Klaysubun Chollachai, Chaichana Nattarika, Suwannasin Sirikan, Singkhamanan Kamonnut, Yaikhan Thunchanok, Kantachote Duangporn, Pomwised Rattanaruji, Wonglapsuwan Monwadee, Surachat Komwit
Department of Biomedical Sciences and Biomedical Engineering, Faculty of Medicine, Prince of Songkla University, Songkhla 90110, Thailand.
Division of Biological Science, Faculty of Science, Prince of Songkla University, Songkhla 90110, Thailand.
Life (Basel). 2025 May 8;15(5):754. doi: 10.3390/life15050754.
is recognized for its versatile metabolic capabilities that enable it to effectively degrade pollutants and survive various environmental stresses. In this study, we conducted a genome analysis of sp. P1 to investigate its genetic potential for wastewater treatment processes. Phylogenetic and genome-relatedness analyses confirmed that strain P1 is genetically distinct from other species within the genus, establishing it as a novel species. The genome sequences obtained and analyzed focused on genes related to carbon and nutrient removal, photosynthetic capabilities, nitrate and nitrite reduction, and the biodegradation of common wastewater pollutants. The identification of wastewater treatment-related genes followed an extensive review of the existing literature that helped in selecting genes involved in various wastewater treatment mechanisms. The genome of sp. P1 contains a diverse array of genes involved in carbon and nutrient cycling, pollutant biodegradation, and metal resistance, all of which are crucial for its survival in the complex wastewater environment. Specifically, the strain contains genes responsible for the denitrification, nitrogen fixation, sulfur cycling, and detoxification of toxic metals such as copper and arsenic. These findings highlight the potential application of sp. P1 in wastewater treatment, particularly in environments contaminated with organic pollutants and heavy metals. However, while the genomic features indicate significant promise, the practical implementation of sp. P1 in real-world wastewater treatment systems will require further investigation, optimization, and validation to fully harness its potential for sustainable and efficient wastewater treatment.
因其多样的代谢能力而闻名,这种能力使其能够有效降解污染物并在各种环境压力下生存。在本研究中,我们对sp. P1进行了基因组分析,以研究其在废水处理过程中的遗传潜力。系统发育和基因组相关性分析证实,菌株P1在遗传上与该属内的其他物种不同,确定它为一个新物种。获得并分析的基因组序列聚焦于与碳和养分去除、光合能力、硝酸盐和亚硝酸盐还原以及常见废水污染物生物降解相关的基因。废水处理相关基因的鉴定是在对现有文献进行广泛综述之后进行的,这有助于选择参与各种废水处理机制的基因。sp. P1的基因组包含一系列与碳和养分循环、污染物生物降解以及金属抗性相关的基因,所有这些对于其在复杂废水环境中的生存至关重要。具体而言,该菌株含有负责反硝化、固氮、硫循环以及对铜和砷等有毒金属解毒的基因。这些发现突出了sp. P1在废水处理中的潜在应用,特别是在受有机污染物和重金属污染的环境中。然而,虽然基因组特征显示出巨大潜力,但在实际废水处理系统中实际应用sp. P1将需要进一步研究、优化和验证,以充分发挥其在可持续和高效废水处理方面的潜力。