arxiv: 2604.23687 · v1 · submitted 2026-04-26 · ⚛️ physics.plasm-ph

Recognition: unknown

Overview of X-ray Thomson scattering measurements of extreme states of matter

Tobias Dornheim , Hannah Bellenbaum , Thomas Gawne , Jan Vorberger , Dirk O. Gericke

Authors on Pith no claims yet

Pith reviewed 2026-05-08 05:14 UTC · model grok-4.3

classification ⚛️ physics.plasm-ph

keywords x-ray Thomson scatteringXRTSextreme states of matterdynamic structure factorplasma diagnosticsX-ray free-electron laserslaser facilities

0 comments

The pith

X-ray Thomson scattering has become one of the most successful tools for diagnosing extreme states of matter by sampling the dynamic structure factor of electrons.

A machine-rendered reading of the paper's core claim, the machinery that carries it, and where it could break.

The paper establishes that x-ray Thomson scattering, since its first successful uses in the early 2000s, provides detailed atomic-scale insights into extreme matter and routinely yields thermodynamic parameters such as mass density, temperature, and ionization state. It compiles an extensive catalog of prior experiments at laser and X-ray free-electron laser facilities, including the probed materials and conditions, scattering geometries, and analysis methods. The work also evaluates the strengths and weaknesses of common analysis approaches for XRTS spectra and outlines upcoming experimental and theoretical developments.

Core claim

Since its first successful applications in the early 2000s, x-ray Thomson scattering has emerged as one of the most successful tools for the diagnostics of extreme states of matter in the laboratory. By sampling the dynamic structure factor of the electrons, XRTS is capable of giving detailed insights into the atomic-scale physics of the matter probed. Moreover, thermodynamic parameters, like the mass density, temperature, and ionization state, are routinely inferred from XRTS measurements, providing a comprehensive characterization of the sample probed.

What carries the argument

The dynamic structure factor of electrons, which XRTS samples to extract atomic-scale physics, plasmon shifts, miscibility, electronic states, and thermodynamic parameters.

Load-bearing premise

The selection of experiments, materials, and analysis methods presented constitutes a representative and unbiased summary of the XRTS field.

What would settle it

A published XRTS experiment on extreme states of matter that is absent from the overview or a controlled measurement where XRTS-derived density, temperature, or ionization values deviate substantially from independently verified values.

read the original abstract

Since its first successful applications in the early 2000s, x-ray Thomson scattering (XRTS) has emerged as one of the most successful tools for the diagnostics of extreme states of matter in the laboratory. By sampling the dynamic structure factor of the electrons, XRTS is capable of giving detailed insights into the atomic-scale physics of the matter probed. Moreover, thermodynamic parameters, like the mass density, temperature, and ionization state, are routinely inferred from XRTS measurements, providing a comprehensive characterization of the sample probed. In addition, the dynamic structure factor is of considerable interest in its own right as it contains information on other effects such as the plasmon shift, miscibility between species, electronic states and potential transitions between these states. In this work, we provide an extensive overview of previous XRTS experiments at both traditional laser and X-ray free electron laser facilities, including information about the probed material (elements, conditions), scattering geometry, analysis methods as well as corresponding references. In addition, we briefly discuss the advantages and shortcomings of widely used analysis methods for XRTS spectra and reflect on upcoming future developments in XRTS experiments and theory.

Editorial analysis

A structured set of objections, weighed in public.

Desk editor's note, referee report, simulated authors' rebuttal, and a circularity audit. Tearing a paper down is the easy half of reading it; the pith above is the substance, this is the friction.

Desk Editor's Note private letter to a colleague

A useful compilation of XRTS experiments and methods that organizes the literature but adds no new physics or analysis.

read the letter

This paper is a review that pulls together XRTS measurements from laser and XFEL facilities over the past two decades. It lists probed materials, conditions, geometries, analysis approaches, and references, plus a short section on method pros and cons and some forward-looking comments. Nothing in it is new; the authors frame it explicitly as an overview rather than a fresh derivation or measurement. What it does well is collect scattered references into one document and flag practical limitations of common fitting routines, which can help someone who needs a quick entry point or citation list for the subfield. The abstract's claim that XRTS has become one of the most successful diagnostics since the early 2000s is presented as background rather than a result the paper proves. The soft spot is the lack of any stated search strategy or inclusion criteria. Without that, it is impossible to tell whether the selected experiments are representative or whether positive or high-visibility cases are over-weighted. For a review, that transparency matters more than for an original research paper. The work is aimed at plasma physicists and high-energy-density researchers who want a consolidated reference rather than specialists already immersed in the citations. A reader already working in XRTS will probably not find surprises, but a newcomer or someone writing a proposal could get value from the organized list. It deserves peer review because a careful, accurate summary in this niche can be genuinely helpful even without new results, provided the completeness issue is addressed. I would send it out with the main request being an explicit methods paragraph on how the literature was surveyed.

Referee Report

1 major / 2 minor

Summary. The manuscript claims that since its first successful applications in the early 2000s, x-ray Thomson scattering (XRTS) has emerged as one of the most successful diagnostic tools for extreme states of matter. By sampling the dynamic structure factor, XRTS provides detailed atomic-scale insights and routinely yields thermodynamic parameters (density, temperature, ionization). The paper presents an extensive overview of prior experiments at laser and XFEL facilities, covering probed materials/conditions, scattering geometries, analysis methods, references, advantages/shortcomings of common methods, and future developments.

