The scripts of the newly built 3D time‐lapse pipeline are available from GitHub ( https://github.com/LMVaskimo/3D-Lapse-Pipeline ).
Open resource ↗LMVaskimo/3D-Lapse-Pipeline · lines:238-443Unverified paper record
Orchid fruit and root movement analyzed using 2D photographs and a bioinformatics pipeline for processing sequential 3D scans.
Applications in plant sciences · 1 Jan 2024 · 10.1002/aps3.11567
Abstract
Premise Most studies of the movement of orchid fruits and roots during plant development have focused on morphological observations; however, further genetic analysis is required to understand the molecular mechanisms underlying this phenomenon. A precise tool is required to observe these movements and harvest tissue at the correct position and time for transcriptomics research. Methods We utilized three-dimensional (3D) micro-computed tomography (CT) scans to capture the movement of fast-growing Erycina pusilla roots, and built an integrated bioinformatics pipeline to process 3D images into 3D time-lapse videos. To record the movement of slowly developing E. pusilla and Phalaenopsis equestris fruits, two-dimensional (2D) photographs were used. Results The E. pusilla roots twisted and resupinated multiple times from early development. The first period occurred in the early developmental stage (77-84 days after germination [DAG]) and the subsequent period occurred later in development (140-154 DAG). While E. pusilla fruits twisted 45° from 56-63 days after pollination (DAP), the fruits of P. equestris only began to resupinate a week before dehiscence (133 DAP) and ended a week after dehiscence (161 DAP). Discussion Our methods revealed that each orchid root and fruit had an independent direction and degree of torsion from the initial to the final position. Our innovative approaches produced detailed spatial and temporal information on the resupination of roots and fruits during orchid development.
Plant phenotyping relevance
3DマイクロCT、2D画像、画像処理パイプラインを用いてランの根・果実のねじれ運動を時空間的に抽出する手法が研究の中心であり、植物形態表現型の取得に該当する。
abstractWe utilized three-dimensional (3D) micro-computed tomography (CT) scans to capture the movement of fast-growing Erycina pusilla roots, and built an integrated bioinformatics pipeline to process 3D images into 3D time-lapse videos.
abstractOur innovative approaches produced detailed spatial and temporal information on the resupination of roots and fruits during orchid development.
Code and data availability
The paper's authors publicly released their custom 3D time-lapse pipeline code on GitHub and the micro-CT reconstruction data (young and mature E. pusilla plants) on Figshare, both explicitly cited in the Data Availability Statement.
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