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UNIVERSITY
of
LIFE SCIENCES
in Lublln
era-FARM MACHINERY AND PROCESSES MANAGEMENT
IN SUSTAINABLE AGRICULTURE
VI INTERNATIONAL SCIENTIFIC SYMPOSIUM
VI International Scientific Symposium
FARM MACHINERY
AND PROCESSES MANAGEMENT
IN SUSTAINABLE AGRICULTURE
Symposium Proceedings
Edited by
Edmund Lorencowicz, Jocek Uziak, Bruno Huyghebaert
Published by
Department of Mochinery Exploitation
and Management of Production Processes University of Life Sciences in Lublin, POLAND
The symposium is organized in the research proiect
,.Optimization of composition and pressure agglomeration of plant biomass in terms of combustion parameters in heating insfaJiafions of low power " NN 313 7 57 5 40
Organizers
University of Life Sciences in Lublin, Deportment of Machinery Exploitation
and Management of Production Processes, Lublin, POLAND
Wolloon Agricultural Research Centre, Gembloux, BELGIUM
Programmes & Organizing Committee
Chairmen
Prof. dr hob. Jozef Sawa, University of life Sciences in Lublin, Poland Prof. dr Yves Schenkel, Wolloon Agricultural Research Centre, Belgium
Members
lr. Bruno Huygheboert
Dr. Gerhard Moitzi
Prof. dr hob. Edmund Lorencowicz Prof. dr hob. Janusz Nowak Prof. Dr. Taskin Oztas
Prof. Athanassios Papogeorgiou
Prof. lng. Giacomo Scarascio-Mugnozzo Prof. dr hob. Mieczyslaw Szpryngiel Prof. dr Jacek Uziok
Cover page: Jaroslaw Figurski Cover page photo: Slawomir Kocira
CRA- W Gembloux/BELGIUM
BOKU -University of Natural Resources and life Sciences, Vienna/ AUSTRIA
University of Life Sciences in Lublin/POLAND University of Life Sciences in Lublin/POLAND
Atotiirk University, Erzurum/TURKEY Technological Educational Institute of Kalomoto/GREECE
University of Bari Aldo Moro /ITALY
University of Life Sciences in Lublin/POLAND University of Botswana/BOTSWANA
All papers are published on the responsibility of authors and after the positive reviewing by the Symposium Organizing Committee.
ISBN 978-83-937433-0-8
The organizers wish to acknowledge with gratitude
the sponsorship and support of
Rector of the University
of
Life Sciences
in
Lublin
Marshal
of
Lubelskie
L
ubel
s
kie
European Society
of
Agricultural Engineers
Polish
Society
of
Agricultural Engineers
Branch Lublin
Wytwornia Sprz~tu Komunikacyjnego
,PZL-Swidnik",
an AgustaWestland company
Same Deutz-Fahr Polska
Sp. z o.o.
Agencja Rynku Rolnego Oddzial Lublin
Agricultural Market Agency
Lublin Branch EurAgEng
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taWe
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PZL-SWIDNIK S
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DEUTZ)\~.
