T. Abrams

1.4k citations

86 papers · 832 · h-index 18

Impact in

Nuclear and High Energy Physics top 5%
- Magnetic confinement fusion research
- Laser-Plasma Interactions and Diagnostics
Materials Chemistry top 10%
- Fusion materials and technologies
- Nuclear Materials and Properties

Papers in

Materials Chemistry 79
- Fusion materials and technologies 76
- Nuclear Materials and Properties 37
Nuclear and High Energy Physics 62
- Magnetic confinement fusion research 62
- Laser-Plasma Interactions and Diagnostics 12

Co-authors: E.A. Unterberg (26 shared papers)D.L. Rudakov (32 shared papers)P.C. Stangeby (20 shared papers)J.D. Elder (19 shared papers)W.R. Wampler (18 shared papers)D. M. Thomas (18 shared papers)A.G. McLean (16 shared papers)R. Kaita (14 shared papers)
Journals: Nuclear Fusion (22 papers)Nuclear Materials and Energy (22 papers)Journal of Nuclear Materials (10 papers)Plasma Physics and Controlled Fusion (6 papers)Physics of Plasmas (3 papers)
Partner nations: United States Canada China

In The Last Decade

T. Abrams

81 papers receiving 817 citations

Peers

Countries citing papers authored by T. Abrams

Since Specialization

Citations

This map shows the geographic impact of T. Abrams's research. It shows the number of citations coming from papers published by authors working in each country. You can also color the map by specialization and compare the number of citations received by T. Abrams with the expected number of citations based on a country's size and research output (numbers larger than one mean the country cites T. Abrams more than expected).

Fields of papers citing papers by T. Abrams

Since Specialization

Physical SciencesHealth SciencesLife SciencesSocial Sciences

This network shows the impact of papers produced by T. Abrams. Nodes represent research fields, and links connect fields that are likely to share authors. Colored nodes show fields that tend to cite the papers produced by T. Abrams. The network helps show where T. Abrams may publish in the future.

Co-authors

The 25 scholars most cited alongside T. Abrams, linked wherever they have co-authored with each other. Click a name or a connecting line to browse the papers they share.

Border = papers with T. Abrams Line = papers co-authored together T. Abrams links everyone, so they are left out of the graph.

