Mohammed Zayan Jalal, A. John, A. Rasheed, Batoul Alallam, Mohammed Khalid, A. Ismail, Hamzah Salleh
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The optimal GO-TiO2-Ag and rGO-TiO2-Ag concentrations were found to be 5 × 10-2, which resulted in 86- and 180-folds augmentation of DNA denaturation (6.5 µg/mL), respectively, while it resulted in 2- and 7-folds augmentation of DNA denaturation (11.5 µg/mL), respectively, at temperature as low as 80 °C. The results indicated that rGO-TiO2-Ag nanoparticles exhibited significantly higher DNA denaturation enhancement than rGO-TiO2-Ag nanoparticles, owing to their enhanced thermal conductivity effect. Therefore, these nanoparticles could help to get improved PCR yield, hence enable amplification to be performed for longer cycles by lowering the denaturation temperatures.\nABSTRAK: Dua ternar baru nanopartikel hibrid (THNp) mengandungi oksida grapen (GO) dan oksida grapen yang dikurangkan (rGO) dan dimasukkan ke dalam sampel DNA. Kesan penambahan nanopartikel pada denaturasi termal pada sampel DNA telah dikaji dengan mengukur penyerapan menggunakan kawalan-suhu Perkin Elmer UV spektrofotometer. Penambahan GO-TiO2-Ag dan rGO-TiO2-Ag nanopartikel telah mengurangkan suhu denaturasi pada templat DNA dengan nyata. Nanopartikel memberi kesan pada kadar denaturasi. Kepekatan optimal GO-TiO2-Ag dan rGO-TiO2-Ag didapati sebanyak 5 × 10-2, menyebabkan penambahan sebanyak 86- dan 180-lipat pada DNA denaturasi (6.5 µg/mL), masing-masing, sementara ia menyebabkan sebanyak 2- dan 7-lipat penambahan pada DNA denaturasi (11.5 µg/mL), masing-masing, pada suhu serendah 80 °C. Dapatan menunjukkan nanopartikel rGO-TiO2-Ag mempunyai kenaikan penambahan DNA denaturasi nyata berbanding nanopartikel rGO-TiO2-Ag, disebabkan kesan kekonduksian penambahan suhu. 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引用次数: 1
摘要
将氧化石墨烯(GO)和还原氧化石墨烯(rGO)组成的两种新型三元杂化纳米颗粒(THNp)添加到DNA样品中。采用温控珀金埃尔默紫外分光光度计测量吸光度,研究纳米颗粒的加入对DNA样品热变性的影响。添加GO-TiO2-Ag和rGO-TiO2-Ag纳米颗粒可显著降低模板DNA的变性温度。纳米颗粒影响变性速率。在低至80℃的温度下,GO-TiO2-Ag和rGO-TiO2-Ag浓度为5 × 10-2时,DNA的变性率分别提高了86倍和180倍(6.5µg/mL),而GO-TiO2-Ag和rGO-TiO2-Ag的DNA变性率分别提高了2倍和7倍(11.5µg/mL)。结果表明,rGO-TiO2-Ag纳米粒子对DNA变性的增强作用明显高于rGO-TiO2-Ag纳米粒子,这是由于它们具有增强的导热效应。因此,这些纳米颗粒可以帮助提高PCR产率,从而通过降低变性温度使扩增能够进行更长的周期。ABSTRAK: Dua ternar巴鲁nanopartikel hibrid (THNp) mengandungi oksida grapen(去)丹oksida grapen杨dikurangkan (rGO)丹dimasukkan ke dalam山姆普尔DNA。Kesan penambahan纳米粒子paas变性,termal paas样品DNA telah, dikaji, dengan, mengukur, penyerapan, menggunakan, kawalan-suhu Perkin Elmer紫外光谱仪。纳米tio2 - ag纳米颗粒的制备与应用[j]。纳米粒子的组成是一种自然变性的结构。Kepekatan优化GO-TiO2-Ag rGO-TiO2-Ag didapati sebanyak 5 × 10-2, menyebabkan penambahan sebanyak 86- dan 180-lipat pada DNA变性(6.5µg/mL), masing-masing, sementara ia menyebabkan sebanyak 2- dan 7-lipat penambahan pada DNA变性(11.5µg/mL), masing-masing, pada suhu serendah 80°C。纳米颗粒rGO-TiO2-Ag,脱氧核糖核酸,脱氧核糖核酸,脱氧核糖核酸,脱氧核糖核酸,脱氧核糖核酸,脱氧核糖核酸。纳米粒子的聚合酶链反应,纳米粒子的聚合酶链反应,纳米粒子的聚合酶链反应,纳米粒子的聚合酶链反应
Earlier Denaturation of DNA By Using Novel Ternary Hybrid Nanoparticles
