activity
20182023
most citedA broadband pulse amplifier for Joule heating experiments in diamond anvil cells

2 citations · 2 across the 3 of their papers we have counts for

collaborators

7 papers

physics.ins-det20232 cited

A broadband pulse amplifier for Joule heating experiments in diamond anvil cells

Zachary M. Geballe, Joseph Lai, Michael J. Walter

Decades of measurements of the thermophysical properties of hot metals show that pulsed Joule heating is an effective method to heat solid and liquid metals that are chemically rea…

physics.app-ph2023

A diamond anvil microassembly for Joule heating and electrical measurements up to 150 GPa and 4000 K

Zachary M. Geballe, Suzy M. Vitale, Jing Yang +3

When diamond anvil cell (DAC) sample chambers are outfitted with both thermal insulation and electrodes, two cutting-edge experimental methods are enabled: Joule heating with spect…

physics.ins-det2023

Spectroradiometry with sub-microsecond time resolution using multianode photomultiplier tube assemblies

Zachary M. Geballe, Francesca Miozzi, Chris F. Anto +3

Accurate and precise measurements of spectroradiometric temperature are crucial for many high pressure experiments that use diamond anvil cells or shock waves. In experiments with…

cond-mat.mtrl-sci2020

A latent heat method to detect melting and freezing of metals at megabar pressures

Zachary M. Geballe, Nicholas Holtgrewe, Amol Karandikar +3

The high-pressure melting curves of metals provide simple and useful tests for theories of melting, as well as important constraints for the modeling of planetary interiors. Here,…

cond-mat.mtrl-sci2018

Insulator-metal transition in liquid hydrogen and deuterium

Shuqing Jiang, Nicholas Holtgrewe, Zachary M. Geballe +4

The insulator-to-metal transition in dense fluid hydrogen is an essential phenomenon to understand gas giant planetary interiors and the physical and chemical behavior of highly co…

cond-mat.mtrl-sci2018

Helium-hydrogen immiscibility at high pressures

Yu Wang, Xiao Zhang, Shuqing Jiang +6

Hydrogen and helium are the most abundant elements in the universe and they constitute the interiors of gas giant planets. Thus, their equations of states, phase, chemical state, a…