Open Access
K.S. Sayyed , K.T. Apet, K.B. Rudrappa and V.B. Bhujabal
Department of Plant Pathology, Vasantrao Naik Marathwada Krishi Vidyapeeth, Parbhani- 431402, Maharashtra, India.
J Pure Appl Microbiol. 2017;11(1):401-405
https://doi.org/10.22207/JPAM.11.1.52 | © The Author(s). 2017
Received: 09/08/2017 | Accepted: 03/10/2017 | Published: 31/03/2017
Abstract

Effective native isolates of Trichoderma spp. collected from the rhizosphere of different plant growing in the field. Twenty seven isolates of Trichoderma spp 13, T. viride (Pers.), 9, T. harzianum (Rifai), 2, T. longibrachiatum (Rifai), 1, T. koningii  (Oudem) and 2, Gliocladium virens were identified. The antagonistic potential of the isolates as evaluated through dual culture plate using three soil borne pathogens of wilt of Safflower, Chickpea and Pigeonpea respectively, T. harzianum Jalna isolate was found highly antagonistic compared to T. viride isolates as it inhibited mycelia growth of Fusarium oxysporum f .sp. carthami, F. oxysporum f .sp. ciceri and F. oxysporum f .sp. udum by 78.06%,  89.99% and 82.49 per cent respectively  after six days of in vitro incubation.

Keywords

Trichoderma spp., Rhizosphere, Biocontrol, Fusarium sp., Safflower, Pigeonpea and Chickpea.

Introduction

Trichoderma species are used as biocontrol agent in agriculture. Trichoderma, a genus of asexually reproducing saprophytic fungi, frequently present in nearly all temperate and tropical soils, decaying plant tissues and root ecosystems. The strains of Trichoderma spp. are strong opportunistic invaders, fast growing, prolific producers of spores and powerful antibiotic producers. The antagonism of Trichoderma involves several mechanisms, such as competition for nutrient antibiosis and production of fungal cell wall degrading enzymes. The mycoparasitic ability of Trichoderma species against plant pathogenic filamentous fungi allows for development of biocontrol strategies (Benitez et al., 2004).

The Fusarium spp. is one of the most important soil borne fungi which causes wilt diseases in several field crops like chickpea, pigeonpea and safflower. Yield losses in different field crops due to Fusarium are upto tune of 90 per cent (Singh and Dahiya 1973).

Materials and Methods

Sample Collection
A total of 35 samples were randomly collected from different sites in Jalna and Parbhani district from August to Sept. 2014. The soil samples were taken from a depth of 05 to 15 cm around the rhizosphere area of fruit plants, cereal, vegetable, pulses and oilseed crops.

Isolation of Trichoderma spp. from rhizospheric soils
Serial dilution technique was used to isolate the Trichoderma from the samples collected. The collected samples were air dried in shade. These samples were finely ground before serial dilutions. Trichoderma Selectve Medium (TSM) was used for isolation. Isolation was carried out under aseptic conditions of laminar air flow in aseptic condition. Isolation were carried out by serial dilution and plating method. The culture of bioagents Trichoderma spp isolated from different region was identified on the basis of morphological and cultural characteristics.

In vitro evaluation for antagonistic potential
Twenty seven Trichoderma spp isolates, thirteen T. viride (Pers.), nine T. harzianum (Rifai), two T. longibrachiatum (Rifai), one T. koningii (Oudem) and two G. virens were evaluated in vitro against Fusarium oxysporum f. sp. carthami, F. oxysporum f. sp. ciceri and F. oxysporum f. sp. udum by employing dual culture technique by Dennis and Webster (1971). Seven days old cultures of bioagents and test fungus grown on agar media were used for the study. Disc (5 mm diameter) of PDA along with culture grown of the test fungus and bioagents were cut out with sterilized cork borer. Then two cultures disc, one each of the test fungus and bioagents were placed at equidistance and exactly opposite with each other on solidified PDA medium in plates under aseptic conditions and plates were incubated at 28±2o C. plates inoculated with culture disc of test fungus were maintained and untreated control. Observations on linear mycelia of 24 hours and continued till untreated control plate was fully covered with mycelia growth of the test fungus. Per cent inhibition of the test fungus over untreated control was calculated by applying the formula given by Arora and Upadhyay (1978).

 

Per cent growth Inhibition = [(Colony Growth Control Plate – Colony Growth in intersecting plate) / Colony Growth Control Plate] × 100

After incubation radial growth was calculated by applying the formula (Vincent, 1927)

Per cent inhibition (I) = C-T/C x 100

Where,
C = Growth of test fungus in control in mm.
T = Growth of test fungus in treatment in mm.