Significance. If the overview is representative and complete, the review would be a valuable consolidated reference for the high-energy-density and plasma physics communities, highlighting XRTS capabilities, limitations, and open questions to guide future experiments and theory.

major comments (1)

[Introduction] The central claim that XRTS 'has emerged as one of the most successful tools' rests on the overview being representative of the field's experiments, materials, conditions, geometries, and methods. The manuscript provides no description of literature search strategy, inclusion/exclusion criteria, total papers considered, or completeness check (Introduction and overview sections). Without this, systematic bias toward high-profile or positive results cannot be ruled out, weakening the inference of overall success.

minor comments (2)

[Overview sections] The abstract and overview sections list advantages/shortcomings of analysis methods but could cross-reference specific experiments or tables where each method was applied to improve traceability.
[Future developments] Future developments discussion is brief; adding a short table of open theoretical/experimental challenges with references would enhance clarity.

Simulated Author's Rebuttal

1 responses · 0 unresolved

We thank the referee for their careful reading of the manuscript and for highlighting the need for greater transparency regarding the compilation of the overview. We address the major comment below and have revised the manuscript to incorporate the suggested clarification.

read point-by-point responses

Referee: [Introduction] The central claim that XRTS 'has emerged as one of the most successful tools' rests on the overview being representative of the field's experiments, materials, conditions, geometries, and methods. The manuscript provides no description of literature search strategy, inclusion/exclusion criteria, total papers considered, or completeness check (Introduction and overview sections). Without this, systematic bias toward high-profile or positive results cannot be ruled out, weakening the inference of overall success.

Authors: We agree that an explicit statement of scope and selection criteria would improve the manuscript and help readers evaluate the representativeness of the presented overview. The work is structured as a broad overview of key XRTS experiments, methods, and developments rather than a formal systematic review. To address this concern, we will add a dedicated paragraph in the Introduction that describes the selection approach: experiments were chosen to illustrate the historical development and current capabilities of XRTS across major facilities (lasers and XFELs), representative materials and thermodynamic conditions, common scattering geometries, and widely used analysis methods. The overview prioritizes works that have contributed to establishing XRTS as a diagnostic tool while also including recent advances; it is not exhaustive, and readers are directed to the cited references for additional studies. We believe this addition will clarify the intended scope without altering the central claim. revision: yes

Circularity Check

0 steps flagged

No circularity: literature overview with no derivations or predictions

full rationale

This paper is a factual summary of prior XRTS experiments, materials, geometries, and analysis methods drawn from external literature. It contains no equations, no new predictions, no fitted parameters, and no derivation chain that could reduce to its own inputs by construction. All claims about XRTS capabilities are attributed to cited prior works, which are independent of the present manuscript. Self-citations, if present, are not load-bearing for any central result. The paper is therefore self-contained against external benchmarks with no circular steps.

Axiom & Free-Parameter Ledger

0 free parameters · 0 axioms · 0 invented entities

As a review paper, the work introduces no free parameters, axioms, or invented entities of its own; all content rests on the cited prior literature.

pith-pipeline@v0.9.0 · 5509 in / 991 out tokens · 57294 ms · 2026-05-08T05:14:30.645871+00:00 · methodology

discussion (0)

Forward citations

Cited by 1 Pith paper

Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score.

Model-free interpretation of X-ray Thomson scattering measurements
physics.plasm-ph 2026-04 unverdicted novelty 2.0

The paper reviews the use of the imaginary-time correlation function to extract temperature, normalization, and Rayleigh weight from XRTS spectra without model dependence.

Reference graph

Works this paper leans on

232 extracted references · 14 canonical work pages · cited by 1 Pith paper · 3 internal anchors

[1]

V. E. Fortov, Extreme states of matter on Earth and in space, Phys.-Usp52, 615 (2009)

2009
[2]

Graziani, M

F. Graziani, M. P. Desjarlais, R. Redmer, and S. B. Trickey, eds.,Frontiers and Challenges in Warm Dense Matter(Springer, International Publishing, 2014)

2014
[3]

Vorberger, F

J. Vorberger, F. Graziani, D. Riley, A. D. Baczewski, I. Baraffe, M. Bethkenhagen, S. Blouin, M. P. B¨ ohme, M. Bonitz, M. Bussmann, A. Casner, W. Cayzac, P. Celliers, G. Chabrier, N. Chamel, D. Chapman, M. Chen, J. Cl´ erouin, G. Collins, F. Coppari, T. D¨ opp- ner, T. Dornheim, L. B. Fletcher, D. O. Gericke, S. Glenzer, A. F. Goncharov, G. Gregori, S. H...

work page arXiv 2025
[4]

Quantum effects in plasmas

M. Bonitz, H. K¨ ahlert, D. Krimans, C. Makait, P. Hamann, J. Vorberger, Z. Moldabekov, S. X. Hu, V. V. Karasiev, D. Kraus, H. Kersten, J. P. Joost, P. Ludwig, and T. Dornheim, Quantum effects in plas- mas (2026), arXiv:2604.03757 [physics.plasm-ph]

work page internal anchor Pith review Pith/arXiv arXiv 2026
[5]

O. A. Hurricane, D. A. Callahan, D. T. Casey, P. M. Cel- liers, C. Cerjan, E. L. Dewald, T. R. Dittrich, T. D¨ opp- ner, D. E. Hinkel, L. F. B. Hopkins, J. L. Kline, S. Le Pape, T. Ma, A. G. MacPhee, J. L. Milovich, A. Pak, H.-S. Park, P. K. Patel, B. A. Remington, J. D. Salmonson, P. T. Springer, and R. Tommasini, Fuel gain exceeding unity in an inertial...

