Whether these microbial growth processes occur in simple matrices (such as culture media) or complex matrices (such as blood or sludge), the entire analysis process is fully automated, without the need for microbial separation and purification, as well as any physical, chemical, and biological aids and consumables. It has the characteristics of easy operation, good versatility, low application cost, and high accuracy, which can significantly improve the efficiency and input-output ratio of microbial growth-related research.
Based on Capacitively-Coupled Contactless Conductivity Detection (C4D) technology.
Designed for using NORELL™ Standard Series™ NMR Tubes, 5 mm OD, 1.8-2.2 mL.
Designed for small conductivity change detection with high resolution.
Automated monitoring growth of uniformly and non-uniformly dispersed microorganisms in simple substrates (e.g. liquid culture media) and complex substrates (e.g. blood, yogurt, minced meat, sewage, and sludge) with real-time display of growth kinetics curves.
Zero consumables: The entire analysis process does not require microbial separation or purification, nor any physical, chemical, or biological additives or consumables.
A simple and user-friendly operating system that completes the entire analysis process automatically, with easy operation, good versatility, low application cost, and high accuracy.
Automatically showing microbial growth kinetics with a high-performance microbial growth analyzer. Xuzhi Zhang, Qianqian Yang, Liangyu Ma, Dahai Zhang, Wentao Lin, Nick Schlensky, Hongrui Cheng, Yuanhui Zheng, Xiliang Luo, Caifeng Ding, Yan Zhang, Xiangyi Hou, Feng Lu, Hua Yan, Ruoju Wang, Chen-Zhong Li, Keming Qu. Biosensors and Bioelectronics - Volume 239, 1 November 2023, 115626
A universal automated method for determining the bacteriostatic activity of nanomaterials. Xuzhi Zhang, Xiaochun Wang, Hongrui Cheng, Yuanhui Zheng, Jun Zhao, Keming Qu. Journal of Hazardous Materials - Volume 413, 5 July 2021, 125320