Photo-Driven Whole-Cell Biohybrids Based on Semiconductors and Microorganisms

Kaichong Wang; Han Wang; Yayi Wang

doi:10.7536/PC240501

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Prog Chem ›› 2025, Vol. 37 ›› Issue (2) : 157-172. DOI: 10.7536/PC240501

Review

Photo-Driven Whole-Cell Biohybrids Based on Semiconductors and Microorganisms

Kaichong Wang ¹ ,
Han Wang ¹ ,
Yayi Wang ¹^,²^,^*

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Abstract

Solar energy is the energy source for all life on Earth, and its efficient conversion is of great significance for solving the global energy crises and environmental issues. Inspired by natural photosynthesis, researchers have recently developed whole-cell biohybrids based on semiconductors and microorganisms by integrating the excellent light absorption ability of photosensitizer semiconductors and the efficient biocatalysis ability of whole-cell microbes. The development of whole-cell biohybrids aims to realize efficient solar-to-chemical production in a green and low-carbon pathway. This review clarifies the operation principle and advantages of whole-cell biohybrids, and the properties of photosensitizer semiconductors are summarized, including the band structure, excitation wavelength and quantum yield. Moreover, this work innovatively concludes the construction mechanisms of whole-cell biohybrids and the electron transfer mechanisms in the interface between semiconductor and microbe. Moreover, the advanced progress of whole-cell biohybrids are reviewed, such as the high-value conversion of carbon dioxide, artificial nitrogen fixation, hydrogen production as well as pollutant removal and recovery. Finally, the environmental impacts and challenges of whole-cell biohybrids are discussed and the perspectives for the development of whole-cell biohybrids are proposed. This article is expected to provide fundamental insights for the further development and actual application of whole-cell biohybrids.

Contents

1 Introduction

2 Principles and advantages of whole-cell biohybrids

3 Types of photosensitizers in whole-cell biohybrids

3.1 Inorganic semiconductors

3.2 Organic semiconductors

4 Construction mechanisms of whole-cell biohybrids

5 Advanced application progresses of whole-cell biohybrids

5.1 High-value conversion of CO₂

5.2 Artificial nitrogen fixation

5.3 Hydrogen production

5.4 Pollutants removal and resource recovery

6 The environmental impacts and challenges in whole-cell biohybrids

7 Conclusion and outlook

Key words

solar energy / semiconductor / microorganism / whole-cell biohybrid / electron transport

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Kaichong Wang , Han Wang , Yayi Wang. Photo-Driven Whole-Cell Biohybrids Based on Semiconductors and Microorganisms[J]. Progress in Chemistry. 2025, 37(2): 157-172 https://doi.org/10.7536/PC240501

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Funding

National Natural Science Fund for Distinguished Young Scholars(52225001)

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2024-05-07	2025-02-24
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