A distinctive HPHT platform with different types of large-volume press subsystems at SECUF

Large-volume presses (LVPs) providing large volumes, liquid media, deformation capability, jump compression, and in situ measurements are in great demand for high-pressure research, particularly in the fields of geoscience, condensed matter physics, material science, chemistry, and biology. A high-pressure and high-temperature (HPHT) platform with different LVP subsystems, both solid-state and liquid environments, and nonequilibrium subsystems, has been constructed at the Synergetic Extreme Condition User Facility, Jilin University. This article describes the construction of the different subsystems and provides an overview of the capabilities and characteristics of the different HPHT subsystems. A large sample volume (1000 mm3) at 20 GPa is achieved through the use of a belt-type apparatus in the solid-state subsystem. HPHT conditions (1.8 GPa and 1000 K) are realized in the liquid subsystem through the use of a piston–cylinder-type LVP with optical diamond windows for in situ spectroscopic measurements. A maximum pressure jump to 10.2 GPa can be reached within 20 ms in the nonequilibrium subsystem with the use of an improved bladder-pressurization jump press. Some typical results obtained with different LVPs are briefly reviewed to illustrate the applications and advantages of these presses. In summary, the platform described here has the potential to contribute greatly to high-pressure research and to innovations in high-pressure technology.

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Publication Details

Journal
Matter and Radiation at Extremes
Published
2024-08-26
DOI
https://doi.org/10.1063/5.0205477
Citations
13
Primary Topic
Nuclear Physics and Applications
Type
article
Field-Weighted Citation Impact
7.90

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article

A distinctive HPHT platform with different types of large-volume press subsystems at SECUF

Pinwen Zhu, Di Yao, Yufei Ge, Shuqing Jiang et al.
13 citations
Matter and Radiation at Extremes
Nuclear Physics and Applications
7.90
article

A distinctive HPHT platform with different types of large-volume press subsystems at SECUF

Pinwen Zhu, Di Yao, Yufei Ge, Shuqing Jiang, Bo Zou, Hu Tang, Shuailing Ma, Xinyi Yang, Qiang Zhou, Kuo Hu, Tian Cui, Zhaodong Liu, Cun You, Hongyu Li, Chuang Liu, Xinyang Li, Yixuan Wang, Bingbing Liu, Qiang Tao, Xinglin Wang, Lu Wang, Zhi He
article en
13 citations

Abstract

Large-volume presses (LVPs) providing large volumes, liquid media, deformation capability, jump compression, and in situ measurements are in great demand for high-pressure research, particularly in the fields of geoscience, condensed matter physics, material science, chemistry, and biology. A high-pressure and high-temperature (HPHT) platform with different LVP subsystems, both solid-state and liquid environments, and nonequilibrium subsystems, has been constructed at the Synergetic Extreme Condition User Facility, Jilin University. This article describes the construction of the different subsystems and provides an overview of the capabilities and characteristics of the different HPHT subsystems. A large sample volume (1000 mm3) at 20 GPa is achieved through the use of a belt-type apparatus in the solid-state subsystem. HPHT conditions (1.8 GPa and 1000 K) are realized in the liquid subsystem through the use of a piston–cylinder-type LVP with optical diamond windows for in situ spectroscopic measurements. A maximum pressure jump to 10.2 GPa can be reached within 20 ms in the nonequilibrium subsystem with the use of an improved bladder-pressurization jump press. Some typical results obtained with different LVPs are briefly reviewed to illustrate the applications and advantages of these presses. In summary, the platform described here has the potential to contribute greatly to high-pressure research and to innovations in high-pressure technology.

Matter and Radiation at ExtremesVol. 9(6)
Ningbo University (CN), Ningbo University of Technology (CN), Jilin University (CN), State Key Laboratory of High Pressure and Superhard Materials (CN)
National Natural Science Foundation of China
Industry, innovation and infrastructure
Openalex Percentile: Top 2%
Nuclear Physics and Applications
7.90
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