Wijewardhane Neshika, Denniss Ana Rubio, Uppington Matthew, Hauser Helmut, Gorochowski Thomas E, Piddini Eugenia, Hauert Sabine
Centre for Doctoral Training in Digital Health and Care, University of Bristol, Bristol, UK.
School of Engineering Mathematics and Technology, University of Bristol, Bristol, UK.
J Microbio Robot. 2024;20(1):2. doi: 10.1007/s12213-024-00165-0. Epub 2024 Apr 12.
The ability to optically interact with cells on both an individual and collective level has applications from wound healing to cancer treatment. Building systems that can facilitate both localised light illumination and visualisation of cells can, however, be challenging and costly. This work takes the Dynamic Optical MicroEnvironment (DOME), an existing platform for the closed-loop optical control of microscale agents, and adapts the design to support live-cell imaging. Through modifications made to the imaging and projection systems within the DOME, a significantly higher resolution, alternative imaging channels and the ability to customise light wavelengths are achieved (Bio-DOME). This is accompanied by an interactive calibration procedure that is robust to changes in the hardware configuration and provides fluorescence imaging (Fluoro-DOME). These alterations to the fundamental design allow for long-term use of the DOME in an environment of higher temperature and humidity. Thus, long-term imaging of living cells in a wound, with closed-loop control of real-time frontier illumination via projected light patterns, is facilitated.
The online version contains supplementary material available at 10.1007/s12213-024-00165-0.
在个体和集体层面与细胞进行光学相互作用的能力在从伤口愈合到癌症治疗等方面都有应用。然而,构建能够促进局部光照和细胞可视化的系统可能具有挑战性且成本高昂。这项工作采用了动态光学微环境(DOME),这是一个用于微尺度介质闭环光学控制的现有平台,并对其设计进行了调整以支持活细胞成像。通过对DOME内的成像和投影系统进行修改,实现了显著更高的分辨率、替代成像通道以及定制光波长的能力(生物DOME)。同时还伴有一个交互式校准程序,该程序对硬件配置的变化具有鲁棒性并提供荧光成像(荧光DOME)。对基本设计的这些改变使得DOME能够在更高温度和湿度的环境中长期使用。因此,通过投射光图案对实时前沿光照进行闭环控制,便于在伤口中对活细胞进行长期成像。
在线版本包含可在10.1007/s12213 - 024 - 00165 - 0获取的补充材料。