RESULTS AND DISCUSSION

In vitro evaluation of bioagents
In vitro bioefficacy of different Trichoderma isolates against F. oxysporum f. sp. carthami.

The results (Table1) obtained on mycelial growth and inhibition of Fusarium oxysporum f. sp. carthami (Klisiewicz and Houston) with thirteen T. viride, nine T. harzianum, two T. longibrachiatum, one T. koningii, two G. virens isolates antagonists. It was observed that treatment T7 (T. harzianum) isolate obtained from Jalna strain showed highest zone of inhibition i.e. 78.06 per cent followed by T17 (T. harzianum) Parbhani strain i.e. 77.50 and T2 (T. harzianum) Jalna strain i.e. 76.66 per cent.

Table (1):
Bioefficacy of Trichoderma isolates against Fusarium oxysporum f. sp. carthami.

Treatment
Isolates
Avg. colony dia. of F. oxysporum f. sp. carthami*(mm)
Percent inhibition of mycelial growth
T1
T. viride(BDN-1)
30.50
66.10    (54.39)
T2
T. harzianum(BDN-2)
21.00
76.66    (61.11)
T3
T. harzianum(BDN-3)
24.00
73.33    (58.90)
T4
T. viride(BDN-4)
23.50
73.88    (59.26)
T5
T. harzianum(BDN-5)
32.50
63.88    (53.05)
T6
T. longibrachiatum(BDN-6)
43.75
51.38    (45.79)
T7
T. harzianum(BDN-7)
19.75
78.05    (62.06)
T8
T. koningii(JN-1)
40.75
54.71    (47.70)
T9
G. virens(JN-2)
50.75
43.61    (41.32)
T10
T. harzianum(JN-3 )
22.25
75.27    (60.17)
T11
T. viride(JN-4)
27.50
69.44    (56.43)
T12
T. harzianum(JN-5)
35.75
60.27    (50.92)
T13
T. longibrachiatum(MNT-1)
44.75
50.27    (45.15)
T14
T. viride(MNT-3)
28.75
68.05    (55.58)
T15
G. virens(MNT-4)
59.50
33.88    (35.59)
T16
T. viride(PTR-1)
26.25
70.82    (57.30)
T17
T. harzianum(PTR-2)
20.25
77.49    (61.67)
T18
T. viride(PTR-3)
26.75
70.27    (56.95)
T19
T. viride( PRT-1)
28.50
68.33    (55.75)
T20
T. viride(SLU-1)
33.00
63.33    (52.73)
T21
T. viride(SLU-2)
34.50
61.66    (51.74)
T22
T. viride(SLU-3)
35.75
60.27    (50.92)
T23
T. harzianum(PBN-2)
22.25
75.27    (60.17)
T24
T. viride(PBN-3)
31.75
64.71    (53.55)
T25
T. harzianum(PBN-4)
31.25
65.27    (53.89)
T26
T. viride( PBN-5)
25.25
71.94    (58.01)
T27
T. viride(PBN-6)
23.00
66.38    (54.56)
T28
control
90.00
90.00    (71.56)
SE±
1.38
1.22
CD at 1%
3.60
3.52

*-Mean of two replications, Dia.: Diameter
Figure in Parentheses are angular transformed values.

Results of the present study on effect of bioagents on mycelia growth of F. oxysporum f. sp. carthami are in consonance with those reported earlier by several workers. Bioagents viz., Trichoderma viride, T. harzianum, T. longibrachiatum, T.  koningii, and G. virens were reported earlier to cause significant inhibition of mycelial growth of F. oxysporum f. sp. carthami by several workers (Behare et al., 2002; Singh et al., 2003; Waghmare and Datar, 2007 and  Waghmare and Datar, 2009).

In vitro bioefficacy of different Trichoderma isolates against F. oxysporum f. sp. ciceri.

The results (Table 2) obtained on mycelial growth and inhibition of Fusarium oxysporum f. sp. ciceri (Padwick) with thirteen T. viride, nine T. harzianum, two T. longibrachiatum, one T. koningii, two G. virens isolates antagonists. It was observed that treatment T3 (T. harzianum) isolate obtained from Jalna strain showed highest zone of inhibition i.e. 89.99 per cent followed by T27 (T. viride) Parbhani strain i.e. 87.21 and T7 (T. harzianum) Jalna strain i.e. 86.94 per cent.

Table (2):
Bioefficacy of Trichoderma isolates against Fusarium oxysporum f. sp. ciceri..

