FAUNISTIC COMPLEX OF PHYTONEMATOD OF POMEGRANATE AGROCENOSES OF SOUTH UZBEKISTAN

Abstract

The article provides data on the faunistic complex of phytonematodes of pomegranate agrocenoses in southern Uzbekistan. The study revealed 128 species of plant nematodes belonging to 54 genera, 30 families, 7 orders and 3 subclasses. It has been established that the species Eudorylaimus pratensis, Cephalobus persegnis, Eucephalobus oxyuroides, Chiloplacus sclerovaginatus, Ch. propinquus, Panagrolaimus rigidus, Rhabditis brevispina, Aphelenchus avenae, Aphelenchoides parietinus, A. bicaudatus, A. blasthophthorus, A. composticola, A. graminis, A. limberi, Filenchus filiformis, Tylenchorhynchus cylindricus, Quinisulcius cylindricus, T.claytoni Helicotylenchus erythrinae, Pratylenchus pratensis, P. crenatus, Meloidogyne incognita, M. javanica, and Ditylenchus dipsaci.

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Abstract

The article provides data on the faunistic complex of phytonematodes of pomegranate agrocenoses in southern Uzbekistan. The study revealed 128 species of plant nematodes belonging to 54 genera, 30 families, 7 orders and 3 subclasses. It has been established that the species Eudorylaimus pratensis, Cephalobus persegnis, Eucephalobus oxyuroides, Chiloplacus sclerovaginatus, Ch. propinquus, Panagrolaimus rigidus, Rhabditis brevispina, Aphelenchus avenae, Aphelenchoides parietinus, A. bicaudatus, A. blasthophthorus, A. composticola, A. graminis, A. limberi, Filenchus filiformis, Tylenchorhynchus cylindricus, Quinisulcius cylindricus, T.claytoni Helicotylenchus erythrinae, Pratylenchus pratensis, P. crenatus, Meloidogyne incognita, M. javanica, and Ditylenchus dipsaci.


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FAUNISTIC COMPLEX OF PHYTONEMATOD OF POMEGRANATE

AGROCENOSES OF SOUTH UZBEKISTAN

Bekmurodov Abdujabbor Sattorovich

Associate Professor, Department of

Zoology, Termez State University

abdujabborbekmurodov7@gmail.com

Turopova Mukhlisa

PhD student at Termez State University

of Engineering and Agrotechnology

turopovamuxlisa223@gmail.com

ABSTRACT:

The article provides data on the faunistic complex of phytonematodes of

pomegranate agrocenoses in southern Uzbekistan. The study revealed 128 species of plant

nematodes belonging to 54 genera, 30 families, 7 orders and 3 subclasses. It has been established

that the species Eudorylaimus pratensis, Cephalobus persegnis, Eucephalobus oxyuroides,

Chiloplacus sclerovaginatus, Ch. propinquus, Panagrolaimus rigidus, Rhabditis brevispina,

Aphelenchus avenae, Aphelenchoides parietinus, A. bicaudatus, A. blasthophthorus, A.

composticola, A. graminis, A. limberi, Filenchus filiformis, Tylenchorhynchus cylindricus,

Quinisulcius cylindricus, T.claytoni Helicotylenchus erythrinae, Pratylenchus pratensis, P.

crenatus, Meloidogyne incognita, M. javanica, and Ditylenchus dipsaci.

KEYWORDS:

Pomegranate agrocenocic, root system, rhizosphere, parasitic phytonematodes,

ectoparasitic perforators, endoparasitic perforators.

INTRODUCTION

Today in the world providing the population with high quality fruits is one of the most important

tasks. Especially, in recent years, the high harmfulness from parasitic plant nematodes of fruit

trees and shrubs has led to a decrease in productivity and deterioration in the quality of products.

Therefore, the disclosure of the diversity of phytonematodes in different agrocenoses, the

peculiarities of their distribution, the identification of parasitic species and the development of

integrated measures to combat them, acquire an important scientific and practical significance.

