designers, like those in the XTD division led by Dr. Nakhleh, to annually certify to the President that the stockpile is reliable without resorting to nuclear testing.36 This work directly supports the assessment of specific systems for which LANL has stewardship responsibility, including the B61, W76, W78, and W88.36

A thorough review of the unclassified technical reports and publications co-authored by Dr. Nakhleh shows a consistent and disciplined focus. The stated “applications” and goals of the research are consistently framed in the language of fundamental science: “inertial confinement fusion,” “stockpile stewardship science,” and “high energy-density physics”.6 There is a conspicuous absence of any language suggesting the development of compact, deployable fusion reactors for power or propulsion, or any novel plasma-based weapon systems.

• Conclusion 1 (HIGH CONFIDENCE): Dr. Nakhleh’s entire documented career in plasma physics and HEDP is inextricably linked to the “weaponization” of these sciences in the specific context of the U.S. Stockpile Stewardship Program. His leadership and technical contributions to understanding implosion physics on the Z-Machine provide the fundamental scientific data and theoretical modeling necessary to validate the codes used to assess and certify the existing U.S. nuclear arsenal. This work is a direct and essential component of the nation’s nuclear weapons program.

This stands in contrast to other research programs, such as the LANL/AFRL FRCHX experiment, whose lineage is assessed to have transitioned to Lockheed Martin’s Compact Fusion Reactor (CFR) program for potential vehicle applications.39 Dr. Nakhleh’s work on MagLIF appears to exist in a separate, more fundamental domain directly tied to the established SSP mission, rather than these more speculative, applied technology development tracks.

Based on the available evidence, the following conclusions can be drawn regarding the connection between Dr. Nakhleh’s work and the weaponization of plasma and fusion technologies:

• Conclusion 2 (LOW CONFIDENCE): There is no open-source evidence to support a

Final Assessment on Weaponization Linkages

Works cited

https://www.lanl.gov/about/leadership-governance/charlie-nakhleh

2. Ask a physicist - Los Alamos National Laboratory, accessed August 31, 2025,

3. Charlie Nakhleh - Los Alamos National Laboratory, accessed August 31, 2025,

In summary, the term “weaponization” must be applied with precision. Dr. Nakhleh’s work is not about creating new types of weapons. It is about providing the scientific underpinnings required to ensure the continued viability and credibility of the most powerful weapons that already exist. His research on implosion physics is a cornerstone of this critical national security mission.

conclusion that his work on MagLIF or in his leadership roles at LANL is aimed at developing novel, deployable weapons based on fusion or plasma principles (e.g., a “pure fusion” explosive or a plasma-based directed energy weapon). The research is consistently presented and appears to be entirely in service of understanding the fundamental physics that governs the performance, safety, and reliability of the existing deterrent.

August 31, 2025, https://pubs.aip.org/aip/pop/article/21/7/072711/915357/Design-of-magnetized-line r-inertial-fusion

31, 2025, https://www.sandia.gov/research/publications/search/?per-page=25&format=abst ract&authors%5B%5D=matthias-geissel

31, 2025, https://cgsr.llnl.gov/sites/cgsr/files/2024-08/CGSR-Inflection-OP-FullBook-10-04- 2023-v4-Web.pdf

Laboratories, accessed August 31, 2025, https://nucleus.iaea.org/sites/fusionportal/Shared%20Documents/FEC%202020/f ec2020-preprints/preprint1217.pdf

https://www.lanl.gov/media/publications/national-security-science/1220-ask-a-ph ysicist

https://www.osti.gov/servlets/purl/548656 4. LA-UR - OSTI, accessed August 31, 2025, https://www.osti.gov/servlets/purl/548645

10. X Theoretical Design | Los Alamos National Laboratory, accessed August 31, 2025,

11. Exploring magnetized liner inertial fusion with a semi-analytic model - OSTI.GOV,

12. Publications Search - Research - Sandia National Laboratories, accessed August

13. Leadership and Governance | Los Alamos National Laboratory, accessed August

14. THE INFLECTION POINT AND THE U.S. NUCLEAR SECURITY …, accessed August

15. Design of magnetized liner inertial fusion experiments using the Z …, accessed

16. An overview of magneto-inertial fusion on the Z Machine at Sandia National

accessed August 31, 2025, https://www.osti.gov/servlets/purl/1240018

https://www.lanl.gov/engage/organizations/x-theoretical-design

3. distribution is unlimited. - OSTI, accessed August 31, 2025,

https://psaap.llnl.gov/sites/psaap/files/2020-09/1.10-lanl.pdf

31, 2025, https://www.lanl.gov/about/leadership-governance

12. LANL’s slide template! - PSAAP, accessed August 31, 2025,

13. Measurements of magneto-Rayleigh-Taylor instability growth during the

14. Measurements of Magneto-Rayleigh-Taylor Instability Growth during the

15. Measurements of magneto-Rayleigh-Taylor … - AIP Publishing, accessed August

implosion of initially solid Al tubes driven by the 20-MA, 100-ns Z facility - PubMed, accessed August 31, 2025, https://pubmed.ncbi.nlm.nih.gov/21231110/

31, 2025, https://pubs.aip.org/aip/pop/article-pdf/doi/10.1063/1.3560911/15959184/056301_1 _online.pdf

