# Insights into the High-Pressure Behavior of AWO4‑Type Orthotungstates

**Authors:** Alfonso Muñoz, Silvana Radescu, Andrés Mujica, Daniel Errandonea

PMC · DOI: 10.1021/acs.jpcc.5c07394 · The Journal of Physical Chemistry. C, Nanomaterials and Interfaces · 2025-12-26

## TL;DR

This paper explores how orthotungstate materials behave under high pressure, focusing on structural and electronic changes that could be useful for practical applications.

## Contribution

The paper provides a comprehensive review of high-pressure behavior in AWO4-type orthotungstates, highlighting recent findings and future research directions.

## Key findings

- High-pressure studies reveal significant volume reductions in orthotungstates.
- Electronic and vibrational properties of AWO4 compounds change substantially under compression.
- The paper identifies practical applications and future research opportunities in high-pressure orthotungstate studies.

## Abstract

Pressure-induced phase transitions in orthotungstates
have resulted
in intriguing physical phenomena. The transitions that are observed
typically involve significant volume reductions and substantial alterations
in the electronic and vibrational characteristics of the materials.
In this feature article, we examine the existing knowledge regarding
the behavior of AWO4 tungstates when subjected to compression.
Specifically, we provide a summary of research on their structural
and electronic properties, along with several illustrative examples
of high-pressure investigations in the relevant compounds. A comprehensive
understanding of the high-pressure behavior of AWO4 compounds
is offered, with a focus on findings that may be pertinent for practical
applications. Recent developments and future challenges in the study
of orthotungstates under extreme pressure are discussed, along with
conclusions that may impact such study. Additionally, some suggestions
for topics that could lead to significant breakthroughs will also
be presented.

## Full-text entities

- **Diseases:** cancer (MESH:D009369), toxicity (MESH:D064420)
- **Chemicals:** Pb (MESH:D007854), AgClO4 (MESH:C078393), diamond (MESH:D018130), Cd (MESH:D002104), Ge (MESH:D005857), A (MESH:D001151), hydrogen (MESH:D006859), neon (MESH:D009356), Cu (MESH:D003300), Sn (MESH:D014001), Mg (MESH:D008274), CaWO4 (MESH:C018858), Mn (MESH:D008345), molybdates (MESH:C044659), Ca (MESH:D002118), argon (MESH:D001128), oxide (MESH:D010087), Ba (MESH:D001464), CaO (MESH:C016538), Sr (MESH:D013324), CdWO4 (MESH:C052547), water (MESH:D014867), ZrSiO4 (MESH:C003784), silicone oil (MESH:D012827), Co (MESH:D003035), TiO2 (MESH:C009495), MgO (MESH:D008277), Fe (MESH:D007501), Li+ (MESH:D008094), Al2O3 (MESH:D000537), W (MESH:D014414), Ni (MESH:D009532), Tungstates (MESH:C045951), tungsten oxide (MESH:C511604), Cr (MESH:D002857), nitrogen (MESH:D009584), Ti (MESH:D014025), SnWO4 (MESH:C588367), -oils (MESH:D009821), RE (MESH:D012211), SnO2 (MESH:C045358), Al (MESH:D000535), metal (MESH:D008670), Si (MESH:D012825), Cr1-x V x (-), BeO (MESH:C032777), helium (MESH:D006371), Be (MESH:D001608), sulfur (MESH:D013455), silicates (MESH:D017640), Zr (MESH:D015040), Hg (MESH:D008628), Eu (MESH:D005063), alkali-metal (MESH:D008672), Na+ (MESH:D012964), O (MESH:D010100), Zn (MESH:D015032)
- **Species:** Hepacivirus P (species) [taxon 2202225]
- **Cell lines:** BaWO4 — Homo sapiens (Human), Ataxia telangiectasia syndrome, Finite cell line (CVCL_F083), P213 — Homo sapiens (Human), Finite cell line (CVCL_V755), PbWO4-III — Mus musculus (Mouse), Hybridoma (CVCL_C7IW)

## Full text

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## Figures

18 figures with captions in the complete paper: https://tomesphere.com/paper/PMC12970149/full.md

## References

146 references — full list in the complete paper: https://tomesphere.com/paper/PMC12970149/full.md

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Source: https://tomesphere.com/paper/PMC12970149