FAHRC
Agencja
Rynku
Ralnega
1'/lntemmiona/ Scienti)ic Svmposium
"/·(mu MachineJT and Processes ,1/anagement in Sustainable Agriculture". Lublin. l'o/aJI(/. 201 J
CONTENTS
INTRODUCTION 9
Valerii ADAMCHUK, Volodymyr BULGAKOV, Hryhorij KALETNIK, // Andrii BORYS, Janusz NOWAK
THE THEORY OF WORKING BODY FOR PROCESS OF DIVISION OF TOPS OF A SUGAR BEET
Valerii ADAMCHUK, Volodymyr BULGAKOV, Hryhorij KALETNIK /7
THE THEORY OF VIBRATING EXCAVATION OFROOTCROPSOFASUGARBEET
Arlindo ALMEIDA
APPROPRIATE MECHANICAL HARVESTING SYSTEMS
FOR DIFFERENT TYPES OF OLIVE ORCHARDS
23
Rat~ll BAUM, Karol WAJSZCZUK, Jacek WA WRZYNOWICZ, Jaroslaw 29 WANKOWICZ
SHAPING AN ORGANIZATIONAL CUL TlJRE IN AGRICULTURE ENTERPRISE- A CASE STUDY
Tomasz BERBEKA, Tomasz SZUK, Tomasz WICIAK 33
MODERNIZATION OF FARMS IN LOWER SILESIA
Robert BOREK 39
AGROFORESTRY- A SUSTAINABLE LAND USE FOR THE FUTURE OF
EUROPEAN AGRICUL TlJRE
Philippe BURNY, Franyois Terrones GAVIRA, Maxime HABRAN -I/
IMPACT OF DIFFERENT SCENARIOS RELATED TO THE NEW
COMMON AGRICULTURAL POLICY ON FARM INCOME IN WALLONIA
Philippe BURNY, J'vlaxime HABRAN, Frmwois Ten·ones GAVIRA -15
THE COIVIMON AGRICULTURAL POLICY TOWARDS 2020
Philippe BURNY, Frederic DEBODE -19
DEVELOPMENT OF ORGANIC FARMING IN WALLONIA: PAST, PRESENT AND PERSPECTIVES
Malgorzata BZOWSKA-BAKALARZ, Michal PNIAK, rvtartin BAGAR, 53 Andrzej WILCZANSKI
BIOLOGICAL CROP PROTECTION USING AU TOGYRO-MOUNTED SPRAYING SYSTEMS
Maria Lisa CLODOVEO, Simone PASCUZZI, 57
Giacomo SCARASCIA MUGNOZZA, Riccardo AMIRANTE
APPLICABILITY OF EXPERIENCE FROM LABORATORY SCALE EXPE RIMENTS TO DEVELOP A MORE SUSTAINABLE VIRGIN OLIVE OIL
INDlJSTRIAL PLANT
Renata CZECZKO 65
INFLUENCE OF AGROECOLOGICAL FACTORS ON THE BIOLOGICAL VALUE OF SELECTED VEGETABLE SPECIES
Artur GODYN, Ryszard I-IOLOWNICKI, Grzegorz DORUCI-IOWSKI, 6~
Waldemar SWIECHOWSKI
THE COMPARISON OF THE NOZZLE INSPECTION METHODS: NOZZLE FLOW VS. SPRAY TRANSVERSE DISTRIBUTION- THE METHODOLOGY AND THE FIRST RESULTS
r "llntemational Sciem!fic s:n11posium
'Turm i\laclrineJ:v and Pmcesses ,\/wragement in s·ustainab/e .·lgricuftw;e", l.ubfin. f'oland. 2013
APPROPRIATE MECHANICAL HARVESTING SYSTEMS
FOR DIFFERENT TYPES OF OLIVE ORCHARDS
.·lrlindo .·I L.\IUD.-1
School !!{.-lgricullllre. Pu~vtechnic lnstitllfe (!t" Bragwrra - .\/oumain Research Centre
(('/A 10) Campus de Stu .. ·lpu/6nia -.·lpartaclo 1 17 2 5301-855 /Jraganra. POIUI iG.-1 L
e-mail: ac}(t'a·iph.pt
Keywords: olive harvesting. mechanical harvesting
I. Introduction
In the last decades olive growers spent a substantial part of their gross return to face high costs of manually cultural practices. due to shortage of
manpower.
Olive crop is in a critical situation due to low product price and high production costs.
In order to face the problem it is mandatory to increase competitiveness on
the global market reducing costs and improving fruit quality. Low
mechanization level penalizes the sector.
Olive harvesting mechanization systems allow achieving these goals
[Amirante. Tamborino 20121: costs - reducing manpower needs and quality - better work rates make possible to harvest in the optimal harvest timing.
For mechanical harvesting, different types of olive orchards must be
considered: (a) traditional ( < 150 trees per hectare). (b) high density olive orchards (300 to 400 trees per hectare) and (c) hedgerow olive orchards (I 000 to 2000 trees per hectare). For each olive orchard type, an appropriate
harvesting system is required.
2. Material and methods
2.1 Traditional olive orchard.~·
First experiments took place in Northeast of P011ugal (Tnis-os-Montes) in
Verdeal. Cobran<;osa and Madura! cultivars and in the South of the country (Aientejo) mainly with Galega and Picual cultivars.