2014
[6]

Betti and O

R. Betti and O. A. Hurricane, Inertial-confinement fu- sion with lasers, Nature Physics12, 435 (2016)

2016
[7]

A. B. Zylstra, O. A. Hurricane, D. A. Callahan, A. L. Kritcher, J. E. Ralph, H. F. Robey, J. S. Ross, C. V. Young, K. L. Baker, D. T. Casey, T. D¨ oppner, L. Di- vol, M. Hohenberger, S. Le Pape, A. Pak, P. K. Pa- tel, R. Tommasini, S. J. Ali, P. A. Amendt, L. J. Atherton, B. Bachmann, D. Bailey, L. R. Benedetti, L. Berzak Hopkins, R. Betti, S. D. Bhandark...

2022
[8]

O. A. Hurricane, P. K. Patel, R. Betti, D. H. Froula, S. P. Regan, S. A. Slutz, M. R. Gomez, and M. A. Sweeney, Physics principles of inertial confinement fu- sion and U.S. program overview, Rev. Mod. Phys.95, 025005 (2023)

2023
[9]

S. X. Hu, B. Militzer, V. N. Goncharov, and S. Skupsky, First-principles equation-of-state table of deuterium for inertial confinement fusion applications, Phys. Rev. B 84, 224109 (2011)

2011
[10]

Militzer, W

B. Militzer, W. B. Hubbard, J. Vorberger, I. Tam- blyn, and S. A. Bonev, A massive core in Jupiter pre- dicted from first-principles simulations, The Astrophys- ical Journal688, L45 (2008)

2008
[11]

Guillot, Y

T. Guillot, Y. Miguel, B. Militzer, W. B. Hubbard, Y. Kaspi, E. Galanti, H. Cao, R. Helled, S. M. Wahl, L. Iess, W. M. Folkner, D. J. Stevenson, J. I. Lunine, D. R. Reese, A. Biekman, M. Parisi, D. Durante, J. E. P. Connerney, S. M. Levin, and S. J. Bolton, A suppression of differential rotation in Jupiter’s deep interior, Nature 555, 227 (2018)

2018
[12]

Brygoo, P

S. Brygoo, P. Loubeyre, M. Millot, J. R. Rygg, P. M. Celliers, J. H. Eggert, R. Jeanloz, and G. W. Collins, Evidence of hydrogen-helium immiscibility at Jupiter- interior conditions, Nature593, 517 (2021)

2021
[13]

P. M. Celliers, M. Millot, S. Brygoo, R. S. McWilliams, D. E. Fratanduono, J. R. Rygg, A. F. Goncharov, P. Loubeyre, J. H. Eggert, J. L. Peterson, N. B. Meezan, S. L. Pape, G. W. Collins, R. Jeanloz, and R. J. Hem- ley, Insulator-metal transition in dense fluid deuterium, Science361, 677 (2018)

2018
[14]

Becker, W

A. Becker, W. Lorenzen, J. J. Fortney, N. Nettelmann, M. Sch¨ ottler, and R. Redmer, Ab initio equations of state for hydrogen (h-reos.3) and helium (he-reos.3) and their implications for the interior of brown dwarfs, As- trophys. J. Suppl. Ser215, 21 (2014)

2014
[15]

Saumon, W

D. Saumon, W. B. Hubbard, G. Chabrier, and H. M. van Horn, The role of the molecular-metallic transition of hydrogen in the evolution of Jupiter, Saturn, and brown dwarfs, Astrophys. J391, 827 (1992)

1992
[16]

A. L. Kritcher, D. C. Swift, T. D¨ oppner, B. Bachmann, 17 L. X. Benedict, G. W. Collins, J. L. DuBois, F. El- sner, G. Fontaine, J. A. Gaffney, S. Hamel, A. Lazicki, W. R. Johnson, N. Kostinski, D. Kraus, M. J. MacDon- ald, B. Maddox, M. E. Martin, P. Neumayer, A. Nikroo, J. Nilsen, B. A. Remington, D. Saumon, P. A. Sterne, W. Sweet, A. A. Correa, H. D. ...