The pomegranate was brought to Uzbekistan two thousand years ago from Iran, Turkmenistan

and northern Afghanistan. Currently, anoraks are installed in most regions of Uzbekistan. All

parts of the pomegranate are useful for humans, and the fruit juice contains 12-20% sugar,

organic acids, vitamins and other useful substances. The pomegranate fruit consists of 38.6-

63.5% water, 27.6-51.6% peel, 7.2-22.2% grains. The fruit contains 1.6% protein, 0.1-0.7% fat,

0.2-5.2% fiber and 0.5-0.7% ash. Pomegranate juice contains 0.208-0.218% of minerals,

including manganese, phosphorus, magnesium, aluminum, silicon, chromium, nickel, calcium,

copper. In folk medicine, pomegranate peel, fruit, fruit peel and flower are used as a remedy for

diarrhea, scabies, cough, diarrhea, ringworm, gastrointestinal diseases, anemia.

The species composition, patterns of distribution of phytonematodes and substantiation of

measures to combat parasitic species of pomegranate agrocenoses on the territory of the


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Republics of Central Asia were first studied by Sh.Kh. Khurramov and A.S. Bekmuradov [1, P.

13-15; 2, - 92 p .; 3, P. 28-32; 8, P. 146-157; 9, 333 p.].

MATERIALS AND METODS

In order to study the faunistic complex of phytonematodes of pomegranate agrocenoses of

southern Uzbekistan (Surkhandarya and Kashkadarya regions) in the period from 2009-2019.

We collected phytonematodes from the root soil and root system of plants in shirkat farms from

17 districts of the Surkhandarya and Kashkadarya regions of the Republic. The studies were

carried out by the generally accepted route method [6, P. 338-369; 7, P. 3-11].
During the phytohelminthological study, 1700 samples of soil and root system of pomegranate

plants were collected and analyzed. Phytonematodes were removed by the Berman funnel

method and fixed with 4% formalin solution. Enlightenment of nematodes was carried out in a

mixture of glycerol with alcohol (1: 3), and permanent preparations on glycerol were prepared

for in-office processing of the material according to the Seinhorst method [11, P. 67-69]. Soil

samples for the presence of cyst nematodes were usually analyzed according to the standard

Decker method [4, 445 p.]. Preparations for determining the species of root-knot nematodes were

prepared according to the well-known method of E.S. Kiryanova, E.L. Krall [5, 447 p.].

RESULTS AND DISCUSSIONS

As a result of the phytohelminthological studies carried out in the pomegranate agrocenoses of

southern Uzbekistan, we found a total of 128 species of plant nematodes belonging to 54 genera,

30 families, 7 orders and 3 subclasses. In total, the detected nematodes are distributed by orders

as follows: Order Enoplida is represented by 3 species, order Mononchida-2, Dorylaimida-26,

Plectida-4, Rhabditida-30, Aphelenchida-23 and order Tylenchida-40 species.

The data obtained show that phytonematodes of pomegranate plants and its basal soil differ

significantly from each other both in species composition and in the number of individuals.

In the root soil of the pomegranate, 15622 individuals (69.3% of the total number of detected

phytonematodes) were registered, belonging to 128 species. Eudorulaimus parvus, E. pratensis,

E. similis, E. discolaimioideus, Aporcelaimellus obtusicaudatus, Tylencholaimus minimus, and

Diphtherophora communis were common pararisobionts. The dominant daisy-family species are

Cephalobus persegnis, Eucephalobus oxyuroides, Acrobeloides buetschlii, Chiloplacus

quintastriatus, Ch. sclerovaginatus and Panagrolaimus rigidus, and Rhabditis brevispina was

common among eusaprobionts.
Among the representatives of phytohelminths of nonspecific pathogenic effect, Aphelenchus

avenae, Aphelenchoides parietinus, A. blasthophthorus, A. composticola, A. graminis, A. limberi,

and Ditylenchus myceliophagus prevailed, while Xiphinema opisthohysterum, Bitylentechus

erythrinae, Pratylenchus pratensis, Meloidogyne incognita, M. javanica, Paratylenchus hamatus

and Ditylenchus dipsaci.

The main faunal complex of phytonematodes in the pomegranate root soil is represented by the

species E. pratensis, D. communis, C. persegnis, E. oxyuroides, A. buetschlii, Ch.

sclerovaginatus, P.rigidus, Rh.brevispina, A. avenae, A. parietinus, A.bicaudatus, A.