Two novel ternary hybrid nanoparticles (THNp) consisting of graphene oxide (GO) and reduced graphene oxides (rGO) were added to samples of DNA. The effect of the addition of nanoparticles on the thermal denaturation of DNA samples was studied by measuring the absorbance using a temperature-controlled Perkin Elmer UV spectrophotometer. Adding GO-TiO2-Ag and rGO-TiO2-Ag nanoparticles lowered the denaturation temperature of template DNA significantly. The nanoparticles affect the denaturation rate. The optimal GO-TiO2-Ag and rGO-TiO2-Ag concentrations were found to be 5 × 10-2, which resulted in 86- and 180-folds augmentation of DNA denaturation (6.5 µg/mL), respectively, while it resulted in 2- and 7-folds augmentation of DNA denaturation (11.5 µg/mL), respectively, at temperature as low as 80 °C. The results indicated that rGO-TiO2-Ag nanoparticles exhibited significantly higher DNA denaturation enhancement than rGO-TiO2-Ag nanoparticles, owing to their enhanced thermal conductivity effect. Therefore, these nanoparticles could help to get improved PCR yield, hence enable amplification to be performed for longer cycles by lowering the denaturation temperatures.
ABSTRAK: Dua ternar baru nanopartikel hibrid (THNp) mengandungi oksida grapen (GO) dan oksida grapen yang dikurangkan (rGO) dan dimasukkan ke dalam sampel DNA. Kesan penambahan nanopartikel pada denaturasi termal pada sampel DNA telah dikaji dengan mengukur penyerapan menggunakan kawalan-suhu Perkin Elmer UV spektrofotometer. Penambahan GO-TiO2-Ag dan rGO-TiO2-Ag nanopartikel telah mengurangkan suhu denaturasi pada templat DNA dengan nyata. Nanopartikel memberi kesan pada kadar denaturasi. Kepekatan optimal GO-TiO2-Ag dan rGO-TiO2-Ag didapati sebanyak 5 × 10-2, menyebabkan penambahan sebanyak 86- dan 180-lipat pada DNA denaturasi (6.5 µg/mL), masing-masing, sementara ia menyebabkan sebanyak 2- dan 7-lipat penambahan pada DNA denaturasi (11.5 µg/mL), masing-masing, pada suhu serendah 80 °C. Dapatan menunjukkan nanopartikel rGO-TiO2-Ag mempunyai kenaikan penambahan DNA denaturasi nyata berbanding nanopartikel rGO-TiO2-Ag, disebabkan kesan kekonduksian penambahan suhu. Oleh itu, nanopartikel ini dapat membantu bagi penambah baikan pengeluaran PCR, membolehkan penguatan dapat dilakukan dalam kitaran lebih lama dengan merendahkan suhu denaturasi.
期刊介绍:
The IIUM Engineering Journal, published biannually (June and December), is a peer-reviewed open-access journal of the Faculty of Engineering, International Islamic University Malaysia (IIUM). The IIUM Engineering Journal publishes original research findings as regular papers, review papers (by invitation). The Journal provides a platform for Engineers, Researchers, Academicians, and Practitioners who are highly motivated in contributing to the Engineering disciplines, and Applied Sciences. It also welcomes contributions that address solutions to the specific challenges of the developing world, and address science and technology issues from an Islamic and multidisciplinary perspective. Subject areas suitable for publication are as follows: -Chemical and Biotechnology Engineering -Civil and Environmental Engineering -Computer Science and Information Technology -Electrical, Computer, and Communications Engineering -Engineering Mathematics and Applied Science -Materials and Manufacturing Engineering -Mechanical and Aerospace Engineering -Mechatronics and Automation Engineering