Surface engineering of a 2D CuFe-LDH/MoS<sub>2</sub> photocatalyst for improved hydrogen generation

Vennapoosa, Chandra Shobha; Shelake, Sandip Prabhakar; Jaksani, Bhavya; Jamma, Aparna; Moses Abraham, B.; Sesha Sainath, Annadanam V.; Ahmadipour, Mohsen; Pal, Ujjwal

doi:10.1039/d3ma00881a

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2025

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Cited by 3 publications

References 57 publications

(110 reference statements)

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In situ decoration of 2D-MoS2/ZIF-67 type II heterojunction for enhanced hydrogen production under simulated sunlight

Kshirsagar,

Shelake,

Biswas

et al. 2025

Catalysis Today

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In situ decoration of 2D-MoS2/ZIF-67 type II heterojunction for enhanced hydrogen production under simulated sunlight

Kshirsagar,

Shelake,

Biswas

et al. 2025

Catalysis Today

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In situ decoration of Cd0.05Mn0.05Zn0.90 (ZIF-8) photocatalyst for solar-driven hydrogen production

Kshirsagar,

Shelake,

Islam

et al. 2024

International Journal of Hydrogen Energy

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Heterostructures, Plasmonics, and Quantum Dot Photocatalysts for Hydrogen Production

Jaksani,

Gonuguntla,

Islam

et al. 2024

Advances in Photocatalysis, Electrocatalysis and Photoelectrocatalysis for Hydrogen Production

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Hydrogen produced from photocatalytic water splitting offers a promising clean energy solution to address the environmental crisis and meet global energy demands. By carefully selecting materials with complementary band structures, heterostructures can create a built-in electric field that promotes charge carrier migration, thereby enhancing hydrogen evolution efficiency. Integrating heterostructures, plasmonics, and quantum dots significantly advances photocatalytic hydrogen production. This chapter focuses on innovations in heterostructures, plasmonics, and quantum dots, discussing their potential to advance photocatalytic hydrogen evolution. It provides a brief overview of recent research contributions to sustainable energy solutions. It describes the latest developments in composites/heterostructures, plasmonic nanomaterials, and quantum dot-based photocatalysts for hydrogen evolution reactions. The beneficial impact of these materials, due to the formation of diverse heterojunctions that promote electron–hole separation and enhance catalytic performance, is also discussed. The chapter examines the efficiency of photocatalytic behaviors in energy conversion applications and offers strategies for designing semiconductor architectures using plasmonic and quantum dot heterostructures for photocatalytic water splitting. Future research directions to optimize these advanced materials for higher efficiency and stability in photocatalytic systems are outlined, and the prospects for semiconductor heterojunction and quantum dot photocatalysts are proposed.

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Surface engineering of a 2D CuFe-LDH/MoS₂ photocatalyst for improved hydrogen generation

Cited by 3 publications

References 57 publications

In situ decoration of 2D-MoS2/ZIF-67 type II heterojunction for enhanced hydrogen production under simulated sunlight

In situ decoration of 2D-MoS2/ZIF-67 type II heterojunction for enhanced hydrogen production under simulated sunlight

In situ decoration of Cd0.05Mn0.05Zn0.90 (ZIF-8) photocatalyst for solar-driven hydrogen production

Heterostructures, Plasmonics, and Quantum Dot Photocatalysts for Hydrogen Production

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Surface engineering of a 2D CuFe-LDH/MoS2 photocatalyst for improved hydrogen generation

Cited by 3 publications

References 57 publications

In situ decoration of 2D-MoS2/ZIF-67 type II heterojunction for enhanced hydrogen production under simulated sunlight

In situ decoration of 2D-MoS2/ZIF-67 type II heterojunction for enhanced hydrogen production under simulated sunlight

In situ decoration of Cd0.05Mn0.05Zn0.90 (ZIF-8) photocatalyst for solar-driven hydrogen production

Heterostructures, Plasmonics, and Quantum Dot Photocatalysts for Hydrogen Production

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Product

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About

Surface engineering of a 2D CuFe-LDH/MoS₂ photocatalyst for improved hydrogen generation