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使用基于聚集诱导发光的发光材料促进微藻生长和脂质生产以实现可持续的食品和燃料供应

Enhancement of Growth and Lipid Production in Microalgae Using Aggregation-Induced Emission Based Luminescent Material for Sustainable Food and Fuel.

作者信息

Ferdewsi Rakhi Sharmin, Mohammad Mohsinul Reza Abdul Hakim, Wang Jianzhong, Tang Youhong, Qin Jianguang

机构信息

College of Science and Engineering, Flinders University, South Australia, 5042, Bedford Park, Australia.

Institute for NanoScale Science and Technology, Flinders University, South Australia, 5042, Bedford Park, Australia.

出版信息

Chem Asian J. 2025 Jan 2;20(1):e202401077. doi: 10.1002/asia.202401077. Epub 2024 Nov 9.

Abstract

Aggregation-Induced Emission (AIE) based nanomaterials are progressively gaining momentum owing to their evolvement into an interdisciplinary field ranging from biomass and biomolecule yield to image-guided photodynamic therapy. This study focuses on a novel strategy to enhance growth, lipid accumulation, and in vivo fluorescence visualisation in green microalgae Chlamydomonas reinhardtii using AIE nanoparticles to quantify radical changes. The absorption of AIE photosensitiser (PS), TTMN (CHNS[M]) was recorded from 420 to 570 nm with a peak at 500 nm, and the emission ranged from 550 to 800 nm with a peak at 650 nm. As a reactive oxygen species (ROS) molecule, HO generation of TTMN in C. reinhardtii cells was detected with AIE nanoprobes TPE-BO (CHBO). HO accumulation increased with the increase of TTMN concentrations. The maximum growth (2.1×10 cell/mL) was observed at 10 μM TTMN-exposed C. reinhardtii cells. Significant lipid accumulation was found in both 10 and 15 μM TTMN-treated cells. For lipid visualisation, an AIE nanoprobe, 2-DPAN (CHNO) was used, and superior fluorescence was determined and compared with the traditional BODIPY dye. Cytotoxicity analysis of 10 μM TTMN on the HaCat cell line with 86.2 % cell viability revealed its high biocompatibility on living cells. This AIE-based nanotechnology provides a novel approach for microalgae-derived sustainable biomass and eco-friendly biofuel production.

摘要

基于聚集诱导发光(AIE)的纳米材料正逐渐获得发展动力,因为它们已发展成为一个跨学科领域,涵盖从生物质和生物分子产量到图像引导光动力治疗等多个方面。本研究聚焦于一种新策略,即使用AIE纳米颗粒来量化绿藻莱茵衣藻中的自由基变化,以增强其生长、脂质积累及体内荧光可视化。记录了AIE光敏剂(PS)四(4-甲基吡啶基)卟啉(TTMN,CHNS[M])在420至570nm的吸收情况,其峰值在500nm,发射范围为550至800nm,峰值在650nm。作为一种活性氧(ROS)分子,用AIE纳米探针四苯乙烯硼酸酯(TPE-BO,CHBO)检测了莱茵衣藻细胞中TTMN产生的羟基自由基(HO)。HO积累随TTMN浓度的增加而增加。在暴露于10μM TTMN的莱茵衣藻细胞中观察到最大生长量(2.1×10个细胞/毫升)。在10μM和15μM TTMN处理的细胞中均发现了显著的脂质积累。为了进行脂质可视化,使用了AIE纳米探针2-二苯基氨基萘(2-DPAN,CHNO),并测定了其优异的荧光,并与传统的BODIPY染料进行了比较。对HaCat细胞系进行的10μM TTMN细胞毒性分析显示细胞活力为86.2%,表明其对活细胞具有高生物相容性。这种基于AIE的纳米技术为微藻衍生的可持续生物质和环保生物燃料生产提供了一种新方法。

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