Q1 Research Application · Frontier Focus

Probing the microwave induced overheating at electrode surface using a combined electrochemical and fluorescence method

This Chemical Engineering Journal paper (2025) is indexed as a Xianghu equipment application case for XH-800S.

View DOI Back to Library Chinese Solution
Paper ID 607
Application Focus MOF
Key Result See key results below
Core Condition Temperature 120 ℃ / 80 ℃
Paper ID
607
Journal
Chemical Engineering Journal
Impact Factor
13.273
CAS Zone
Zone 1
Year
2025
DOI
10.1016/j.cej.2025.162643
Equipment Model
XH-800S
Affiliations
Tianjin University
Research Directions
MOF

Fact Snapshot

  • Paper: Probing the microwave induced overheating at electrode surface using a combined electrochemical and fluorescence method
  • Equipment: XH-800S
  • Source: Chemical Engineering Journal, 2025
  • Research direction: MOF
  • Core conditions: Temperature 120 ℃ / 80 ℃, Microwave power 1000 W / 25 W, and Power 1000 W

Research Abstract

Probing the microwave induced overheating at electrode surface using a combined electrochemical and fluorescence method was published in Chemical Engineering Journal (2025) and is indexed as a Xianghu Q1 application case for XH-800S. The structured source links this paper to MOF. Core operating conditions include Temperature 120 ℃ / 80 ℃, Microwave power 1000 W / 25 W, and Power 1000 W. The DOI recorded for this paper is 10.1016/j.cej.2025.162643.

Research Background and Problem

The paper is positioned around MOF. The equipment record identifies XH-800S as the Xianghu instrument context for this application case. The source affiliation record includes Tianjin University.

Equipment Use and Experimental Conditions

ItemParameter
Temperature120 ℃ / 80 ℃
Microwave power1000 W / 25 W
Power1000 W
Time2.5 h / 24 h

Evidence Details

Microwave-method evidence

Microwave-method evidence: source values include 120 °C, 1000 W, 2.5 h. Entities: XH-800SE, NDI-MOF.

Additional source evidence

Additional source evidence: source values include 30 mL, 112.7 mg, 171.3 mg, 20 mL.

Microwave-method evidence

Microwave-method evidence: source values include 25 W, 32 W, 56 W.

Source evidence

Before performing the MW heating experiments, we analyzed the distribution of the electromagnetic field in the microwave equipment using numerical simulations ... The ITO/Tb-MOF electrode system was subjected to microwave irradiation at 25 W, and the MW generator was turned off after 15 s to prevent solvent boiling.

Additional source evidence

Additional source evidence: source values include 56 W, 4.7 °C, 2.7-4.7 °C.

Microwave-method evidence

Microwave-method evidence: source values include 25 W, 2.6 °C. Entities: Tb-MOF.

Additional source evidence

Additional source evidence: source values include 32 W, 4.0 °C.

Additional source evidence

Additional source evidence: source values include 25 W, 79 °C.

Additional source evidence

Additional source evidence: source values include 80 °C, 24 h.

Mechanism / Method Highlights

  • Method context: Temperature 120 ℃ / 80 ℃, Microwave power 1000 W / 25 W, Power 1000 W, and Time 2.5 h / 24 h.
  • Microwave-method evidence: source values include 120 °C, 1000 W, 2.5 h. Entities: XH-800SE, NDI-MOF
  • Additional source evidence: source values include 30 mL, 112.7 mg, 171.3 mg, 20 mL
  • Microwave-method evidence: source values include 25 W, 32 W, 56 W

Application Value

  • Positions XH-800S in a peer-reviewed Q1 research application.
  • Records source affiliations: Tianjin University.

Related Equipment

XH-800SE Microwave Hydrothermal Synthesizer
XH-800SE Microwave Hydrothermal Synthesizer

FAQ

Which Xianghu instrument is covered by this page?
The structured source records XH-800S for this paper.
What is the main application direction?
The source tags this paper under MOF.
Which publication does this case come from?
It comes from Chemical Engineering Journal (2025), DOI 10.1016/j.cej.2025.162643.
Citation
Probing the microwave induced overheating at electrode surface using a combined electrochemical and fluorescence method
Chemical Engineering Journal, 2025
DOI: 10.1016/j.cej.2025.162643