Most popular articles
Everything About Peaches. Clemson University Cooperative Extension Service Everything About Peaches Website: whether you are a professional or backyard peach...
Mission Statement. For the sake of mankind and the world as a whole a further increase of the sustainability...
Newsletter 9: July 2013 - Temperate Fruits in the Tropics and Subtropics. Download your copy of the Working Group Temperate...
USA Walnut varieties. The Walnut Germplasm Collection of the University of California, Davis (USA). A description of the Collection and a History...
China Walnut varieties.

Articles

APPLICATIONS OF COMPUTER VISION TECHNIQUES IN VITICULTURE TO ASSESS CANOPY FEATURES, CLUSTER MORPHOLOGY AND BERRY SIZE

Article number
978_7
Pages
77 – 84
Language
English
Abstract
Computer vision systems are powerful tools to automate inspection tasks in agriculture.
Typical target applications of such systems include grading, quality estimation, yield prediction and monitoring, among others.
The capabilities of an artificial vision system go beyond the limited human capacity to evaluate long-term processes objectively and provide valuable data to take decisions that will have great influence in later operations.
This work explores the application of machine vision techniques in viticulture from several approaches.
The first approach is aimed at working outdoors, developing in-field systems capable of assessing the canopy features of the vineyard (Vitis vinifera L.) by taking digital images and applying computer vision systems.
The second approach is aimed at analysing cluster morphology using image analysis.
Berry number per cluster and cluster weight were estimated using several algorithms of image processing.
Lately, machine vision has been used as a tool to automate the measurement of berry size and weight under laboratory conditions.
Manual measurement of the canopy features and yield components are tedious and subjective tasks that can be time-consuming and labour demanding.
In this regard, by means of computer vision techniques, a large set of samples can be automatically measured, saving time and providing more objective and precise information.

Publication
Authors
J. Tardaguila, M.P. Diago, B. Millan, J. Blasco, S. Cubero, N. Aleixos
Keywords
machine vision, image analysis, grapevine, vineyard, automation
Full text
Online Articles (46)
D.N. Newson | A.R. Ratcliff | J.C. Freckleton
A. Matese | J. Primicerio | F. Di Gennaro | E. Fiorillo | F.P. Vaccari | L. Genesio
P. Storchi | R. Perria | D. Sarri | M. Rimediotti | M. Vieri
V. Giovenzana | R. Beghi | A. Mena | R. Civelli | R. Guidetti | S. Best | L.F. Leòn Gutiérrez
T. De Filippis | L. Rocchi | E. Fiorillo | A. Matese | F. Di Gennaro | L. Genesio
M. Muganu | M. Paolocci | D. Gnisci | F.E. Barnaba | A. Bellincontro | F. Mencarelli | I. Grosu
L. Zivotic | M. Pajic | Z. Rankovic-Vasic | V. Pajic | A. Dordevic | B. Sivcev | Z. Atanackovic
J. Rousseau | V. Lefevre | H. Douche | H. Poilve | T. Habimana
M. Herbst-Johnstone | L.D. Araujo | T.A. Allen | G. Logan | L. Nicolau | P.A. Kilmartin
M. Tamagnone | P. Balsari | C. Bozzer
P. Balsari | C. Bozzer | M. Manzone | M. Tamagnone
M. Stoll | B. Gaubatz | H.P. Schwarz | R. Keicher | M. Freund | O. Baus | B. Berkelmann-Loehnertz | M. Blum | M. Heinzler | W. Fehse
M. Gatti | M. Zamboni | M.C. Merli | S. Civardi | S. Poni
E. Mescalchin | B. Agabiti | D. Bertoldi | R. Larcher | M. Gobber | A. Guerra | R. Zanzotti | M. Tonni
M. Pajić | M. Urošević | V. Pajić | M. Zivković | D. Mitrović
M. Stoll | M. Bischoff-Schaefer | M. Lafontaine | S. Tittmann | J. Henschke
J. Rousseau | L. Pic | A. Carbonneau | H. Ojeda
G. Schillaci | R. Bonsignore | L. Caruso | E. Cerruto | E. Romano
D. Longo | A. Pennisi | R. Bonsignore | G. Schillaci | G. Muscato
F. Mazzetto | R. Gallo | A. Calcante | S. Landonio | M. Lazzari