All Works

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20 of 20 papers shown

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#	Work
1	The inter-ELM tungsten erosion profile in DIII-D H-mode discharges and benchmarking with ERO+OEDGE modeling Nuclear Fusion ·T. Abrams, Rui Ding, Huan Guo, D. M. Thomas, C. Chrobak, D.L. Rudakov, A.G. McLean, E.A. Unterberg, A. Briesemeister, P.C. Stangeby, J.D. Elder, W.R. Wampler, J.G. Watkins	2017	48
2	Observations of wall conditioning by means of boron powder injection in DIII-D H-mode plasmas Nuclear Fusion ·A. Bortolon, R. Maingi, A. Nagy, Jun Ren, Jonah Duran, A. Maan, David Donovan, J.A. Boedo, D.L. Rudakov, A.W. Hyatt, T. W. Wilks, M.W. Shafer, C.M. Samuell, M.E. Fenstermacher, E.P. Gilson, R. Lunsford, D.K. Mansfield, T. Abrams, R. Nazikian	2020	40
3	Investigation of the role of pedestal pressure and collisionality on type-I ELM divertor heat loads in DIII-D Nuclear Fusion ·M. Knölker, A. Bortolon, G. P. Canal, T.E. Evans, H. Zohm, T. Abrams, R. J. Buttery, E.M. Davis, R. J. Groebner, E. M. Hollmann, M.E. Fenstermacher, C.J. Lasnier, A.W. Leonard, R. A. Moyer, R. Nazikian, T.H. Osborne, C. Paz-Soldan, B. Sieglin	2018	30
4	Exposures of tungsten nanostructures to divertor plasmas in DIII-D Physica Scripta ·D.L. Rudakov, C.P.C. Wong, R.P. Doerner, G.M. Wright, T. Abrams, M.J. Baldwin, J.A. Boedo, A. Briesemeister, C. Chrobak, Huan Guo, E.M. Hollmann, A.G. McLean, M.E. Fenstermacher, C.J. Lasnier, A.W. Leonard, R. A. Moyer, D. C. Pace, D. M. Thomas, J.G. Watkins	2016	29
5	Operational characteristics of the high flux plasma generator Magnum-PSI Fusion Engineering and Design ·H.J.N. van Eck, T. Abrams, Marcel Berg, S. Brons, G.G. van Eden, Michael Jaworski, R. Kaita, H.J. van der Meiden, T.W. Morgan, M. J. van de Pol, J. Scholten, P.H.M. Smeets, G. De Temmerman, P.C. de Vries, P.A. Zeijlmans van Emmichoven	2014	29
6	Suppressed gross erosion of high-temperature lithium via rapid deuterium implantation Nuclear Fusion ·T. Abrams, Michael Jaworski, Mohan Chen, Emily A. Carter, R. Kaita, D.P. Stotler, G. De Temmerman, T.W. Morgan, Marcel Berg, H.J. van der Meiden	2015	27
7	Tungsten erosion by unipolar arcing in DIII-D Physica Scripta ·I. Bykov, C. Chrobak, T. Abrams, D.L. Rudakov, E.A. Unterberg, W.R. Wampler, E.M. Hollmann, R. A. Moyer, J.A. Boedo, Brian C. Stahl, E.T. Hinson, J.H. Yu, C.J. Lasnier, M. Makowski, A.G. McLean	2017	24
8	Erosion of lithium coatings on TZM molybdenum and graphite during high-flux plasma bombardment Fusion Engineering and Design ·T. Abrams, Michael Jaworski, R. Kaita, D.P. Stotler, G. De Temmerman, T.W. Morgan, Marcel Berg, H.J. van der Meiden	2014	24
9	Dependence of LTX plasma performance on surface conditions as determined by in situ analysis of plasma facing components Journal of Nuclear Materials ·M. Lucia, R. Kaita, R. Majeski, F. Bedoya, Jean Paul Allain, T. Abrams, R. E. Bell, Dennis Boyle, Michael Jaworski, J.C. Schmitt	2014	22
10	Design and physics basis for the upcoming DIII-D SAS-VW campaign to quantify tungsten leakage and transport in a new slot divertor geometry Physica Scripta ·T. Abrams, G. Sinclair, J.H. Nichols, E.A. Unterberg, David Donovan, Jonah Duran, J.D. Elder, F. Glass, B. A. Grierson, Huan Guo, Tony Hall, X. Ma, R. Maurizio, A.G. McLean, C. Murphy, Ruby H.N. Nguyen, D.L. Rudakov, P.C. Stangeby, D. M. Thomas, Shawn Zamperini	2021	22
11	Evidence of near-SOL tungsten accumulation using a far-SOL collector probe array and OEDGE modelling in the DIII-D metal rings L-mode discharges Nuclear Materials and Energy ·J.D. Elder, P.C. Stangeby, E.A. Unterberg, T. Abrams, J.A. Boedo, David Donovan, A.G. McLean, D.L. Rudakov, W.R. Wampler, J.G. Watkins	2019	22
12	Experimental validation of a model for particle recycling and tungsten erosion during ELMs in the DIII-D divertor Nuclear Materials and Energy ·T. Abrams, E.A. Unterberg, A.G. McLean, D.L. Rudakov, W.R. Wampler, M. Knölker, C.J. Lasnier, A.W. Leonard, P.C. Stangeby, D. M. Thomas, Huiqian Wang	2018	21
13	Modeling of ExB effects on tungsten re-deposition and transport in the DIII-D divertor Nuclear Fusion ·J.H. Nichols, T. Abrams, C. Chrobak, David Donovan, Jonah Duran, J.D. Elder, D.L. Rudakov, P.C. Stangeby, E.A. Unterberg, W.R. Wampler, J.G. Watkins, Shawn Zamperini	2021	21
14	Macroscopic motion of liquid metal plasma facing components in a diverted plasma Journal of Nuclear Materials ·Maciej Jaworski, S. P. Gerhardt, N.B. Morley, T. Abrams, R. Kaita, J. Kallman, H. Kugel, R. Majeski, D. N. Ruzic	2010	21
15	Advances in Low-Temperature Tungsten Spectroscopy Capability to Quantify DIII-D Divertor Erosion IEEE Transactions on Plasma Science ·T. Abrams, Daniel M. Thomas, E.A. Unterberg, A. Briesemeister	2018	20
16	Atomic insight into concurrent He, D, and T sputtering and near-surface implantation of 3C-SiC crystallographic surfaces Nuclear Materials and Energy ·Stefan Bringuier, T. Abrams, J. Guterl, Gokul Vasudevamurthy, E.A. Unterberg, D.L. Rudakov, L. Holland	2019	19
17	Utilization of outer-midplane collector probes with isotopically enriched tungsten tracer particles for impurity transport studies in the scrape-off layer of DIII-D (invited) Review of Scientific Instruments ·David Donovan, E.A. Unterberg, P.C. Stangeby, Shawn Zamperini, John D. Auxier, D.L. Rudakov, W.R. Wampler, Michael Zäch, T. Abrams, Jonah Duran, J.D. Elder, Anton Neff	2018	18
18	Consolidation of Molybdenum nanopowders by spark plasma sintering: Densification mechanism and first mirror application Journal of Nuclear Materials ·Geuntak Lee, Charles Manière, Joanna McKittrick, R.P. Doerner, D. Nishijima, Anthony Gattuso, T. Abrams, D. M. Thomas, C. A. Back, Eugene A. Olevsky	2019	18
19	ERO modeling and analysis of tungsten erosion and migration from a toroidally symmetric source in the DIII-D divertor Nuclear Fusion ·J. Guterl, T. Abrams, C. A. Johnson, A.E. Jaervinen, Huiqian Wang, A. G. McLean, D.L. Rudakov, W.R. Wampler, Heng Guo, P.B. Snyder	2019	16
20	Measurement and modeling of aluminum sputtering and ionization in the DIII-D divertor including magnetic pre-sheath effects Nuclear Fusion ·C. Chrobak, P.C. Stangeby, E. M. Hollmann, D.L. Rudakov, T. Abrams, Rui Ding, J.D. Elder, J. Guterl, E.T. Hinson, Heng Guo, D. M. Thomas, C.H. Skinner, A.G. McLean, W.R. Wampler, D. Buchenauer, R. P. Doerner, George Tynan	2018	14