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blasthophthorus, A. composticola, A. graminis, A. limberi, Tylenchorhynchus cylindricus,

T.claytoni, Q.capitatus, H erythrinae, P. pratensis, M. javanica, D. dipsaci, and some

comparatively few species.

In the root soil of plants, according to the species composition, representatives of the order

Tylenchida dominate, containing 33.6% of all species found in the root soil. At the same time, in

terms of the number of individuals, representatives of the Aphelenchida order predominate,

which is 32.9% of all registered individuals in the root soil of pomegranate plants.

In the root system of the pomegranate, 6931 individuals (30.7% of the total number of detected

phytonematodes) were found, belonging to 73 species. Among the pararisobionts, only D.

communis is found in the root system. C. persegnis, E. oxyuroides, A. buetschlii, Ch.

quintastriatus, Ch. sclerovaginatus and P. rigidus. Among eusaprobionts, Rh. brevispina.

Among the representatives of phytohelminths of nonspecific pathogenic effect, A. avenae, A.

parietinus, A. bicaudatus, A. blasthophthorus, A. composticola, A. graminis, and A. limberi

dominate.

From the group of phytohelminths with a specific pathogenic effect, Q. capitatus, H. erythrinae,

P. pratensis, M. incognita, M. javanica, and D. dipsaci prevailed.

The main phytonematode community of the pomegranate root system is represented by the

species C. persegnis, Ch. sclerovaginatus, P. rigidus, A. avenae, A. parietinus, A. bicaudatus, A.

composticola, A. graminis, A. limberi, Q. capitatus, H. erythrinae, P. pratensis, M. incognita, M.

javanica, and D. dipsaci.

In the root system, in terms of species composition, representatives of the order Tylenchida

dominate, containing 34.5% of all detected species in the root system of plants. In terms of the

number of individuals, representatives of the Aphelenchida order prevail, which is 47.7% of all

registered individuals in the roots of pomegranate plants.

The following species dominate in the root soil and root system of pomegranate plants: C.

persegnis, Ch. sclerovaginatus, P. rigidus, Rh. brevispina, A. avenae, A. parietinus, A.bicaudatus,

A.blasthophthorus, A. composticola, A. graminis, A. limberi, Tylenchorhynchus cylindricus,

T.claytoni, Q. capitatus, H. erythrinae, P. pratensis, M. incognita, M. javanica, and D. dipsaci.

During the period of research on pomegranate agrocenoses of the territory of South Uzbekistan,

we identified 128 species of phytonematodes belonging to 3 subclasses, 7 orders, 13 suborders,

21 superfamilies, 30 families, 34 subfamilies and 54 genera. All detected phytonematodes by

orders are distributed as follows: (Table 1.).

Table 1.
Taxonomic composition of pomegranate plant nematodes (by order)

Orders

Number

of

specie

%

Number

of

individual

%

Enoplida

3

2,3

328

1,5

Mononchida

2

1,6

90

0,4

Dorylaimida

26

20,3

1526

6,8

Plectida

4

3,1

140

0,6


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597

Rhabditida

30

23,4

5294

23,5

Aphelenchida

23

18,0

7744

34,3

Tylenchida

40

31,3

7431

32,9

Total:

128

100

22553

100

Order Enoplida is represented by 2 suborders: Oncholaimina and Tripyloidina; 2 superfamilies:

Oxystominoidea and Tripyloidea; 2 families: Alaimidae and Prismatolaimidae; 2 subfamilies:

Alaiminae and Prismatolaiminae; 2 genera: Alaimus and Prismatolaimus; 3 species (which is

2.3% of the total number of species). A total of 328 specimens (1.5% of the total number of

detected plant nematodes).

The order Mononchida includes one suborder Mononchina, one superfamily Mononchoidea, one

family Múlonchulidae, one subfamily Mylonchulinae, one genus Mylonchulus and 2 species

(1.6%). A total of 90 individuals (0.4%) of phytonematodes were registered.