Three treatments were compared: trunk shakers mounted on the front
loader of a tractor vvas used to detach olives, collected by manually moved canvas (system I) or by mechanical rolling canvas (system 11) or by an
inverted umbrella (system Ill) mounted on the front loader of a tractor (combined with the shaker) [A lrneida, 2007a].
Trees with large canopies (volume superior than I 00 m3 I 200 m3 and
trunk perimeter superior than 2 rn I 3.5 m) are not suitable for trunk shakers. So other experiments took place in Northeast of Portugal (Tnis-os-Montes) in Yerdeal, Cobranyosa and Madura! cultivars to evaluate the
performance and operational conditions of a spike rotor able to turn around
rt lntemational Sciem!fic s:nnposium
"Farm illachineJ:v a!l(l Processes ;\lanageme/11 in Sustai11able Agriculture". Luh/in. Poland. 2013
its axle providing the brushing action to detach olives [Aimeida, 2007b].
This equipment work in conjunction with hand held shakers concentrated in
lower branches.
Trees are harvested one by one in this type of olive orchard.
2.2 High density olive orchards
Experiments took place in Northeast and South of Portugal mainly with. Cobranyosa and Picual cultivars. Specific mechanical rolling canvas
equipment has been designed to collect olives detached by trunk shakers.
Trees are harvested one by one.
2.3 Hedgerow olive orchards
This kind of olive orchard is becoming usual in some olive producers
regions. Observations in order to evaluate equipment performance and
operational conditions took place in central region of Portugal.
An over row equipment is an appropriate equipment. Olives are detached
and collected simultaneously row by row, not tree by tree.
3. Results
3.1 Traditional olive orchards
In this type of olive orchards field tests show a performance of 40 to 70
trees per hour (Fig. I) is easily achieved [Aimeida. 2007a], considering the
harvesting systems using a trunk shaker. Trunk shakers can detach 80% to
90% of olives produced [Michelakis, 2002].
100 90 80 70 :; 60 0 .s= ..._ "' so "' "' >=. 40 30 20 10 0
-1
·-Sote 1 Site 2 Site 3 Site 4 Site 5 Sole 6 Site 7 SiteS Site 9 Site 10 Site 11
Cl System I
System 11
•sostem 111
Figure I. Harvesting systems using trunk shakers in traditional orchards.
2./
11/lllemational Scientific Svmposium
''Farm Machillely and Processes Alanagemem i11 SusWi11able :lgriculture". Lublin. l'oland. ]f) 13
30 25 20
s
15 0 ..<:: '";;;-CV 10 CV.=
5 -0[
__
_
_j]
r- 1-- - - f--. 1-- I~ 1- I~ 1 2 3 4 5 6 7 8 9 10 11 SitesFigure 2. Spike rotor work rates
- Big canopies
For trees with a canopy and trunk not suitable for shakers. a spike rotor is
a useful equipment, despite the lower performance - 12 to 25 trees per hour [Aimeida, 2007b ], but this equipment usually detaches I 00% of the olive production (Fig. 2).
In slopes special trajectories to move the harvesting equipment inside olive orchards are necessary to minimize the risk of accidents. These
solutions are necessary for a safe work, but can jeopardize the equipment
performance.
Work rates in slopes are lower than in olive orchards in tlat areas. In these field trials, in average, System I work rate have a reduction of 36%; System 11 work rate have a reduction of 26%; System Ill work rate have a reduction of20% (Fig. 3). 70 60 50 .... :J 0 40 ...c: ... VI • Flat area • Slopes 15%-25% Q) 30 Q) .... 1-20 10 0
System I System 11 System Ill
Figure 3. Average work rate results in traditional orchards according slopes
I 'llntem(l(ional Sciemijic .\l'lnposium
"Farm Machiner1· (11/(1 Processes .\lanagement in Sustainable Agriculture". Luhlin. Poland 2013
3.2 High densi~p olive orclumls
The reduced space between trees along lines does not allow the inver1ed umbrella work or a satisfactory work of conventional mechanical rolling canvas.
A specific mechanical rolling canvas has been designed to collect olives
detached by trunk shakers. The performance achieved is 40 to 50 trees per
hour [Peya, 2008].
