Kwon Youngeun, Kim Jihye, Son Ye Bin, Lee Sol Ah, Choi Shin Sik, Cho Yongmin
Department of Chemical Engineering, Myongji University, Yongin 17058, Republic of Korea.
School of Chemical & Biomolecular Engineering, Georgia Institute of Technology, Atlanta, GA 30332, USA.
Micromachines (Basel). 2024 Aug 12;15(8):1027. doi: 10.3390/mi15081027.
The ability to perceive and adapt to environmental changes is crucial for the survival of all organisms. Neural functional imaging, particularly in model organisms, such as , provides valuable insights into how animals sense and process external cues through their nervous systems. Because of its fully mapped neural anatomy, transparent body, and genetic tractability, serves as an ideal model for these studies. This review focuses on advanced methods for neural functional imaging in , highlighting calcium imaging techniques, lab-on-a-chip technologies, and their applications in the study of various sensory modalities, including chemosensation, mechanosensation, thermosensation, photosensation, and magnetosensation. We discuss the benefits of these methods in terms of precision, reproducibility, and ability to study dynamic neural processes in real time, ultimately advancing our understanding of the fundamental principles of neural activity and connectivity.
感知并适应环境变化的能力对所有生物体的生存至关重要。神经功能成像,尤其是在诸如[具体生物名称缺失]等模式生物中的成像,为了解动物如何通过其神经系统感知和处理外部线索提供了有价值的见解。由于其具有完整绘制的神经解剖结构、透明的身体以及遗传易处理性,[具体生物名称缺失]成为这些研究的理想模型。本综述聚焦于[具体生物名称缺失]中神经功能成像的先进方法,重点介绍钙成像技术、芯片实验室技术及其在各种感觉模态研究中的应用,包括化学感觉、机械感觉、温度感觉、光感觉和磁感觉。我们从精度、可重复性以及实时研究动态神经过程的能力等方面讨论了这些方法的益处,最终增进了我们对神经活动和连接性基本原理的理解。