利用纳米粒抑制变形链球菌的生长

Sejal Ghandi, A. Goodman, Emily Long, Herchel Patel, K. Patel, R. Patel, Dhruvi Patel, Vijay Mohakar, A. Sorkin, V. Reukov
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引用次数: 0

摘要

蛀牙的主要原因是微生物的积累和牙齿表面生物膜的形成。口腔健康受到细菌增殖的影响,细菌通常会作为代谢的副产物产生有害的酸。特别是,口腔细菌变形链球菌将糖代谢成乳酸,并在蛀牙中发挥着普遍作用。关于纳米氧化铈(纳米氧化铈,CeO2)的研究表明,纳米氧化铈是一种潜在的抗菌剂和生物膜破坏剂,可以通过裂解细菌细胞壁。我们提出,合成的纳米二氧化铈可以作为变形链球菌的抑制剂;通过减少生长和乳酸的产生,可以减少蛀牙。我们首先通过光密度(OD)和菌落形成单位(CFU)的测量来研究变异链球菌的生长模式。接下来,我们通过在不同蔗糖浓度下进行的pH测试,研究了纳米二氧化铈对乳酸生产的影响。在进行初步测量后,研究了纳米二氧化铈对pH和OD的抗菌作用。初步测试表明,纳米二氧化铈可以抑制乳酸的产生并降低细菌的对数相,未来的试验将进一步研究这些联系。在未来,这些发现可能支持在牙科应用中使用纳米二氧化铈作为抗菌剂。
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GROWTHINHIBITIONOF Streptococcus mutans USING NANOCERIA
A leading cause of tooth decay stems from the build-up of microbes and the formation of biofilms on the surfaces of teeth. Oral health is impacted by this proliferation of bacteria, which often produce harmful acids as by-products of metabolism. In particular, the oral bacteria Streptococcus mutans metabolizes sugars into lactic acid and plays a prevalent role in tooth decay. Research regarding the nanoparticle cerium oxide (nanoceria, CeO2) shows nanoceria as a potential antimicrobial agent and biofilm disruptor through the lysis of bacterial cell walls. We propose that synthesized nanoceria can be utilized as an inhibitor of S. mutans; by reducing growth and lactic acid production, tooth decay may be reduced. We first studied the growth pattern of S. mutans through optical density (OD) and colony-forming unit (CFU) measurements. Next, we examined the effect of nanoceria on lactic acid production through pH tests conducted at varying sucrose concentrations. After initial measurements were taken, the antimicrobial effect of nanoceria on pH and OD was studied. Preliminary tests showed nanoceria inhibiting lactic acid production and decreasing the log phase of the bacteria, and future trials will further examine these associations. In the future, these findings could support using nanoceria in dental applications as an antibacterial agent.
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