About T. Abrams

T. Abrams is a scholar working on Materials Chemistry, Nuclear and High Energy Physics, Biomedical Engineering, Electrical and Electronic Engineering and Mechanics of Materials, having authored 86 papers that have together received 832 indexed citations. Recurring topics across this work include Fusion materials and technologies (76 papers), Magnetic confinement fusion research (62 papers), Nuclear Materials and Properties (37 papers), Superconducting Materials and Applications (12 papers), Laser-Plasma Interactions and Diagnostics (12 papers), Plasma Diagnostics and Applications (9 papers), Metal and Thin Film Mechanics (8 papers) and Ion-surface interactions and analysis (6 papers). The work is most often cited by research in Nuclear and High Energy Physics (548 citations), Materials Chemistry (711 citations), Ceramics and Composites (20 citations), Aerospace Engineering (85 citations) and Mechanics of Materials (84 citations). T. Abrams has collaborated with scholars based in United States, Canada and China. Frequent co-authors include E.A. Unterberg, D.L. Rudakov, P.C. Stangeby, J.D. Elder, W.R. Wampler, D. M. Thomas, A.G. McLean, R. Kaita, Michael Jaworski and J. Guterl. Their work appears in journals such as Nuclear Fusion, Nuclear Materials and Energy, Journal of Nuclear Materials, Plasma Physics and Controlled Fusion and Physics of Plasmas.

Rankless uses publication and citation data sourced from OpenAlex, an open and comprehensive bibliographic database. While OpenAlex provides broad and valuable coverage of the global research landscape, it—like all bibliographic datasets—has inherent limitations. These include incomplete records, variations in author disambiguation, differences in journal indexing, and delays in data updates. As a result, some metrics and network relationships displayed in Rankless may not fully capture the entirety of a scholar's output or impact.

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