Q1 Research Application · Frontier Focus

Microwave-Activated Peroxyl Radicals Accelerate Hydroxymethyl Oxidation on the AuPd/C Catalyst for Mild Synthesis of FDCA

This ACS Sustainable Chemistry & Engineering paper (2025) is indexed as a Xianghu equipment application case for XH-200A+ and XH-200A / XH-200C; key results include Oxidant utilization 90%.

Paper ID 665
Application Focus Biomass platform-molecule conversion, HMF FDCA, from
Key Result Oxidant utilization 90%
Core Condition Temperature 65 °C
Paper ID
665
Journal
ACS Sustainable Chemistry & Engineering
Impact Factor
8.4
CAS Zone
Zone 1
Year
2025
Equipment Model
XH-200A+ XH-200A / XH-200C
Affiliations
Nanjing Tech University
Research Directions
Biomass platform-molecule conversion HMF FDCA from

Fact Snapshot

  • Paper: Microwave-Activated Peroxyl Radicals Accelerate Hydroxymethyl Oxidation on the AuPd/C Catalyst for Mild Synthesis of FDCA
  • Equipment: XH-200A+ and XH-200A / XH-200C
  • Source: ACS Sustainable Chemistry & Engineering, 2025
  • Research direction: biomass platform-molecule conversion, HMF FDCA, and from
  • Core conditions: Temperature 65 °C and Microwave power 400 W
  • Key results: Oxidant utilization 90%

Research Abstract

Microwave-Activated Peroxyl Radicals Accelerate Hydroxymethyl Oxidation on the AuPd/C Catalyst for Mild Synthesis of FDCA was published in ACS Sustainable Chemistry & Engineering (2025) and is indexed as a Xianghu Q1 application case for XH-200A+ and XH-200A / XH-200C. The source record connects it with biomass platform-molecule conversion, HMF FDCA, and from. Core operating conditions include Temperature 65 °C and Microwave power 400 W. Key reported results include Oxidant utilization 90%.

Research Background and Problem

The paper is positioned around biomass platform-molecule conversion, HMF FDCA, and from. The equipment record identifies XH-200A+ and XH-200A / XH-200C as the Xianghu instrument context for this application case. The source affiliation record includes Nanjing Tech University.

Equipment Use and Experimental Conditions

ItemParameter
Temperature65 °C
Microwave power400 W

Key Result

Oxidant utilization 90%
MetricResult
Oxidant utilization90%

Evidence Details

Energy-comparison evidence

Energy-comparison evidence: source values include 4–12 h.

Source evidence

Experimental and electric-field DFT studies revealed that microwaves increased the rate constant of H2O2 decomposition by 1.6-fold compared to conventional heating methods, with an ultrahigh H2O2 utilization rate of 90%.

Abstract evidence

The microwave-boosted reaction synergy on the bimetallic Au−Pd dual active centers enabled the reaction to occur at near-room temperature (45 °C) and reached the highest FDCA yield of 88 mol % at 65 °C.

Source evidence

MW power = 400 W, and the MW reactor temperature was set to 65 °C, as measured by the Pt100 temperature sensor. Magnetic stirring speed was 1000 rpm.

Additional source evidence

Additional source evidence: source values include 0.52 mL, 10 min, 0.2 mL.

Equipment evidence

HMF oxidation to FDCA was carried out in a microwave reactor (multimode MW reactor, XH-200A+, Beijing, Xianghu).

Additional source evidence

Additional source evidence: source values include 0.4 g, 26 mL.

Mechanism / Method Highlights

  • Method context: Temperature 65 °C and Microwave power 400 W.
  • Energy-comparison evidence: source values include 4–12 h
  • Source evidence: Experimental and electric-field DFT studies revealed that microwaves increased the rate constant of H2O2 decomposition by 1.6-fold compared to conventional heating methods, with an ultrahigh H2O2 utilization rate of 90%
  • Abstract evidence: The microwave-boosted reaction synergy on the bimetallic Au−Pd dual active centers enabled the reaction to occur at near-room temperature (45 °C) and reached the highest FDCA yield of 88 mol % at 65 °C
  • Reported outcome: Oxidant utilization 90%.

Application Value

  • Provides a peer-reviewed SoarNova / Xianghu Q1 application case for XH-200A+ and XH-200A / XH-200C.
  • Supports English discovery around Biomass platform-molecule conversion, HMF FDCA, and from.
  • Preserves quantitative result evidence: Oxidant utilization 90%.
  • Maintains source-level evidence details: Energy-comparison evidence: source values include 4–12 h, Source evidence: Experimental and electric-field DFT studies revealed that microwaves increased the rate constant of H2O2 decomposition by 1.6-fold compared to conventional heating methods, with an ultrahigh H2O2 utilization rate of 90%, Abstract evidence: The microwave-boosted reaction synergy on the bimetallic Au−Pd dual active centers enabled the reaction to occur at near-room temperature (45 °C) and reached the highest FDCA yield of 88 mol % at 65 °C, and Source evidence: MW power = 400 W, and the MW reactor temperature was set to 65 °C, as measured by the Pt100 temperature sensor. Magnetic stirring speed was 1000 rpm.

Related Equipment

FAQ

Which Xianghu instrument is covered by this page?
The structured source records XH-200A+ and XH-200A / XH-200C for this paper.
What is the main application direction?
The source tags this paper under biomass platform-molecule conversion, HMF FDCA, and from.
Which publication does this case come from?
It comes from ACS Sustainable Chemistry & Engineering (2025), DOI 10.1021/acssuschemeng.4c07309.
Citation
Microwave-Activated Peroxyl Radicals Accelerate Hydroxymethyl Oxidation on the AuPd/C Catalyst for Mild Synthesis of FDCA
ACS Sustainable Chemistry & Engineering, 2025
DOI: 10.1021/acssuschemeng.4c07309