Abstract
Automation in plant micropropagation can be greatly simplified if the propagated plantlets have some morphological properties that facilitate automatic chopping and subsequent inspection and classification of the pre-cut plantlet segments by machine vision as viable propagules. We were able to control the morphogenic pattern of in vitro-propagated potato plantlets by adding various concentrations of ancymidol to the nutrient solution. It was found that plantlets cultured in 0.25 mg l−1 ancymidol best fit the requirements for automated mass micropropagation; the mean internode length was sufficiently large (9–10 mm), the color contrast between leaves and stems was significantly enhanced, the stem was thicker than in the control treatment and the number of axillary buds per plantlet was maximized. Microtuber formation on segments isolated from plants cultured in 0.25 and 0.5 mg l−1 ancymidol media was enhanced shortly after transfer to tuber induction medium in vitro. On shoot segments from control plants, microtuber formation started after 24–28 days.
Machine vision was used to evaluate the morphological and color changes in cultured potato plants. Geometrical and color features such as the number of buds, internode length and color contrast between leaf and stem were precisely measured and automatically logged. Features were measured that till now could only be observed qualitatively.
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Abbreviations
- F/W:
-
fresh weight
- RGB:
-
red, green, blue principal color components
- VTR:
-
video tape recorder
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Alchanatis, V., Peleg, K. & Ziv, M. Morphological control and mensuration of potato plantlets from tissue cultures for automated micropropagation. Plant Cell Tiss Organ Cult 36, 331–338 (1994). https://doi.org/10.1007/BF00046090
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DOI: https://doi.org/10.1007/BF00046090