Treatment
Isolates
Avg. colony dia. of F. oxysporum f. sp. ciceri.*(mm)
Percent inhibition of mycelial growth
T1
T. viride(BDN-1)
25.00
72.21 (58.18)
T2
T. harzianum(BDN-2)
13.25
85.27    (67.43)
T3
T. harzianum(BDN-3)
9.00
89.99    (71.55)
T4
T. viride(BDN-4)
12.25
86.38    (68.34)
T5
T. harzianum(BDN-5)
24.25
73.05    (58.72)
T6
T. longibrachiatum(BDN-6)
36.75
59.16    (50.27)
T7
T. harzianum(BDN-7)
11.75
86.94    (68.81)
T8
T. koningii(JN-1)
34.00
62.22    (52.07)
T9
G. virens(JN-2)
58.25
35.27    (36.43)
T10
T. harzianum(JN-3 )
13.00
85.55    (67.65)
T11
T. viride(JN-4)
14.00
84.44    (66.76)
T12
T. harzianum(JN-5)
21.75
75.82    (60.54)
T13
T. longibrachiatum(MNT-1)
35.75
60.27    (50.92)
T14
T. viride(MNT-3)
28.75
68.05    (55.58)
T15
G. virens(MNT-4)
54.50
39.71    (39.06)
T16
T. viride(PTR-1)
23.25
74.16    (59.44)
T17
T. harzianum(PTR-2)
12.50
86.10    (68.10)
T18
T. viride(PTR-3)
28.00
68.44    (55.82)
T19
T. viride( PRT-1)
23.75
73.61    (59.08)
T20
T. viride(SLU-1)
22.25
75.27    (60.17)
T21
T. viride(SLU-2)
23.50
73.88    (59.26)
T22
T. viride(SLU-3)
24.00
73.33    (58.90)
T23
T. harzianum(PBN-2)
26.50
70.55    (57.13)
T24
T. viride(PBN-3)
23.50
73.88    (59.26)
T25
T. harzianum(PBN-4)
25.25
71.33    (57.62)
T26
T. viride( PBN-5)
19.00
78.88    (62.64)
T27
T. viride(PBN-6)
11.50
87.21    (69.04)
T28
control
90.00
90.00    (71.56)
SE±
1.24
1.28
CD at 1%
3.60
3.99

*-Mean of two replications, Dia.: Diameter
Figure in Parentheses are angular transformed values.

Results of the present study on effect of bioagents on mycelia growth of F.oxysporum f. sp. ciceri are in consonance with those reported earlier by several workers. Bioagents viz., Trichoderma viride, T. harzianum, T. longibrachiatum, T. koningii, and G. virens were reported earlier to cause significant inhibition of mycelial growth of F.oxysporum f. sp. ciceri by several workers (Srivastava and Mall, 2008; Patil et al., 2010; Rajput et.al., 2010 and Yadav and Anadani, 2013).

In vitro bioefficacy of different Trichoderma isolates against F. oxysporum f. sp. udum.

The results (Table 3) obtained on mycelia growth and inhibition of Fusarium oxysporum f. sp. udum (Butler) with thirteen T. viride, nine T. harzianum, two T. longibrachiatum, one T. koningii, two G. virens isolates antagonists. It was observed that treatment T12 (T. harzianum) isolate obtained from Jalna strain showed highest zone of inhibition i.e. 82.49 per cent followed by T5 and T10 (T. harzianum) Jalna strain i.e. 81.10 and T24  (T. viride) Parbhani strain i.e. 80.83 percent.

Table (3):
Bioefficacy of Trichoderma isolates against Fusarium oxysporum f. sp. udum..

Treatment
Isolates
Avg. colony dia. of F. oxysporum f. sp. udum.*(mm)
Per cent inhibition of mycelial growth
T1
T. viride(BDN-1)
20.75
76.94   (61.30)
T2
T. harzianum(BDN-2)
20.25
77.49   (61.67)
T3
T. harzianum(BDN-3)
22.25
75.27   (60.17)
T4
T. viride(BDN-4)
22.50
74.99   (59.99)
T5
T. harzianum(BDN-5)
17.00
81.10   (64.23)
T6
T. longibrachiatum(BDN-6)
39.25
56.38   (48.66)
T7
T. harzianum(BDN-7)
22.50
74.99   (59.99)
T8
T. koningii(JN-1)
35.75
60.27   (50.92)
T9
G. virens(JN-2)
39.50
56.05   (48.47)
T10
T. harzianum(JN-3 )
17.00
81.10   (64.23)
T11
T. viride(JN-4)
23.25
74.16   (59.44)
T12
T. harzianum(JN-5)
15.75
82.49   (65.26)
T13
T. longibrachiatum(MNT-1)
40.00
55.55   (48.18)
T14
T. viride(MNT-3)
31.50
64.99   (53.72)
T15
G. virens(MNT-4)
47.00
47.77   (43.72)
T16
T. viride(PTR-1)
24.50
72.88   (58.61)
T17
T. harzianum(PTR-2)
25.75
71.38   (57.65)
T18
T. viride(PTR-3)
23.00
74.44   (59.63)
T19
T. viride( PRT-1)
24.50
72.77   (58.54)
T20
T. viride(SLU-1)
27.75
69.16   (56.26)
T21
T. viride(SLU-2)
23.00
74.44   (59.63)
T22
T. viride(SLU-3)
22.25
72.99   (58.68)
T23
T. harzianum(PBN-2)
22.75
73.21   (58.82)
T24
T. viride(PBN-3)
17.25
80.83   (64.03)
T25
T. harzianum(PBN-4)
23.50
74.16   (59.44)
T26
T. viride( PBN-5)
24.75
72.49   (58.36)
T27
T. viride(PBN-6)
18.00
79.99   (63.42)
T28
control
90.00
90.00    (71.56)
SE±
1.07
1.17
CD at 1%
3.11
3.38