13. Beryllium liner implosion experiments on the Z accelerator in preparation for Magnetized Liner Inertial Fusion (MagLIF)* | Request PDF - ResearchGate, accessed August 31, 2025, https://www.researchgate.net/publication/258595636_Beryllium_liner_implosion_e xperiments_on_the_Z_accelerator_in_preparation_for_Magnetized_Liner_Inertial_ Fusion_MagLIF

implosion of initially solid metal liners a) | Physics of Plasmas | AIP Publishing, accessed August 31, 2025, https://pubs.aip.org/aip/pop/article/18/5/056301/814432/Measurements-of-magne to-Rayleigh-Taylor

23. Observations of modified three-dimensional instability structure for imploding z-pinch liners that are premagnetized with an axial field - PubMed, accessed August 31, 2025, https://pubmed.ncbi.nlm.nih.gov/24476283/

31, 2025, https://www.sandia.gov/research/publications/search/?per-page=200&sort=title& format=abstract&authors%5B%5D=ronald-kaye

Publishing, accessed August 31, 2025, https://pubs.aip.org/aip/pop/article-pdf/doi/10.1063/1.4802836/13857922/056305_ 1_online.pdf

Implosion of Initially Solid Al Tubes Driven by the 20-MA, 100-ns Z Facility | Phys. Rev. Lett. - Physical Review Link Manager, accessed August 31, 2025, https://link.aps.org/doi/10.1103/PhysRevLett.105.185001

24. Daniel Sinars - Mitchell Institute for Aerospace Studies, accessed August 31, 2025, https://www.mitchellaerospacepower.org/app/uploads/2021/12/SinarsDanielB_Bio

20 MA Z facility. - OSTI.GOV, accessed August 31, 2025, https://www.osti.gov/biblio/1021154

18. Measurements of Magneto-Rayleigh-Taylor instability growth in solid liners on the

19. Magnetic Liner Inertial Fusion (MagLIF) on Z. (Conference) - OSTI.GOV, accessed

20. Experimental Demonstration of Fusion-Relevant … - OSTI.GOV, accessed August

21. Publications Search - Research - Sandia National Laboratories, accessed August

22. Simulations of electrothermal instability growth in solid aluminum rods - AIP

23. Measurements of magneto-Rayleigh-Taylor instability growth during the

August 31, 2025, https://www.osti.gov/biblio/1062320

31, 2025, https://www.osti.gov/servlets/purl/1146936

_12062021.pdf

2025, https://qedfusion.org/FPA/ARC21/fpn21-42.shtml

https://www.hertzfoundation.org/person/stephen-slutz/

28. FPA 2021 Distinguished Career Awards - QED Archives, accessed August 31,

https://www.sandia.gov/news/publications/research-magazine/article/dan-sinars/

25. Dan Sinars - News - Sandia National Laboratories, accessed August 31, 2025,

26. Stephen Slutz | Fannie and John Hertz Foundation, accessed August 31, 2025,

27. OU Alumnus Daniel Sinars Receives Prestigious DOE Honor - The University of

28. Daniel Sinars: Then and Now / 2011 Early Career Award Winner | Department of

Energy, accessed August 31, 2025, https://www.energy.gov/science/articles/daniel-sinars-then-and-now-2011-early- career-award-winner

Oklahoma, accessed August 31, 2025, http://www.ou.edu/research-norman/news-events/2022/ou-alumnus-daniel-sinar s-receives-prestigious-doe-honor.html

30. Experimental Demonstration of the Stabilizing Effect of Dielectric Coatings on Magnetically Accelerated Imploding Metallic Liner, accessed August 31, 2025, https://link.aps.org/accepted/10.1103/PhysRevLett.116.065001

Sandia, accessed August 31, 2025, http://plasmabay.engin.umich.edu/wp-content/uploads/sites/281/2021/08/Sinars-2 020-Review-of-pulsed-power-driven-high-energy-density-physics-research-on -Z-at-Sandia.pdf

36. Deterrence defined | Los Alamos National Laboratory, accessed August 31, 2025, https://www.lanl.gov/media/publications/national-security-science/0424-deterren ce-defined

places, accessed August 31, 2025, https://www.researchgate.net/scientific-contributions/Charles-Nakhleh-21208762

August 31, 2025, https://www.lanl.gov/media/publications/national-security-science/0325-rememb ering-charlie-mcmillan

37. Sandia images the sea monster of nuclear fusion: the Rayleigh …, accessed August 31, 2025, https://www.sandia.gov/labnews/2010/11/19/101119-2/
38. Measurements of Magneto-Rayleigh-Taylor Instability Growth in, accessed

Laboratories, Albuquerque | Radiation & Inertial Confinement Fusion Target Design | Research profile - ResearchGate, accessed August 31, 2025, https://www.researchgate.net/profile/Kyle-Peterson-8

August 31, 2025, https://www.sandia.gov/ldrd/images/events/fy10_ldrd_day/presentations/presenta

35. Stockpile Stewardship 20th anniversary event (complete) - YouTube, accessed

36. Charles Nakhleh’s research works | Los Alamos National Laboratory and other

37. Review of pulsed power-driven high energy density physics research on Z at

38. Remembering Charlie McMillan | Los Alamos National Laboratory, accessed

39. Kyle PETERSON | Manager, Staff Scientist | Ph.D. Physics | Sandia National

August 31, 2025, https://www.youtube.com/watch?v=YYjaakflZdk

tion_sinars_mrt_study.pdf

39. FRCHX Program Disposition Analysis.pdf