2020
[17]

Saumon, S

D. Saumon, S. Blouin, and P.-E. Tremblay, Current challenges in the physics of white dwarf stars, Physics Reports988, 1 (2022), current Challenges in the Physics of White Dwarf Stars

2022
[18]

Daligault and S

J. Daligault and S. Gupta, Electron-ion scattering in dense multi-component plasmas: applications to the outer crust of an accreting neutron star, The Astrophys- ical Journal703, 994 (2009)

2009
[19]

Kraus, A

D. Kraus, A. Ravasio, M. Gauthier, D. O. Gericke, J. Vorberger, S. Frydrych, J. Helfrich, L. B. Fletcher, G. Schaumann, B. Nagler, B. Barbrel, B. Bachmann, E. J. Gamboa, S. G¨ ode, E. Granados, G. Gregori, H. J. Lee, P. Neumayer, W. Schumaker, T. D¨ oppner, R. W. Falcone, S. H. Glenzer, and M. Roth, Nanosec- ond formation of diamond and lonsdaleite by sho...

2016
[20]

Kraus, J

D. Kraus, J. Vorberger, A. Pak, N. J. Hartley, L. B. Fletcher, S. Frydrych, E. Galtier, E. J. Gamboa, D. O. Gericke, S. H. Glenzer, E. Granados, M. J. MacDonald, A. J. MacKinnon, E. E. McBride, I. Nam, P. Neumayer, M. Roth, A. M. Saunders, A. K. Schuster, P. Sun, T. van Driel, T. D¨ oppner, and R. W. Falcone, Formation of di- amonds in laser-compressed hy...

2017
[21]

Ramakrishna and J

K. Ramakrishna and J. Vorberger, Ab initio dielectric response function of diamond and other relevant high pressure phases of carbon, Journal of Physics: Con- densed Matter32, 095401 (2019)

2019
[22]

Lazicki, D

A. Lazicki, D. McGonegle, J. R. Rygg, D. G. Braun, D. C. Swift, M. G. Gorman, R. F. Smith, P. G. Heigh- way, A. Higginbotham, M. J. Suggit, D. E. Fratan- duono, F. Coppari, C. E. Wehrenberg, R. G. Kraus, D. Erskine, J. V. Bernier, J. M. McNaney, R. E. Rudd, G. W. Collins, J. H. Eggert, and J. S. Wark, Metastabil- ity of diamond ramp-compressed to 2 terapa...

2021
[23]

Falk, Experimental methods for warm dense matter research, High Power Laser Sci

K. Falk, Experimental methods for warm dense matter research, High Power Laser Sci. Eng6, e59 (2018)

2018
[24]

Riley,Warm Dense Matter, 2053-2563 (IOP Pub- lishing, 2021)

D. Riley,Warm Dense Matter, 2053-2563 (IOP Pub- lishing, 2021)

2053
[25]

Pascarelli, M

S. Pascarelli, M. McMahon, C. P´ epin, O. Mathon, R. F. Smith, W. L. Mao, H.-P. Liermann, and P. Loubeyre, Materials under extreme conditions using large x-ray facilities, Nature Reviews Methods Primers3, 82 (2023)

2023
[26]

O. L. Landen, Probing dense plasmas for HEDS and ICF, High Energy Density Physics51, 101102 (2024)

2024
[27]

Kraus, T

D. Kraus, T. R. Preston, and U. Zastrau, Warm dense matter studies with x-ray free-electron lasers, Nature Reviews Physics8, 27 (2026)

2026
[28]

S. H. Glenzer and R. Redmer, X-ray Thomson scatter- ing in high energy density plasmas, Rev. Mod. Phys81, 1625 (2009)

2009
[29]

Crowley and G

B. Crowley and G. Gregori, Quantum theory of Thom- son scattering, High Energy Density Physics13, 55 (2014)

2014
[30]

Sheffield, D

J. Sheffield, D. Froula, S. Glenzer, and N. Luhmann, Plasma Scattering of Electromagnetic Radiation: The- ory and Measurement Techniques(Elsevier Science, 2010)

2010
[31]

U. H. Acosta, T. Gawne, J. Vorberger, H. Bellenbaum, A. Reinhard, S. Ehrig, K. Steiniger, M. Bussmann, and T. Dornheim, Monte-carlo event generation for x-ray thomson scattering analysis (2026), arXiv:2604.05935 [hep-ph]

work page internal anchor Pith review Pith/arXiv arXiv 2026
[32]

Giuliani and G

G. Giuliani and G. Vignale,Quantum Theory of the Electron Liquid(Cambridge University Press, Cam- bridge, 2008)

2008
[33]

Sperling, E

P. Sperling, E. J. Gamboa, H. J. Lee, H. K. Chung, E. Galtier, Y. Omarbakiyeva, H. Reinholz, G. R¨ opke, U. Zastrau, J. Hastings, L. B. Fletcher, and S. H. Glenzer, Free-electron x-ray laser measurements of collisional-damped plasmons in isochorically heated warm dense matter, Phys. Rev. Lett.115, 115001 (2015)

2015
[34]

Frydrych, J

S. Frydrych, J. Vorberger, N. J. Hartley, A. K. Schuster, K. Ramakrishna, A. M. Saunders, T. van Driel, R. W. Falcone, L. B. Fletcher, E. Galtier, E. J. Gamboa, S. H. Glenzer, E. Granados, M. J. MacDonald, A. J. MacK- innon, E. E. McBride, I. Nam, P. Neumayer, A. Pak, K. Voigt, M. Roth, P. Sun, D. O. Gericke, T. D¨ oppner, and D. Kraus, Demonstration of x...

