• 综述 •
胡安东, 周顺桂, 叶捷. 生物杂化体介导的半人工光合作用:机理、进展及展望[J]. 化学进展, 2021, 33(11): 2103-2115.
Andong Hu, Shungui Zhou, Jie Ye. The Mechanism, Progress and Prospect of Biohybrid Mediated Semi-Artificial Photosynthesis[J]. Progress in Chemistry, 2021, 33(11): 2103-2115.
半人工光合系统通过利用人工光合系统与自然光合系统关键功能组分的协同效应以实现太阳能-化学能的转化。生物杂化体介导的半人工光合系统(biohybrid mediated semi-artificial photosynthetic system, BMSAPS)创新性地耦合了光敏剂优异的光捕获特性及生物催化剂高效的催化能力,从而利用太阳能高效驱动特定的化学转化过程。强化光敏剂与生物催化剂微界面间电子的产生、传输及利用是提高BMSAPS性能的关键。本文从BMSAPS的基本原理出发,分析了BMSAPS构建的关键科学问题及研究现状,阐述了该系统光生电子传递的相关机制及研究手段,总结了其在可再生能源转化、二氧化碳减排等方面的研究进展,并就未来的研究方向提出展望。本文有助于加深对BMSAPS的认识,从而为进一步优化其在能源生产和环境修复领域的应用提供理论基础和技术支撑。
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Photosensitizer | Biocatalyst | Sacrificial electron donor | Substrate/Product | Quantum yield | ref |
---|---|---|---|---|---|
CdS | [FeFe]-hydrogenase I | Ascorbic acid | H2O/H2 | 20%(with 405 nm LED) | |
CdS | CO dehydrogenases | 2-(N-morpholino) ethanesulfonic acid | CO2/CO | - | |
CNx-TiO2 | [NiFeSe]-hydrogenase | EDTA | H2O/H2 | 4.8%(with simulated sunlight) | |
CdSe | NADP+-reductase | Ascorbic acid | NADPH | 5.8%(with 405 nm LED) | |
CdS | MoFe protein | Ethyl sulfonic acid | N2/NH3 | - | |
WO3 | Photosynthetic membrane protein | - | H2O/H2,O2 | - | |
g-C3N4 | Formate dehydrogenase | Triethanolamine(TEOA) | CO2/HCOOH | - | |
Rutile | A. ferrooxidans | Ascorbic acid | Fe3+/Fe2+ | - | |
CdS | M. thermoacetica | Cysteine | CO2/CH3COOH | 2.44% ± 0.62%(with simulated sunlight) | |
AglnS2/In2S3 | E. coli | Cysteine | H2O/H2 | 3.3%(with Xenon lamp) | |
InP | S. cerevisiae | - | 3-Dehydroshikimic acid/Shikimic acid | 1.58% ± 0.05%(with cold-while LED) | |
CdS | T. denitrificans | Cysteine | N/N2O | 2.0%(with 395 nm LED) | |
CdS | M. barkeri | Cysteine | CO2/CH4 | 0.34%(with 395 nm LED) | |
CdS NPs | R. palustris | Cysteine | CO2/C2+ | 6.73% | |
g-C3N4 | R. eutropha | Triethanolamine(TEOA) | Fructose/PHB | - | |
WO3/MoO3/g-C3N4 | S. marcescens | Propidium iodide | HC/Acetic acid | - |
Methods | Roles | Specific steps | ref |
---|---|---|---|
Transient absorption(TA) spectroscopy | Characterizing the electrons transfer | Measuring with an Ultrafast systems Helios TA system | |
Time-resolved infrared(TRIR) spectroscopy | Characterizing the instantaneous lifetime changes of group | Measuring with self-made device | |
NADH/NAD ratio | Characterizing intracellular redox potential changes | Measuring with MAK037, Sigma-Aldrich kit | |
Incident photon-to-current conversion efficiency(IPCE) | Characterizing photon-to-current conversion efficiency | Measuring with a motorized monochromator(M10; Jasco Corp.) | |
Structure illumination microscopy(SIM) | Characterizing intracellular gold nanoclusters | Measuring with an ELYRA PS.1 system(Zeiss) | |
Intracellular ROS | Characterizing intracellular reactive oxygen species | Measuring with fluorometric intracellular ROS assay MAK143 Kit | |
Real-time polymerase chain reaction(PCR) | Characterizing of gene expression | Using kits to extract and measuring with LightCycler 96 | |
Flow cytometry | Characterizing of cell total protein, total nucleic acid, etc. | Staining with green fluorescent dye and measuring with flow cytometer | |
Scanning electrochemical microscopy(SECM) | Characterizing photocurrent of BMSAPS | Measuring with a VersaSCAN SECM instrument(AMETEK Inc., Berwyn, USA) | |
Fluorescence spectroscopy | Characterizing synthesis of cadmium sulfide | Measuring with fluorescence spectroscopy(FP-6500, JASCO) | |
Proteomics | Characterizing protein expression of BMSAPS | Extraction, digestion and quantitative analysis of extracellular proteins | |
Metabolomics | Characterizing metabolites of BMSAPS | Extracting intracellular metabolites and using LC-MS for quantitative analysis | |
Circular dichroic(CD) spectrum | Characterizing secondary structure of protein | Measuring with spectrometer(JASCO J-715) |
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