As of 2026-09-11 · the last 10 years
Beryllium’s research intensity remains at about 51% of its own all-time peak, a level that has held steady since the window began in 2016.
Research intensity ran from about 51% of the element's own all-time peak in 2016 to about 51% in 2026 — essentially flat across the window, and the all-time peak (1965) lies before this window. Over the same span its share of research attention across all elements rose. Among the 118 elements, beryllium has a larger-than-average research literature.
The number of papers involving the element rose from about 2,312 in 2016 to about 3,506 in 2025 (1.52x). That is slower than the literature as a whole grew over the same years, so the element lost ground in the wider body of research even as its own count rose.
The core of this literature is Beryllium and Alkaline Earth Chemistry, Toxicology, and Processing, where beryllium is central to the community, appearing in about 62% of its papers. This group accounts for about 17% of beryllium’s recent research, a share that has remained steady. The work here focuses on the element's fundamental chemistry and biological interactions, with distinctive attention to beryllium bonds and exposure. A key anchor is a 2023 paper in Science on diberyllocene, a stable compound with a beryllium–beryllium bond, which has been cited over 120 times.
A second major area is Beryllium as a Plasma-Facing Material in Fusion. Here, beryllium is a minor presence in a much larger community, involved in about 8% of its papers, yet it represents about 15% of beryllium’s own recent research. This share has held steady. These papers examine beryllium's erosion, hydrogen retention, and intermetallic formation as a first-wall component in ITER-like fusion environments. Recent high-impact work includes a 2024 study on plasma-wall interaction impacts of the ITER re-baseline, cited about 90 times, and a 2025 review of the new ITER baseline, cited about 55 times.
A smaller but distinct group, Beryllium in Warm Dense Matter and High-Pressure Chemistry, accounts for about 7% of the element's recent research. Beryllium is a minor presence in this broader computational materials community, appearing in about 2% of its papers. This share has remained steady. The research uses beryllium as a probe in warm dense matter studies and explores unusual high-coordination compounds under extreme pressure. Notable work includes a 2021 paper in Physical Review Letters on the high-pressure synthesis of a Dirac material, cited over 170 times, and a 2025 study in Nature Communications on electronic correlations in warm dense quantum plasmas, cited about 33 times.
Overall, the composition of beryllium research has remained stable, with no single community gaining or losing significant ground. The remainder of the literature, comprising other smaller communities, holds about 62% of the element's recent research.
The most-cited paper in this window is a 2023 review on ceramic matrix composites for aero engine applications, cited over 230 times, which belongs to a community of thermal barrier coatings and high-entropy oxides.
For a deeper look at the current state of beryllium research, see the element's Last 12 Months and Executive Brief reports.
What changed in the past year: new papers, shifting applications, emerging collaborators. See the momentum over a shorter window than the decade view.
Personal →See recent trends — Personal.
A by-topic status read of what changed and what's new — built for decision-makers, not search engines. Citation clusters, emerging applications, and the papers that matter most.
Professional →See the executive read — Professional.
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Showing Beryllium's three strongest connections. Personal opens the slider and the whole 118-element graph.