2020
[35]

H. M. Bellenbaum, M. P. B¨ ohme, M. Bonitz, T. D¨ opp- ner, L. B. Fletcher, T. Gawne, D. Kraus, Z. A. Mold- abekov, S. Schwalbe, J. Vorberger, and T. Dornheim, Estimating ionization states and continuum lowering from ab initio path integral Monte Carlo simulations for warm dense hydrogen, Phys. Rev. Res.7, 033016 (2025)

2025
[36]

Kraus, B

D. Kraus, B. Bachmann, B. Barbrel, R. W. Falcone, L. B. Fletcher, S. Frydrych, E. J. Gamboa, M. Gau- thier, D. O. Gericke, S. H. Glenzer, S. G¨ ode, E. Grana- dos, N. J. Hartley, J. Helfrich, H. J. Lee, B. Nagler, A. Ravasio, W. Schumaker, J. Vorberger, and T. D¨ opp- ner, Characterizing the ionization potential depression in dense carbon plasmas with hig...

2018
[37]

Landen, S

O. Landen, S. Glenzer, M. Edwards, R. Lee, G. Collins, R. Cauble, W. Hsing, and B. Hammel, Dense matter characterization by x-ray Thomson scattering, Journal of Quantitative Spectroscopy and Radiative Transfer 71, 465 (2001), radiative Properties of Hot Dense Mat- ter

2001
[38]

S. H. Glenzer, G. Gregori, R. W. Lee, F. J. Rogers, S. W. Pollaine, and O. L. Landen, Demonstration of spectrally resolved x-ray scattering in dense plasmas, Phys. Rev. Lett.90, 175002 (2003)

2003
[39]

Gregori, S

G. Gregori, S. H. Glenzer, R. W. Lee, D. G. Hicks, J. Pasley, G. W. Collins, P. Celliers, M. Bastea, J. Eg- gert, S. M. Pollaine, and O. L. Landen, Calculations and measurements of x-ray Thomson scattering spec- tra in warm dense matter, AIP Conference Proceedings 645, 359 (2002)

2002
[40]

Gregori, S

G. Gregori, S. H. Glenzer, W. Rozmus, R. W. Lee, and O. L. Landen, Theoretical model of x-ray scattering as a dense matter probe, Phys. Rev. E67, 026412 (2003). 18

2003
[41]

Gregori, S

G. Gregori, S. H. Glenzer, F. J. Rogers, S. M. Pollaine, O. L. Landen, C. Blancard, G. Faussurier, P. Renaudin, S. Kuhlbrodt, and R. Redmer, Electronic structure mea- surements of dense plasmas, Physics of Plasmas11, 2754 (2004)

2004
[42]

S. H. Glenzer, O. L. Landen, P. Neumayer, R. W. Lee, K. Widmann, S. W. Pollaine, R. J. Wallace, G. Gre- gori, A. H¨ oll, T. Bornath, R. Thiele, V. Schwarz, W.- D. Kraeft, and R. Redmer, Observations of plasmons in warm dense matter, Phys. Rev. Lett.98, 065002 (2007)

2007
[43]

Riley, R

D. Riley, R. Keenan, S. Topping, F. Khattak, A.-M. McEvoy, J. Angulo, M. Lamb, C. Lewis, D. Neely, and M. Notley, Potential for Thomson scatter with an x-ray laser, IEEE Transactions on Plasma Science31, 1016 (2003)

2003
[44]

Riley, F

D. Riley, F. Khattak, E. Garcia Saiz, G. Gregori, S. Bandyopadhyay, M. Notley, D. Neely, D. Chambers, A. Moore, and A. Comley, Spectrally resolved x-ray scatter from laser-shock-driven plasmas, Laser and Par- ticle Beams25, 465–469 (2007)

2007
[45]

Neumayer, G

P. Neumayer, G. Gregori, A. Ravasio, M. Koenig, D. Price, K. Widmann, M. Bastea, O. L. Landen, and S. H. Glenzer, Solid-density plasma characterization with x-ray scattering on the 200 J Janus laser, Review of Scientific Instruments77, 10F317 (2006)

2006
[46]

L. B. Fletcher, A. Kritcher, A. Pak, T. Ma, T. D¨ opp- ner, C. Fortmann, L. Divol, O. L. Landen, J. Vorberger, D. A. Chapman, D. O. Gericke, R. W. Falcone, and S. H. Glenzer, X-ray Thomson scattering measurements of temperature and density from multi-shocked CH cap- sules), Physics of Plasmas20, 056316 (2013)

2013
[47]

L. B. Fletcher, A. L. Kritcher, A. Pak, T. Ma, T. D¨ opp- ner, C. Fortmann, L. Divol, O. S. Jones, O. L. Landen, H. A. Scott, J. Vorberger, D. A. Chapman, D. O. Ger- icke, B. A. Mattern, G. T. Seidler, G. Gregori, R. W. Falcone, and S. H. Glenzer, Observations of continuum depression in warm dense matter with x-ray Thomson scattering, Phys. Rev. Lett.112,...

