Flow zoometry ofDrosophila
Author:
Peterson Walker, Arenson Joshua, Hata Soichiro, Kacenauskaite Laura, Kobayashi Tsubasa, Otsuka Takuya, Wang Hanqing, Wada Yayoi, Hiramatsu Kotaro, He Zhikai, Clement Jean-Emmanuel, Zhang Chenqi, Hu Chenglang, McCann Phillip, Kanazawa Hayato, Nagasaka Yuzuki, Uechi Hiroyuki, Watanabe Yuh, Yamamura Ryodai, Hayashi Mika, Nakagawa Yuta, Huang Kangrui, Kanno Hiroshi, Zhou Yuqi, Ding Tianben, Herbig Maik, Makino Shimpei, Nonaga Shunta, Takami Ryosuke, Kanca Oguz, Tabata Koji, Amaya Satoshi, Furusawa Kotaro, Ishii Kenichi, Emoto Kazuo, Arai Fumihito, Cagan RossORCID, Di Carlo Dino, Igaki Tatsushi, Kuranaga Erina, Yamamoto ShinyaORCID, Bellen Hugo J, Komatsuzaki Tamiki, Sonoshita Masahiro, Goda KeisukeORCID
Abstract
ABSTRACTDrosophilaserves as a highly valuable model organism across numerous fields including genetics, immunology, neuroscience, cancer biology, and developmental biology. Central toDrosophila-based biological research is the ability to perform comprehensive genetic or chemical screens. However, this research is often limited by its dependence on laborious manual handling and analysis, making it prone to human error and difficult to discern statistically significant or rare events amid the noise of individual variations resulting from genetic and environmental factors. In this article we present flow zoometry, a whole-animal equivalent of flow cytometry for large-scale, individual-level, high-content screening ofDrosophila. Our flow zoometer automatically clears the tissues ofDrosophila melanogaster, captures three-dimensional (3D) multi-color fluorescence tomograms of single flies with single-cell volumetric resolution at an unprecedented throughput of over 1,000 animals within 48 hours (24 hr for clearing; 24 hr for imaging), and performs AI-enhanced data-driven analysis – a task that would traditionally take months or years with manual techniques. To demonstrate its broad applications, we employed the flow zoometer in various laborious screening assays, including those in toxicology, genotyping, and tumor screening. Flow zoometry represents a pivotal evolution in high-throughput screening technology: previously from molecules to cells, now from cells to whole animals. This advancement serves as a foundational platform for “statistical spatial biology”, to improve empirical precision and enable serendipitous discoveries across various fields of biology.
Publisher
Cold Spring Harbor Laboratory
|
|