Daren Wu
Kelsey B. Hatzell
2025_DarenWu_KelseyHatzell_EES.Batteries_d5eb00097a ← click to see all uploads with this sample ID
2026-08-14 15:06:30
a2c3a703-4546-42f0-a5e5-17f463cc85bd
How to Cite
1 — Cite the dataset paper
↗ View paper
2 — Cite the ESRA platform
Galib, M. et al. (2026). ESRA: Energy Storage Research Assistant. Argonne National Laboratory. https://github.com/MusannaGalib/esra-platform
CC BY 4.0  ·  Data shared under Creative Commons Attribution 4.0

Storage LocationNERSC Community File System

/global/cfs/cdirs/m4845/gsharing/kelsey-b-hatzell/chemo-mechanical-limitations-of-liquid-a/2025-darenwu-kelseyhatzell-eesbatteries/DW1_85A1_K cell/cycling/ESRA-CYC-0010/
Open in Globus File Manager →

Linked Uploads

Other datasets with the same sample ID (2025_DarenWu_KelseyHatzell_EES.Batteries_d5eb00097a).

Type Group Date Project Link
XCT Kelsey B. Hatzell 2026-08-14 15:06 Chemo-mechanical limitations of liquid alloy anodes for sodium solid-state batteries same sample
EIS Kelsey B. Hatzell 2026-08-14 15:06 Chemo-mechanical limitations of liquid alloy anodes for sodium solid-state batteries same sample
EIS Kelsey B. Hatzell 2026-08-14 15:06 Chemo-mechanical limitations of liquid alloy anodes for sodium solid-state batteries same sample
Cycling Kelsey B. Hatzell 2026-08-14 15:06 Chemo-mechanical limitations of liquid alloy anodes for sodium solid-state batteries same sample
Cycling Kelsey B. Hatzell 2026-08-14 15:06 Chemo-mechanical limitations of liquid alloy anodes for sodium solid-state batteries same sample
Cycling Kelsey B. Hatzell 2026-08-14 15:06 Chemo-mechanical limitations of liquid alloy anodes for sodium solid-state batteries same sample
Cycling Kelsey B. Hatzell 2026-08-14 15:06 Chemo-mechanical limitations of liquid alloy anodes for sodium solid-state batteries same sample

Materials Studied 2 materials

Material Family Role(s) Ion
Na-K liquid alloy (NaK50, NaK65, NaK80)  · Liquid NaK alloy anode
Room-temperature liquid alkali-metal alloy; Na:K ratio varied
Alloy
Anode
Anode Na
Na3Zr2Si2PO12  · NASICON solid electrolyte
Purchased / commercial MSE Supplies Material synthesis
  1. Press — Cold press the commercial NASICON powder
    pressure: 625 MPa
    Methods, Preparation of NASICON solid-state electrolyte
  2. Sinter — Sinter to a self-standing pellet
    duration: 12 hthickness: ~1500 umtemperature: 1230 °Cheating rate: 5 °C min-1
    Methods, Preparation of NASICON solid-state electrolyte
  3. Sputter — Sputter 20 nm Sn onto the NaK-contacting NASICON surface
    equipment: VCR IBS/TM200S Ion Beam Sputterersubstrate: as-sintered NASICON pellet surfacethickness: 0.02 um
    Methods, Preparation of NASICON solid-state electrolyte
  4. Anneal — Anneal in a tube furnace to form the SnO2 coating
    duration: 3 hequipment: tube furnacetemperature: 900 °C
    Methods, Preparation of NASICON solid-state electrolyte
NASICON
Inorganic SE
Electrolyte Na

Declared for sample 2025_DarenWu_KelseyHatzell_EES.Batteries_d5eb00097a — shared by every dataset on this sample.

Experiment Metadata

Visibility public
Electrolyte Na₃Zr₂Si₂PO₁₂ (NASICON) with 20 nm SnO₂ coating
Anode Material Na-K liquid alloy
Publication Doi 10.1039/d5eb00097a
Number Of Cycles run until short-circuit; pulsed stripping: multiple pulses (varies per rest condition)
Cathode Material Na metal
Institution Code ESRA
Electrode Area Cm2 0.503
Voltage Window — Upper 3.0
Current / C-Rate / Protocol Summary CCD: 0.05, 0.1, 0.2, 0.4 mA cm⁻² (Na stripping/plating); SGEIS: 0.05–1 mA cm⁻², step 0.01 mA cm⁻²; pulsed: 1 mA cm⁻², 1 s pulse + 0.1–10 s rest

Uploaded Files 460 files · 52.3 MB

Versions 0 saved

A version freezes the description and the list of files at one moment, so a paper can say which one it used. The ESRA ID stays the same. Saved automatically when a dataset is made public, and by hand below.

No version saved yet.