3.3 Hedgerow olive orchards
In this kind of olive orchards. harvesting is a continuous work, row by
row.
Olives arc harvested and collected simultaneously. using an overrow
equipment. In this case. expected performance is 3 to 3.5 hours per hectare.
4. Conclusions
4.1 Traditional olive orchards
Experiments and their evaluation show that the most suitable system is the
trunk shaker (to detach olives) combined with the inverted umbrella (to collect detached olives) [Aimeida. 2007a]. Despite the performance is not the
best. it needs the minimum of manpower and the costs by production
harvested are lower.
The system using the spike rotor in conjunction with hand shakers may be
regarded as a useful tool tor olive harvesting of trees with large canopies
(volume between I 00 1113 and 200 1113 and the trunk diameter between 2 m
and 3.5 m), bearing in mind that values close to 100% of detachment can be
reached and that for such trees trunk shakers are inadequate. However, to
make operational costs competitive it is important to improve work organization and above all to increase olive production on these traditional
olive orchards. In the former aspect, the increase in the number of hand held
shakers concentrated in lower branches should be envisaged in the near
future.
Some of these old traditional olive orchards with autochthonous cultivars
with large canopies are able to produce high quality olive oil, factor of a
great impor1ance in a so competitive market. 4.2 High density olive orchards
In this case the most suitable harvesting system includes a trunk shaker vvith the specific mechanical rolling canvas referred. The pertonnance can be greatly improved if two rows are harvested simultaneously, using one trunk
shaker and two mechanical rolling canvas.
In these two types of olives orchards -traditional olive orchards and high density olive orchards. trees are harvest one by one - the most important factor affecting pertormance is the operational time to move equipment from
I 1/lllematiuna/ Scienti/iL' .\)'lllposium
"Farm ,\fadtinet:v a/1{//'rocesses Managf.'lllf.'ll/ in Sustainable .·lgriculture". Lublin. f'uland. ]0/3
one tree to the next. In order to get a better performance a good trafticabil ity
conditions for equipment is needed. This objective can be achieved by an
adequate soil management that reduces the soil water content in harvesting
season.
4.3 Hedgerow olive orchards
The continuous harvesting system with an overrow equipment is by now
the recommended procedure. This harvesting system requires a tree below a
certain height, width, and with trunk access or clearance below the canopy
for the fruit catching frame. It is not been fully demonstrated that the
topping, hedging and hand pruning required to maintain the adequate tree
size will produce annual economic crops [Ferguson, 2006].
5. References
[I] Almeida, Arlindo; Peya. Jose; Pinheiro, A nacleto; Oias. Ant6nio; Santos. Luis S.S. dos; Reynolds. Domingos; Lopes, Joao. 2007a. Pelj(mnance of three meclulllical
hmTesting systemsfor o/ires in Portugal. 35th International Symposium on
Agricultural Engineering. Opatija. Actual Tasks on Agricultural Engineering: 461-466.
(1] Almeida, Arlindo; Peya, Jose; Pinheiro, Anacleto; Dias, Ant6nio. 2007b. Performance ofthe "Oii-Picker" olive harvester in Tnls-os-Montes region of Portugal. CIOSTA Congress: Advances in labour and machinery management for a profitable agriculture and forestry. Nitra: 44-51.
[3] Amirante, P ., Tamborino, A. 0/ire l!mTesting .~vstems ill High Density Orclwrdv. Acta Horticulturae n° 949: 351-358.
[4J Ferguson, Louise. 2006. 7i·el1(lv in Olive lfmwstillg ill Trellds ill olive.fi'uit hwul/ing
pn!l·ivus to its illdustrialtramformation. Grasas y Aceites, 57 (I): 9-I 5.
[5] Michelakis, J, 2002. Olive Orclwrd1· . .\lanagement: .·ldvallces and Problems. Acta
Horticularc n° 586: 239-245.
[6] Pcya, Jose; Almeida, Arlindo; Pinheiro. Anacleto; Dias, Ant6nio; Santos, Luis S.S.dos;
Lopes, Joao; Reynolds, Domingos. 2008. ,\ leclwnical hmw.wing of.JOO trees per
hectare olil·e orclwrdv based on a rolling cwn·as prototype. Acta Horticulturae !1° 79: 363-367.