The order Dorylaimida is represented by 2 suborders: Dorylaimina and Diphtherophorina; 4

superfamilies: Nygolaimoidea, Dorylaimoidea, Leptonchoidea, and Diphtherophoroidea; 9

families: Nygolaimidae, Dorylaimidae, Qudsianematidae, Aporcelaimidae, Nordiidae,

Xiphinematidae, Leptonchidae, Tylencholaimidae and Diphtherophoridae; 9 subfamilies:

Nygolaiminae,

Mesodorylaiminae,

Qudsianematinae,

Aporcelaiminae,

Nordiinae,

Xiphinematinae, Leptonchinae, Tylencholaiminae and Diphtherophorinae; 11 genera:

Nygolaimus, Mesodorylaimus, Eudorylaimus, Ecumenicus, Labronema, Aporcelaimellus,

Longidorella, Xiphinema, Leptonchus, Tylencholaimus and Diphtherophora; 26 species (20.3%).

A total of 1526 individuals (6.8%) of phytonematodes were found.

Order Plectida includes one superfamily Plectoidea, one family Plectidae, one subfamily

Plectinae; 2 genera: Plectus and Proteroplectus, 4 species (3.1%), a total of 140 specimens (0.6%)

of phytonematodes.

The order Rhabditida includes 2 suborders: Cephalobina and Rhabditina: 3 superfamilies:

Cephaloboidea, Panagrolaimoidea and Rhabditoidea; 3 families: Cephalobidae, Panagrolaimidae

and Rhabditidae; 5 subfamilies: Cephalobinae, Acrobelinae, Panagrolaiminae, Peloderinae and

Rhabditinae; 10 genera: Heterocephalobus, Cephalobus, Eucephalobus, Acrobeloides,

Chiloplacus, Cervidellus, Acrobeles, Panagrolaimus, Xylorhabditis and Rhabditis; 30 species

(23.4%). A total of 5294 individuals (23.5%) of phytonematodes were identified.

The order Aphelenchida is represented by one suborder - Aphelenchina, one superfamily -

Aphelenchоidea, 3 families: Aphelenchidae, Aphelenchoididae and Seinuridae; 3 subfamilies:

Aphelenchinae, Aphelenchoidinae and Seinurinae, 3 genera: Aphelenchus, Aphelenchoides and

Seinura, 23 species (18.0%). A total of 7744 individuals (34.3%) of phytonematodes were

recorded.

The order Tylenchida detachment covers 3 suborder: Tylenchina, Criconematina and Hexatylina,

6 superfamilies: Tylenchoidea, Dolichodoroidea, Hoplolaimoidea, Criconematoidea,

Anguinoidea and Sphaerularioidea, 9 families: Tylenchidae, Dolichodoridae, Psilenchidae,

Hoplolaimidae,

Pratylenchidae,

Meloidogynidae,

Paratylenchidae,

Anguinidae

and

Sphaerulariidae, 11 subfamilies: Tylenchinae, Tylenchorhynchinae, Psilenchinae, Rotylenchinae,

Rotylenchoidinae,

Pratylenchinae,

Meloidogyninae,

Paratylenchinae,

Anguininae,

Nothotylenchinae and Sphaerulariinae, 14 genera: Tylenchus, Filenchus, Aglenchus, Bitylenchus,

Quinisulcius, Psilenchus, Rotylenchus, Helicotylenchus, Pratylenchus, Meloidogyne,


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Paratylenchus, Ditylenchus, Nothotylenchus and Prothallonema, 40 species (31.3%). A total of

7431 individuals (32.9%) of phytonematodes were registered.

CONCLUSION

The above analysis shows that among the orders in terms of species composition, the order

Tylenchida occupies the first place, accounting for 31.3% of all detected species of nematodes of

pomegranate plants. This is followed by the order Rhabditida (23.4%), followed by Dorylaimida

(20.3%) and the order Aphelenchida (18.0%).

In terms of the number of individuals among the orders, the Aphelenchida order takes the first

place - 34.3% of the total number of detected phytonematodes. Then the orders Tylenchida-

32.9%, Rhabditida-23.5% and Dorylaimida-6.8%.

In the faunistic complex, pomegranate plant nematodes are represented by 30 families. The most

diverse in terms of species composition is the family Cephalobidae, which accounts for 18.3% of

all detected species of pomegranate plant nematodes. Then Aphelenchoididae - 15.4%,

Qudsianematidae - 8.2%, Tylenchidae - 6.9 and Anguinidae - 6.2% each.

