STM32 microcontroller-based automated control system for high-throughput cell sphere culture chips

Authors

  • Jiangshan Li
  • Ziyi Qing

DOI:

https://doi.org/10.54097/wv018305

Keywords:

high-throughput cell sphere culture chip, 3D cell culture, automation technology, STM32 microcontroller.

Abstract

3D cell culture technology has gradually become a hotspot in biomedical research in recent years, traditional cell culture methods are complex, inefficient and unable to simulate the three-dimensional structure of cells in vivo and extracellular plasmic interactions, high-throughput screening (HTS) technology and automation technology is a necessary technology for modern biomedical research, and the automated cultivation devices on the market are generally larger and more expensive, which are not suitable for the promotion of laboratory. In this paper, a microfluidic chip automation control system based on STM32F103C8T6 microcontroller is proposed, which integrates lifting, oscillating and suctioning devices, realises the full automation of the cell culture process, and significantly improves the culture efficiency, and is compact and lightweight, suitable for laboratory promotion, which greatly saves the financial and material resources of researchers. This study provides important technical support for the automation and high-throughput development of cell culture technology.

Downloads

Download data is not yet available.

References

[1] Lu Xiaoqin, Liu Xiaofeng, Zhong Hao, et al. Progress of three-dimensional cell culture technology and its application [J]. Journal of Biomedical Engineering,2023,40 (03):602-608.

[2] Han Xiaomeng, Sun Hang, Yang Huayu, et al. Research progress of 3D bioprinting in hepatocellular carcinoma treatment [J]. Oncology,2023,43 (06):534-540.

[3] Guo Xiaojie,Wang Liyan,Zhang Chong, et al. High-throughput automated microbial microdroplet evolutionary culture and screening technology and its equipping [J]. Journal of Bioengineering,2021,37 (03):991-1003.

[4] Geipel-Kern A . Exploring the future of biopharmaceuticals [J]. Process Industry,2023, (04):31-33.

[5] Xu Xiaoting,Wang Yue,Wang Lin,et al. Study of cytokine-induced killer cells cultured in a rotating bioreactor [J]. Journal of Translational Medicine,2020,9 (04):233-237.

[6] Lin Chengxu,Gan Lang,Tan Xinping,et al. Structural design of fully automated pathological staining system based on fluorescence in situ hybridisation technology [J]. China Mechanical Engineering,2023,34 (05):603-609.

[7] Jing Wei, Yaning Zhang. Research on environmental hydrogeological investigation of polluted site environment in coal mine site based on pumping method [J]. Energy and Environmental Protection,2024,46 (08):49-54.

[8] Xu Rouxiang, Wang Changyu, Wang Yongtian, et al. A review of design methods for diffractive optical elements [J]. Journal of Optics,2023,43 (08):117-136.

[9] Yang Jinghe. Design of digital thermometer circuit based on microcontroller [J]. Modern Industrial Economy and Informatisation,2023,13 (02):122-124.

[10] Guo Ziqi. Design and realization of smart health bracelet based on STM32 [J]. Science and Technology Innovation and Application,2024,14 (02):125-128.

Downloads

Published

25-12-2024

How to Cite

Li, J., & Qing, Z. (2024). STM32 microcontroller-based automated control system for high-throughput cell sphere culture chips. Highlights in Science, Engineering and Technology, 120, 602-609. https://doi.org/10.54097/wv018305