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Stefan cel Mare
University of Suceava
Faculty of Electrical Engineering and
Computer Science
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ROMANIA

Print ISSN: 1582-7445
Online ISSN: 1844-7600
WorldCat: 643243560
doi: 10.4316/AECE


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  2/2020 - 11

 HIGHLY CITED PAPER 

A Vision Based Crop Monitoring System Using Segmentation Techniques

KRISHNASWAMY RANGARAJAN, A. See more information about KRISHNASWAMY RANGARAJAN, A. on SCOPUS See more information about KRISHNASWAMY RANGARAJAN, A. on IEEExplore See more information about KRISHNASWAMY RANGARAJAN, A. on Web of Science, PURUSHOTHAMAN, R. See more information about PURUSHOTHAMAN, R. on SCOPUS See more information about PURUSHOTHAMAN, R. on SCOPUS See more information about PURUSHOTHAMAN, R. on Web of Science
 
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Download PDF pdficon (1,807 KB) | Citation | Downloads: 1,001 | Views: 2,421

Author keywords
agricultural engineering, crops, image processing, foldscope, image segmentation

References keywords
plant(21), phenotyping(10), vision(7), rosette(6), plants(6), leaf(6), tsaftaris(5), segmentation(5), detection(4), arabidopsis(4)
Blue keywords are present in both the references section and the paper title.

About this article
Date of Publication: 2020-05-31
Volume 20, Issue 2, Year 2020, On page(s): 89 - 100
ISSN: 1582-7445, e-ISSN: 1844-7600
Digital Object Identifier: 10.4316/AECE.2020.02011
Web of Science Accession Number: 000537943500011
SCOPUS ID: 85087448073

Abstract
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The characterization of health status for a plant using a non-destructive method is one of the challenging problems. In this study, the number of leaves and discoloration properties have been estimated using the images obtained from nine saplings of Solanum melongena (eggplant or brinjal) grown in the laboratory. The images were obtained using a mobile phone camera fitted on an automated device. A particle wave algorithm and contour grow technique was used for the segmentation of leaves which resulted in a segmentation accuracy of 89%. The defective percentage was estimated based on which saplings were ranked. Validation of healthy and defective regions was done by applying linear regression analysis on the estimated Normalized Green Red Difference Index (NGRDI) from images obtained using an automated device and a Foldscope (new paper-based microscope). The analysis resulted in R squared value and Least Mean Square Error (LMSE) of 0.86 and 0.1 respectively.


References | Cited By  «-- Click to see who has cited this paper

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[2] C. Coresta, "A Scale for coding growth stages in tobacco crops", 2009. [Online] Available: Temporary on-line reference link removed - see the PDF document

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[12] H. Scharr, M. Minervini, A. P. French, C. Klukas, D. M. Kramer, X. Liu, I. Luengo, J. M. Pape, G. Polder, D. Vukadinovic, X. Yin, S. A. Tsaftaris, "Leaf segmentation in plant phenotyping: a collation study", Mach. Vis. Appl., vol. 27, pp. 585-606, 2016.
[CrossRef] [Web of Science Times Cited 185] [SCOPUS Times Cited 224]


[13] M. M. Linow, J. Wilhelm, C. Briese, T. Wojciechwoski, U. Schurr, F. Fiorani, "Plant screen mobile: an open-source mobile device app for plant trait analysis", Plant Methods., vol. 15, no. 2, 2019.
[CrossRef] [Web of Science Times Cited 21] [SCOPUS Times Cited 21]


[14] R. Ispriyan, I. Grigoriev, W. Z. Castell, A. R. Schaffner, "A segmentation procedure using color features applied to images of Arabidopsis thaliana", Funct. Plant Biol., vol. 40, pp. 1065-1075, 2013.
[CrossRef] [Web of Science Times Cited 9] [SCOPUS Times Cited 9]


[15] X. Yin, X. Liu, J. Chen, D. M. Kramer, "Multi-leaf alignment from fluorescence plant images", IEEE Winter Conference on Application of Computer Vision, pp. 437-444, 2014.
[CrossRef] [SCOPUS Times Cited 27]


[16] C. Xia, L. Wang, B. K. Chung, J. M. Lee, "In situ 3D segmentation of individual plant leaves using a RGB-D camera for agricultural automation", Sens.,vol. 15, pp. 20463-20479, 2015.
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[17] A. Dobrescu, L. C. T. Scorza, S. A. Tsaftaris, A. J. McCormick, "A "Do-It-Yourself" phenotyping system: measuring growth and morphology throughout the diel cycle in rosette shaped plants", Plant Method., vol.13, Article ID. 95, 2017.
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[20] P. Sodhi, S. Vijayarangan, D. Wettergreen, "In-field segmentation and identification of plant structures using 3D imaging", IEEE International Conference on Intelligent Robots and Systems, 2017.
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[CrossRef]


[22] J. Ubbens, M. Cieslak, P. Prusinkiewicz, I. Stavness, "The use of plant models in deep learning: an application to leaf counting in rosette plants", Plant Methods., vol. 14, no. 6, 2018.
[CrossRef] [Web of Science Times Cited 162] [SCOPUS Times Cited 190]


[23] K. A. Vakilian, J. Massah, "A farmer-assistant robot for nitrogen fertilizing management of greenhouse crops", Comput. Electron. Agric., vol. 139, pp. 153-163, 2017.
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[24] D. Story, M. Kacira, "Design and implementation of a computer vision-guided greenhouse crop diagnostics system", Mach. Vis. Appl., vol. 26, pp. 496-506, 2015.
[CrossRef] [Web of Science Times Cited 39] [SCOPUS Times Cited 49]


[25] N. Schor, A. Bechar, T. Ignat, A. Dombrovsky, Y. Elad, S. Bermann, "Robotic disease detection in greenhouses: Combined detection of powdery mildew and tomato spotted wilt virus", IEEE Robot. Autom. Lett., vol. 1, no. 1, pp. 354-360, 2016.
[CrossRef] [Web of Science Times Cited 67] [SCOPUS Times Cited 106]


[26] E. Kiani, T. Mamedov, "Identification of plant disease infection using soft-computing application to modern botany", Proced. Comput. Sci., vol. 120, pp. 893-900, 2017.
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[27] J. S. Cybulski, J. Clements, M. Prakash, "Foldscope: Origami-based paper microscope", PLoS ONE, vol. 9, no. 6, Article ID e98781, 2014.
[CrossRef] [Web of Science Times Cited 222] [SCOPUS Times Cited 262]


[28] K. Prabhakara, W. D. Hively, G. W. McCarty, "Evaluating the relationship between biomass, percent groundcover and remote sensing indices across six winter cover crop fields in Maryland, United States", Int. J. Appl. Earth Obs. Geoinf., vol. 39, pp. 88-102, 2015.
[CrossRef] [Web of Science Times Cited 183] [SCOPUS Times Cited 204]




References Weight

Web of Science® Citations for all references: 3,039 TCR
SCOPUS® Citations for all references: 3,718 TCR

Web of Science® Average Citations per reference: 105 ACR
SCOPUS® Average Citations per reference: 128 ACR

TCR = Total Citations for References / ACR = Average Citations per Reference

We introduced in 2010 - for the first time in scientific publishing, the term "References Weight", as a quantitative indication of the quality ... Read more

Citations for references updated on 2024-11-19 22:02 in 244 seconds.




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