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March 18, 2026Journal of the Iranian Chemical Society0 citationsOpen Access

Photocatalytic performance of novel super-hydrophilic carbon quantum dots/Fe(NO3)3 composites for catalytic applications

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JMJinu Binu MukkadanMSMonika SiddharthanMGMithra Geetha

Key Points

  • This research aims to develop a novel carbon quantum dot/ferric nitrate composite for photocatalytic applications.
  • Synthesis of CQD/Fe(NO₃)₃ composite using microwave-assisted process.
  • Variation of citric acid and ferric nitrate ratios during synthesis.
  • Structural and morphological evaluations of the synthesized materials.
  • 3:1:1 CQD/Fe(NO₃)₃ composite achieved 92% degradation of methyl orange under visible light in 30 min.
  • Composite showed a contact angle below 10°, indicating super-hydrophilic properties.
  • Composite exhibited pronounced blue luminescence.

Abstract

This study presents the development of a new carbon quantum dot/ferric nitrate (CQD/Fe(NO₃)₃) composite featuring super-hydrophilic and fluorescent characteristics tailored for efficient photocatalytic applications. The material was synthesized through a rapid microwave-assisted process using different ratios of citric acid and ferric nitrate. Structural and morphological evaluations confirmed the successful formation of uniformly distributed CQDs on Fe(NO₃)₃ flakes, with surface functional groups contributing to excellent water dispersibility and biocompatibility. Among the prepared samples, the 3:1:1 CQD/Fe(NO₃)₃ composite displayed pronounced blue luminescence, a contact angle below 10°, and outstanding photocatalytic activity, achieving 92% degradation of methyl orange under visible light within 30 min. The distinctiveness of this work arises from the creation of a super-hydrophilic, fluorescent CQD/Fe(NO₃)₃ material synthesized via an ultrafast microwave route—a combination not previously reported. Its rare blend of extremely low contact angle, strong luminescence, and superior visible-light degradation efficiency demonstrates the composite’s advanced multifunctional performance. Overall, the material shows strong promise for environmental remediation and potential bio-related applications.

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Cite This Study

Mukkadan et al. (2026) studied this question.

synapsesocial.com/papers/69ba431a4e9516ffd37a3f57https://doi.org/10.1007/s13738-026-03397-y
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