*-Mean of two replications, Dia.: Diameter

Results of the present study on effect of bioagents on mycelial growth of F. oxysporum f. sp. udum are in consonance with those reported earlier by several workers. Bioagents viz., Trichoderma viride, T. harzianum, T. longibrachiatum, T. koningii, and G. virens were reported earlier to cause significant inhibition of mycelial growth of F. oxysporum f. sp. udum by several workers (Pandey and Upadhay, 2000; Patel et al., 2011; Ranjana and Chhetry, 2012).

References
  1. Behere, G.T., Tajana, V.B. and Aage, V. E. Screening of bioagents against Fusarium oxysporum f. sp. carthami, incitant of wilt disease of safflower. Pl. Dis. Res., 2002; 17(1) : 175.
  2. Benitez. T., Rincon, A. M., Limon, M. C. and Codon, A. C. Biocontrol mechanisms of Trichoderma strains. Int. Microbiol. 2004; 7 : 249-260.
  3. Pandey K. K. and Upadhyay, J. C. Microbial population from rhizosphere and non-rhyzosphere soil of Pigeonpea : Screening for resis antagonist and mode of mycoparasitism. J. Mycol. and Plant Pathol., 2000; 30(1) : 7-10.
  4. Patel, S. J, Patel R. L, Desai A. G and Patel, D. S. Biocontrol of Fusarium udum through Trichoderma. Journal of pharma and Bio sciences, 2011; (2) B.215-222.
  5. Patil, V. B. Studies on survey and management of chickpea wilt in Marathwada region. Ph. D. (Agri.) thesis submitted to VNMKV, Parbhani (India) 2010.
  6. Rajput, V. A., Konde, S. A. and Thakur, M. R. Evaluation of bioagents against chickpea wilt complex. J. soils and crop. 2010; 20 (1) : 155-158.
  7. Ranjana Devi. T and Chhetry G. N. Rhizosphere and non-rhizosphere microbial population dynamics and their effect on wilt causing pathogen og pigeonpea. Int. J. Sci. and Res. publication., 2012; 7 (2) : 1-4.
  8. Singh, B. K., Srivastava, M. and Narain, U. Evaluation of bioagents against Fusarium oxysporum f. sp. ciceri causing chickpea wilt. Farm Science Journal., 2003; 12(1) : 48-49.
  9. Singh, R. S., Singh, D. and Singh, H. V. Fungal antagonistics on chickpea wilt caused by Fusarium oxysporum f. sp. ciceri. Plant Disease Res. 1977; 12: 103-107.
  10. Srivastava, M. and Mall, T. P. Efficacy of bio-agents and organic amendments against Fusarium udum causing wilt of pigeonpea. Ann. Pl. Protec. Sci. 2008; 16(1) : 203-267.
  11. Vishwa Dhar, Mishra S. and Chaudhary R. G., Differntial efficacy of bioagent against Fusarium udum isolates. Indian Phytopath., 2006; 59(3) : 290-293.
  12. Waghmare, S. J. and Datar, V. V. Biocontrol of Fusarium oxysporum f.sp. carthami by Trichoderma spp. J. Pl. Dis. Sci ., 2009; 4(1) : 134-136.
  13. Waghmare, S. J. and Kurundkar, B. P. Efficacy of local isolates of Trichoderma spp. Against Fusarium oxysporum f. sp. ciceri J. Pl. Dis. Sci., 2007; 2(1) : 48-50.
  14. Yadav, P. M. and Aandani, V. P. Antagonistic Effect of fungal Bioagents against Fusarium oxysporum f. sp. ciceri in vitro. Trends in Biosciences., 2013; 6 (5) : 538-539.

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