2014
[48]

D. A. Chapman, J. Vorberger, L. B. Fletcher, R. A. Baggott, L. Divol, T. D¨ oppner, R. W. Falcone, S. H. Glenzer, G. Gregori, T. M. Guymer, A. L. Kritcher, O. L. Landen, T. Ma, A. E. Pak, and D. O. Gericke, Ob- servation of finite-wavelength screening in high-energy- density matter, Nature Communications6, 6839 (2015)

2015
[49]

Kritcher, T

A. Kritcher, T. D¨ oppner, C. Fortmann, O. Landen, R. Wallace, and S. Glenzer, Development of x-ray Thomson scattering for implosion target characteriza- tion, High Energy Density Physics7, 271 (2011)

2011
[50]

A. L. Kritcher, T. D¨ oppner, C. Fortmann, T. Ma, O. L. Landen, R. Wallace, and S. H. Glenzer, In-flight mea- surements of capsule shell adiabats in laser-driven im- plosions, Phys. Rev. Lett.107, 015002 (2011)

2011
[51]

D. A. Chapman, D. Kraus, A. L. Kritcher, B. Bach- mann, G. W. Collins, R. W. Falcone, J. A. Gaffney, D. O. Gericke, S. H. Glenzer, T. M. Guymer, J. A. Hawreliak, O. L. Landen, S. Le Pape, T. Ma, P. Neu- mayer, J. Nilsen, A. Pak, R. Redmer, D. C. Swift, J. Vorberger, and T. D¨ oppner, Simulating x-ray Thom- son scattering signals from high-density, millime...

2014
[52]

Kraus, D

D. Kraus, D. A. Chapman, A. L. Kritcher, R. A. Bag- gott, B. Bachmann, G. W. Collins, S. H. Glenzer, J. A. Hawreliak, D. H. Kalantar, O. L. Landen, T. Ma, S. Le Pape, J. Nilsen, D. C. Swift, P. Neumayer, R. W. Falcone, D. O. Gericke, and T. D¨ oppner, X-ray scatter- ing measurements on imploding CH spheres at the Na- tional Ignition Facility, Phys. Rev. E...

2016
[53]

D¨ oppner, M

T. D¨ oppner, M. Bethkenhagen, D. Kraus, P. Neu- mayer, D. A. Chapman, B. Bachmann, R. A. Bag- gott, M. P. B¨ ohme, L. Divol, R. W. Falcone, L. B. Fletcher, O. L. Landen, M. J. MacDonald, A. M. Saun- ders, M. Sch¨ orner, P. A. Sterne, J. Vorberger, B. B. L. Witte, A. Yi, R. Redmer, S. H. Glenzer, and D. O. Gericke, Observing the onset of pressure-driven K...

2023
[54]

Dornheim, T

T. Dornheim, T. D¨ oppner, P. Tolias, M. P. B¨ ohme, L. B. Fletcher, T. Gawne, F. R. Graziani, D. Kraus, M. J. MacDonald, Z. A. Moldabekov, S. Schwalbe, D. O. Gericke, and J. Vorberger, Unraveling electronic corre- lations in warm dense quantum plasmas, Nature Com- munications16, 5103 (2025)

2025
[55]

H¨ oll, T

A. H¨ oll, T. Bornath, L. Cao, T. D¨ oppner, S. D¨ usterer, E. F¨ orster, C. Fortmann, S. Glenzer, G. Gregori, T. Laarmann, K.-H. Meiwes-Broer, A. Przystawik, P. Radcliffe, R. Redmer, H. Reinholz, G. R¨ opke, R. Thiele, J. Tiggesb¨ aumker, S. Toleikis, N. Truong, T. Tschentscher, I. Uschmann, and U. Zastrau, Thom- son scattering from near-solid density pl...

2007
[56]

Toleikis, T

S. Toleikis, T. Bornath, T. D¨ oppner, S. D¨ usterer, R. R. F¨ austlin, E. F¨ orster, C. Fortmann, S. H. Glen- zer, S. G¨ ode, G. Gregori, R. Irsig, T. Laarmann, H. J. Lee, B. Li, K.-H. Meiwes-Broer, J. Mithen, B. Nagler, A. Przystawik, P. Radcliffe, H. Redlin, R. Redmer, H. Reinholz, G. R¨ opke, F. Tavella, R. Thiele, J. Tiggesb¨ aumker, I. Uschmann, S. ...

2010
[57]

Zastrau, K

U. Zastrau, K. Appel, C. Baehtz, O. Baehr, L. Batch- elor, A. Bergh¨ auser, M. Banjafar, E. Brambrink, V. Cerantola, T. E. Cowan, H. Damker, S. Dietrich, S. Di Dio Cafiso, J. Dreyer, H.-O. Engel, T. Feld- mann, S. Findeisen, M. Foese, D. Fulla-Marsa, S. G¨ ode, M. Hassan, J. Hauser, T. Herrmannsd¨ orfer, H. H¨ opp- ner, J. Kaa, P. Kaever, K. Kn¨ ofel, Z. ...

