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The Effects of Nano-Casein Encapsulation and Productions of a Controlled-Release on Eugenol Containing Bio-Pesticide Toxicity

机译:纳米酪蛋白封装及其对含有生物农药毒性丁烯酚对丁烯醇的制备的影响

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The concern against long-term health and environmental adverse effects of synthetic pesticides has encouraged the development of bio-pesticides. Eugenol, a major constituent of clove oil, has been proven as potential bio-pesticides. However, evaporation and photosensitive properties of Eugenol needs to be controlled. Nano-encapsulation is a promising method that can preserve eugenol from evaporating and photodegradation. This study aims to investigate the production of a controlled-release of eugenol in casein micelle as well as the effects of nano-encapsulation on Eugenol Containing Biopesticide (ECB) toxicity against Artemia salina sp. Brine Shrimp Lethality Test (BSLT) was implemented to investigate effect of nano-encapsulation on ECB and the Response Surface Methodology was used to optimize the formula to investigate the production of a controlled-release of eugenol. The optimum condition revealed loading capacity and encapsulation efficiency response for 64.67% and 79.64%, respectively. The average diameter of the obtained nanocapsule-eugenol (NCE) was 179.83 nm. Release study was performed at 40 °C that represent as pesticide applied in farm, revealed that casein micelle capsule could delayed the release of eugenol. A cytotoxicity assay showed that the NCE has 21 times more effective compared with eugenol only. It was found that nano encapsulated ECB was statistically more toxic than ECB-suspension (without nano encapsulation) with a confidence level of 95%. Lethal Concentration 50 (LC50) of nano-ECB was 0.264 ?g/L while LC50 of ECB-suspension was 4.445 ?g/L. The increase of toxic properties after nano-encapsulation by casein could be explained by the increase of eugenol stability. Thus nano-encapsulation can be proposed as a method for improving the bio-pesticide ability of eugenol.
机译:对合成农药的长期健康和环境不利影响的关注引起了生物杀虫剂的发展。丁香酚是丁香石油的主要组成部分已被证明是潜在的生物农药。然而,需要控制丁香酚的蒸发和光敏性质。纳米封装是一种有希望的方法,可以保护丁香酚蒸发和光降解。本研究旨在探讨酪蛋白胶束中丁香酚的控制释放的生产以及纳米包封对含有生物农药(ECB)毒性对Artemia Salina的影响的影响。实施了盐水虾致致敏试验(BSLT)以研究纳米封装对欧洲核糖核酸的影响,并且使用响应面方法来优化公式,以研究丁烯醇的控制释放的产生。最佳条件揭示了64.67%和79.64%的负载能力和封装效率响应。所得纳米胶囊 - 丁烯醇(NCE)的平均直径为179.83nm。释放研究在40℃下进行,其代表作为农药应用的农药,揭示酪蛋白胶囊可以延迟丁烯醇的释放。细胞毒性测定表明,与丁烯醇相比,NCE仅具有21倍。发现纳米包封的ECB统计学上比欧洲核糖悬浮液(没有纳米封装)的统计学更大,置位水平为95%。纳米ECB的致死浓度50(LC50)为0.264Ω·克/升蛋白质蛋白酶LC50为4.445Ω·克/升。通过酪蛋白纳米包封后的毒性特性的增加可以通过丁烯醇稳定性的增加来解释。因此,可以提出纳米封装作为提高丁烯醇生物农药能力的方法。

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