The developed method holds great potential for applications in tissue engineering, regenerative medicine, and drug screening.
The acetylene flame method holds great potential for the cost-effective production of CNTs as well as carbon nanocapsules.
The method holds great promise in pathogenic bacteria detection due to its accuracy, specificity, sensitivity and low-cost.
The general self-template method holds great potential for the fabrication of high-performance charge storage devices.
Our method holds great potential for creating and updating sinkhole inventory databases at a regional scale in a timely manner.
The use of tissue-engineering method holds great promise for treating degenerative disc disease [Gan JC, Ducheyne P, Vresilovic E, Shapiro IM. J Biomed Mater Res 2000; 51(4): 596–604].
All these features make our developed DNA detection method holds great potential for visual monitoring of various DNA biomarkers at ultralow levels with careful and proper probe designs.
Together, the presented method holds great potential in the fabrication of functional 3D nanofiber scaffolds for various applications including engineering 3D in vitro tissue models, antimicrobial wound dressing, and repairing/regenerating tissues in vivo.
This strategy could detect DNA MTase activity as low as 0.3 U mL−1 with good selectivity against other two cytosine MTases (HaeIII MTase and AluI MTase), and be successfully applied for screening the DNA MTase inhibitors (5-azacytidine and 5-aza-2′-deoxycytidine), implying our proposed method holds great promising application in early cancer diagnosis and therapeutics.
Considering the superior sensitivity and specificity, as well as the multiplex and simple-to-implement features, this method holds great promise of becoming a routine tool for simultaneously quantitative analysis of multiple proteins and supplies valuable information for transcription factor-based early stage cancer diagnosis.