2021
[58]

M. G. Gorman, D. McGonegle, R. F. Smith, S. Singh, T. Jenkins, R. S. McWilliams, B. Albertazzi, S. J. Ali, L. Antonelli, M. R. Armstrong, C. Baehtz, O. B. Ball, S. Banerjee, A. B. Belonoshko, A. Benuzzi-Mounaix, C. A. Bolme, V. Bouffetier, R. Briggs, K. Buakor, T. Butcher, S. Di Dio Cafiso, V. Cerantola, J. Chantel, A. Di Cicco, S. Clarke, A. L. Coleman, ...

2024
[59]

D. S. Bespalov, U. Zastrau, Z. A. Moldabekov, T. Gawne, T. Dornheim, M. Meshhal, A. Amouretti, M. Andrzejewski, K. Appel, C. Baehtz, E. Bram- brink, K. Buakor, C. Camarda, D. Chin, G. Collins, C. Cr´ epeisson, A. Descamps, J. Eggert, L. Fletcher, A. Forte, G. Gregori, M. Harmand, O. S. Humphries, H. H¨ oppner, J. Kuhlke, W. Lynn, J. L¨ utgert, M. Mas- rur...

work page internal anchor Pith review Pith/arXiv arXiv 2026
[60]

L. B. Fletcher, H. J. Lee, T. D¨ oppner, E. Galtier, B. Na- gler, P. Heimann, C. Fortmann, S. LePape, T. Ma, M. Millot, A. Pak, D. Turnbull, D. A. Chapman, D. O. Gericke, J. Vorberger, T. White, G. Gregori, M. Wei, B. Barbrel, R. W. Falcone, C.-C. Kao, H. Nuhn, J. Welch, U. Zastrau, P. Neumayer, J. B. Hastings, and S. H. Glenzer, Ultrabright x-ray laser s...

2015
[61]

E. E. McBride, T. G. White, A. Descamps, L. B. Fletcher, K. Appel, F. P. Condamine, C. B. Curry, F. Dallari, S. Funk, E. Galtier, M. Gauthier, S. Goede, J. B. Kim, H. J. Lee, B. K. Ofori-Okai, M. Oliver, A. Rigby, C. Schoenwaelder, P. Sun, T. Tschentscher, B. B. L. Witte, U. Zastrau, G. Gregori, B. Nagler, J. Hastings, S. H. Glenzer, and G. Monaco, Setup ...

2018
[62]

Wollenweber, T

L. Wollenweber, T. R. Preston, A. Descamps, V. Ceran- tola, A. Comley, J. H. Eggert, L. B. Fletcher, G. Geloni, D. O. Gericke, S. H. Glenzer, S. G¨ ode, J. Hastings, O. S. Humphries, A. Jenei, O. Karnbach, Z. Konopkova, R. Loetzsch, B. Marx-Glowna, E. E. McBride, D. Mc- Gonegle, G. Monaco, B. K. Ofori-Okai, C. A. J. Palmer, C. Pl¨ uckthun, R. Redmer, C. S...

2021
[63]

T. G. White, H. Poole, E. E. McBride, M. Oliver, A. Descamps, L. B. Fletcher, W. A. Angermeier, C. H. Allen, K. Appel, F. P. Condamine, C. B. Curry, F. Dal- lari, S. Funk, E. Galtier, E. J. Gamboa, M. Gauthier, P. Graham, S. Goede, D. Haden, J. B. Kim, H. J. Lee, B. K. Ofori-Okai, S. Richardson, A. Rigby, C. Schoen- waelder, P. Sun, B. L. Witte, T. Tschen...

2024
[64]

Descamps, B

A. Descamps, B. K. Ofori-Okai, K. Appel, V. Ceran- tola, A. Comley, J. H. Eggert, L. B. Fletcher, D. O. Gericke, S. G¨ ode, O. Humphries, O. Karnbach, A. Laz- icki, R. Loetzsch, D. McGonegle, C. A. J. Palmer, C. Plueckthun, T. R. Preston, R. Redmer, D. G. Senesky, C. Strohm, I. Uschmann, T. G. White, L. Wol- lenweber, G. Monaco, J. S. Wark, J. B. Hastings...

2020
[65]

T. G. White, T. D. Griffin, D. Haden, H. J. Lee, E. Galtier, E. Cunningham, D. Khaghani, A. Descamps, L. Wollenweber, B. Armentrout, C. Convery, K. Ap- pel, L. B. Fletcher, S. Goede, J. B. Hastings, J. Irat- cabal, E. E. McBride, J. Molina, G. Monaco, L. Mor- rison, H. Stramel, S. Yunus, U. Zastrau, S. H. Glenzer, G. Gregori, D. O. Gericke, and B. Nagler,...

2025
[66]

Gawne, Z

T. Gawne, Z. A. Moldabekov, O. S. Humphries, K. Ap- pel, C. Baehtz, V. Bouffetier, E. Brambrink, A. Cangi, S. G¨ ode, Z. Konˆ opkov´ a, M. Makita, M. Mishchenko, M. Nakatsutsumi, K. Ramakrishna, L. Randolph, S. Schwalbe, J. Vorberger, L. Wollenweber, U. Zastrau, T. Dornheim, and T. R. Preston, Ultrahigh resolution x- ray Thomson scattering measurements at...

