Physical and mechanical properties of berries and biological features of red currant growth for mechanized harvesting

Panfilova O., Kalinina O., Golyaeva O., Knyazev S., Tsoy M. (2020): Physical and mechanical properties of berries and biological features of red currant growth for mechanized harvesting. Res. Agr. Eng., 66: 156–163.

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The physical and mechanical parameters of berries and the morphometric features of the structure of the bush growth habit are important criteria in predicting the use of berry harvesting equipment. In this research, six red currant cultivars have been studied. The berry separation force, the crushing force, and the strength of attachment of the berries to the stalk were assigned to the physical and mechanical parameters and were determined using the "PLODTEST-1" and "Dina-2" devices (Russia). For the optimal operation of the berry harvester, the crushing force of the berries must be more than 2 N, the berry separation force must be in the range of 0.5–1.5 N. A high correlation between the separation and crushing forces was determined (R = 0.71). During the period of technical maturity, the strength of the attachment of the berries in the raceme was more than 0.5 N and, by the end of maturation, this indicator decreased. Most of the studied cultivars have a compact, optimal bush volume. The red currant cultivars Niva, Asya and Vika are promising for mechanised harvesting.

Aleynikov A.F., Mineyev V.V. (2016): Measurement of mechanical properties of sea buckthorn and black currant berries. Siberian Herald of Agricultural Science, 4: 105–111.
Aliasgarian S., Ghassemzadeh H., Moghaddam M., Ghaffari H. (2013): Mechanical damage of strawberry during harvest and postharvest operations. World Applied Sciences Journal, 22: 969–974.
Barney D., Hummer K. (2005): Currants, Gooseberries and Jostaberries: A Guide for Growers, Marketers, and Researchers in North America. 1st ed. Boca Raton, CRC Press: 266.
Dale A., Hanson E.J., Yarborough D., McNicol R.J., Stang E.J., Brennan R., Morris J.R., Hergert G.B. (1994): Mechanical harvesting of berry crops. Horticultural Reviews, 16: 255–382.
Danshina O.V. (2017): Selection evaluation of black currant forms for suitability for machine harvesting. [Ph.D. Thesis.]. Bryansk, Bryansk State Agrarian University: 22
Draper N., Smith H. (2016): Applied Regression Analysis. 3rd ed. New York, John Wiley & Sons Inc: 912.
Golovkov A.V. (2008): Research of introduced black currant cultivars as a source material for breeding in the conditions of the South-West of the central black-soil region of Russia. [Ph.D. Thesis.] Ramon, The A.L. Mazlumov All-Russian Research Institute of Sugar Beet and Sugar: 19.
Gurin A.G. (2000): Prediction of the duration of the mechanized harvest of black currants. Horticulture and Viticulture, 3: 13–15.
Huffman W.E. (2012): The status of labor-saving mechanization in U.S. fruit and vegetable harvesting. Economics Working Paper No. 12009.
Hummer K.E., Barney D.L. (2002): Barney currants. HortTechnology, 12: 377–387.
Kanarskiy A.A., Makarychev S.V. (2019): On improving the technology of mechanized harvesting of berry crops. Bulletin of Altai State Agricultural University, 9: 72–77.
Kikas A., Arus. L., Libek A., Kaldmäe H. (2008): Evaluation of blackcurrant cultivars for machine harvesting in Estonia. Acta Horticulturae, 777: 263–266.
Mikhailova N.V. (2014): Methods for Evaluating Sea Buckthorn Varieties for Machine Harvesting by Vibration Method: Method. Recom. Barnaul: RIO AGAU: 15.
Mineyev V.V., Aleynikov A.F., Zolotarev V.A., Furzikov V.M., Elkin O.V. (2015): Microprocessor device for measuring physical quantities that characterize the strength properties of berries. South-Siberian Scientific Bulletin, 19: 72–82.
Nakvasina E.I. (2005): Economic and biological assessment of black currant cultivars and elite forms in the conditions of the Altai low mountains. [Ph.D. Thesis.] Barnaul, Altai State Agricultural University: 17
Neumann U., Sorg P. (1977): Sorten fur industriemassing Produktion von Strauchbeerenobst. Gartenbau,
24: 213–214.
Olander S. (2012): A review of berry harvest machine development in Sweden. Acta Horticulturae, 965: 171–177.
Orchard M., Muñoz-Poblete C., Huircan J.I., Galeas P., Rozas H. (2019): Harvest stage recognition and potential fruit damage indicator for berries based on hidden Markov models and the Viterbi algorithm. Sensors, 19: 4421.
Panfilova O.V., Golyaeva O.D. (2017): Physiological features of red currant varieties and selected seedling adaptation to drought and high temperature. Agricultural Biology, 52: 1056–1064.
Salamon Z. (1993): Mechanical harvest of black currants and their sensitivity to damage. Acta Horticulturae,
352: 109–112.
Sarig Y. (2012): Mechanical harvesting of fruit – Past achievements. Current status and future prospects. Acta Horticulturae, 965: 163–169.
Sazonov F.F. (2018): Genetic resources of black currant in breeding for suitability for mechanized harvesting. Pomiculture and Small Fruits Culture in Russia, 54: 63–66.
Sazonov F.F., Danshina O.V. (2016): Breeding possibilities of creation cultivars and forms of blackcurrant for machine harvesting. Horticulture and Viticulture, 2: 22–27.
Shavyrkina M.A., Knyazev S.D., Tovarnitskaya M.V. (2015): Evaluation of black currant cultivars of VNIISPK breeding for suitability for mechanical harvesting. Contemporary Horticulture, 4: 22–25.
Tahvonen R. (1979): Injury to currants during mechanical harvesting and subsequent fungal infection. Journal of the Scientific Agricultural Society of Finland, 51: 421–431.
Thiele G.F. (1979): Short Term Cropping of Blackcurrants for Mechanical Harvesting. Landscape and Parks. Department of Horticulture, Landscape and Parks. Lincoln, Linco1n Co11ege New Zealand: 29.
Yakimenko O.F., Novopokrovsky V.S. (1988): Evaluation and selection of black currant varieties for machine harvesting. Michurinsk: 18.
Yakimenko O.F. (2001): Production of black currant berries on the industrial basis. Horticulture and Viticulture, 3: 21–24.
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