Aphelenchoididae ranks first in the number of individuals among families. It contains the main

number (35.2%) of phytonematodes, followed by Cephalobidae - 14.2%, Meloidogynidae - 6.3%,

Aphelenchidae - 5.4%, Anguinidae - 4.9% and Hoplolaimidae - 4.2% individuals.

REFERENSES

1. Bekmurodov AS, Mamarazhabova M. Agrotechnical and organizational and preventive

measures to combat parasitic phytonematodes of pomegranate agrocenoses // Bulletin of the

Khorezm Academy of Mamun. - Khorezm, 2018-1. P. 13-15.

2. Bekmurodov A.S. Phytonematodes of pomegranate agrocenoses and measures to combat

parasitic species (monograph). - Riga: LAP LAMBERT Academic Publishing, 2019 .- 92 p.

3. Bekmurodov A.S., Raxmatova M.U. Parasitic Phytonematodes Of Pomegranate

Agrocenosis Of Southern Regions Of Uzbekistan. // The American Journal of Applied

Sciences, 2020. 2(10), Р. 28-32.

4. Dekker H. Nematodes of plants and the fight against them. – M. Kolos, 1972. 445 p.

5. Kiryanova E. S., Krall E. L. Parasitic nematodes of plants and measures to control them. –

Moscow: Nauka, 1969. – Vol. 1. 447 p.

6. Paramonov A.A. Experience of ecological classification of phytonematodes // Tr. GELAN

USSR. 1952. - T.6. - P. 338-369.

7. Paramonov A. A. On some fundamental issues of phytohelminthology // In the book:

Collection of works of young phytohelminthologists. – Moscow: 1958. – P. 3-11.

8. Khurramov Sh. Kh. To the spread of parasitic nematodes of plants southern

Uzbekistan // In the book: Phytohelminthological research. – M.: 1978. – L.

Ed. Nauka, – P. 146-157.

9. Khurramov Sh. Kh. Nematodes of subtropical fruit crops of Central Asia and measures to

control them // – Tashkent. Ed., Fan. 2003. - 333 p.


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10. Minton N.A. Nematodes parasites of peanuts // Plant insect nematodes // Editedby; Nickle

W.R. New York, 1984. P. 373-394.

11. Seinhorst J.W. A rapid method for the transfer of nematodes from fixative to anhydrous

glycerin // Nematologica. 1959. V. 4, № 1. P. 67-69.

References

Bekmurodov AS, Mamarazhabova M. Agrotechnical and organizational and preventive measures to combat parasitic phytonematodes of pomegranate agrocenoses // Bulletin of the Khorezm Academy of Mamun. - Khorezm, 2018-1. P. 13-15.

Bekmurodov A.S. Phytonematodes of pomegranate agrocenoses and measures to combat parasitic species (monograph). - Riga: LAP LAMBERT Academic Publishing, 2019 .- 92 p.

Bekmurodov A.S., Raxmatova M.U. Parasitic Phytonematodes Of Pomegranate Agrocenosis Of Southern Regions Of Uzbekistan. // The American Journal of Applied Sciences, 2020. 2(10), Р. 28-32.

Dekker H. Nematodes of plants and the fight against them. – M. Kolos, 1972. 445 p.

Kiryanova E. S., Krall E. L. Parasitic nematodes of plants and measures to control them. – Moscow: Nauka, 1969. – Vol. 1. 447 p.

Paramonov A.A. Experience of ecological classification of phytonematodes // Tr. GELAN USSR. 1952. - T.6. - P. 338-369.

Paramonov A. A. On some fundamental issues of phytohelminthology // In the book: Collection of works of young phytohelminthologists. – Moscow: 1958. – P. 3-11.

Khurramov Sh. Kh. To the spread of parasitic nematodes of plants southern

Uzbekistan // In the book: Phytohelminthological research. – M.: 1978. – L.

Ed. Nauka, – P. 146-157.

Khurramov Sh. Kh. Nematodes of subtropical fruit crops of Central Asia and measures to control them // – Tashkent. Ed., Fan. 2003. - 333 p.

Minton N.A. Nematodes parasites of peanuts // Plant insect nematodes // Editedby; Nickle W.R. New York, 1984. P. 373-394.

Seinhorst J.W. A rapid method for the transfer of nematodes from fixative to anhydrous glycerin // Nematologica. 1959. V. 4, № 1. P. 67-69.