2024
[67]

Gawne, Z

T. Gawne, Z. A. Moldabekov, O. S. Humphries, K. Appel, C. Baehtz, V. Bouffetier, E. Brambrink, A. Cangi, C. Cr´ episson, S. G¨ ode, Z. Konˆ opkov´ a, M. Makita, M. Mishchenko, M. Nakatsutsumi, L. Ran- dolph, S. Schwalbe, J. Vorberger, U. Zastrau, T. Dorn- heim, and T. R. Preston, Strong geometry dependence of the x-ray Thomson scattering spectrum in singl...

2025
[68]

Orientational effects in the low pair continuum of aluminium,

T. Gawne, Z. A. Moldabekov, O. S. Humphries, M. Nakatsutsumi, S. Schwalbe, J. Vorberger, U. Zas- trau, T. Dornheim, and T. R. Preston, Orientational effects in the low pair continuum of aluminium (2025), arXiv:2508.02251 [cond-mat.mtrl-sci]

work page arXiv 2025
[69]

Dornheim, Z

T. Dornheim, Z. A. Moldabekov, K. Ramakrishna, P. Tolias, A. D. Baczewski, D. Kraus, T. R. Preston, D. A. Chapman, M. P. B¨ ohme, T. D¨ oppner, F. Graziani, M. Bonitz, A. Cangi, and J. Vorberger, Electronic den- sity response of warm dense matter, Physics of Plasmas 30, 032705 (2023)

2023
[70]

Dornheim, M

T. Dornheim, M. P. B¨ ohme, D. A. Chapman, D. Kraus, T. R. Preston, Z. A. Moldabekov, N. Schl¨ unzen, A. Cangi, T. D¨ oppner, and J. Vorberger, Imaginary- time correlation function thermometry: A new, high- accuracy and model-free temperature analysis technique for x-ray Thomson scattering data, Physics of Plasmas 30, 042707 (2023)

2023
[71]

Gawne, H

T. Gawne, H. Bellenbaum, L. B. Fletcher, K. Appel, C. Baehtz, V. Bouffetier, E. Brambrink, D. Brown, A. Cangi, A. Descamps, S. Goede, N. J. Hart- ley, M.-L. Herbert, P. Hesselbach, H. H¨ oppner, O. S. Humphries, Z. Konˆ opkov´ a, A. Laso Gar- cia, B. Lindqvist, J. L¨ utgert, M. J. MacDonald, M. Makita, W. Martin, M. Mishchenko, Z. A. Mold- abekov, M. Naka...

2024
[72]

Gawne, S

T. Gawne, S. Schwalbe, T. Chuna, U. Hernandez Acosta, T. R. Preston, and T. Dornheim, Heart: A new x-ray tracing code for mosaic crystal spectrome- ters, Computer Physics Communications318, 109878 (2026)

2026
[73]

Fortmann, R

C. Fortmann, R. Thiele, R. F¨ austlin, T. Bornath, B. Holst, W.-D. Kraeft, V. Schwarz, S. Toleikis, T. Tschentscher, and R. Redmer, Thomson scattering in dense plasmas with density and temperature gradi- ents, High Energy Density Physics5, 208 (2009)

2009
[74]

Thiele, P

R. Thiele, P. Sperling, M. Chen, T. Bornath, R. R. F¨ austlin, C. Fortmann, S. H. Glenzer, W.-D. Kraeft, A. Pukhov, S. Toleikis, T. Tschentscher, and R. Red- mer, Thomson scattering on inhomogeneous targets, Phys. Rev. E82, 056404 (2010)

2010
[75]

Sperling, T

P. Sperling, T. Liseykina, D. Bauer, and R. Redmer, Time-resolved Thomson scattering on high-intensity laser-produced hot dense helium plasmas, New Journal of Physics15, 025041 (2013)

2013
[76]

Golovkin, J

I. Golovkin, J. J. MacFarlane, P. Woodruff, I. Hall, G. Gregori, J. Bailey, E. Harding, T. Ao, and S. Glen- zer, Simulation of x-ray scattering diagnostics in multi- dimensional plasma, High Energy Density Physics9, 510 (2013)

2013
[77]

Poole, D

H. Poole, D. Cao, R. Epstein, I. Golovkin, V. N. Gon- charov, S. X. Hu, M. Kasim, S. M. Vinko, T. Walton, S. P. Regan, and G. Gregori, Investigating the impact of intermediate-mode perturbations on diagnosing plasma conditions in DT cryogenic implosions via synthetic x- ray Thomson scattering, Plasma Physics and Controlled Fusion67, 015034 (2024)

2024
[78]

P. M. Kozlowski, B. J. B. Crowley, D. O. Gericke, S. P. Regan, and G. Gregori, Theory of Thomson scattering in inhomogeneous media, Scientific Reports6, 24283 (2016)

2016
[79]

V. V. Belyi, Thomson scattering in inhomogeneous plas- mas: The role of the fluctuation-dissipation theorem, Scientific Reports8, 7946 (2018)

2018
[80]

Beuermann, R

T.-N. Beuermann, R. Redmer, and T. Bornath, Thom- son scattering from dense inhomogeneous plasmas, Phys. Rev. E99, 053205 (2019)

2019

Showing first 80 references.