Bacillus thuringiensis Archips rosanus
Linnaeus Archips rosanus
Bacillus thuringiensis Berliner subsp kurstaki Archips rosanus
Dipping method LC50
LC90
Bt Citrus sinensis (L) Osbeck.Var novel
LC50
LC90
A. rosanus
Bt
EC B. thuringiensis
A. rosanus
B. thuringiensis a
c ab bc
Bt
Archips rosanus Bacillus thuringiensis
Laboratory and field evaluation of Bacillus thuringiensis for the control of Archips rosanus in Mazandaran province
R. PIROUZ1, M. R. DAMAVANDIAN2 and B. AMIRI BESHELI2 1- Graduated student; 2- Associate Professor; Department of Plant Protection, Faculty of Cultural Science, Sari Agricultural Sciences and Natural Resources University, Sari, Iran Abstract
In this study, the effects of Bacillus thuringiensis Berliner subsp kurstaki on the larval stages of Archips rosanus Linnaeus was investigated. Dipping method was used for bioassay in vitro LC50 and LC90 of the first and, the sum of second and third larval instars were shown to be 4480, 9010 and 4460 19040 ppm, respectively. A semi-field experiment on the two-year Washington navel (Citrus sinensis(L) Osbeck.Var novel) plants with 5 treatments and water as the control was conducted in a completely randomized design. After data analysis, LC50 and LC90 of the first and the second instars larvae of A. rosanus 96 hours after treatment were 2130, 13790 and 2840, 16840 ppm, respectively. The most suitable range of Bt concentration for controlling the first and second instars larvae was calculated 635, 4540 and 256, 5190 ppm, respectively. The field experiment was conducted in 3,000 m2 orchard of 30 hectares. In this experiment, four treatments namely, Malathion (2000 ppm), B. thuringiensis (0.5 and 1 percent) and water as a control compared with each other. The average number of alive larvae of A. rosanus on sample units trees in the first year had no significant difference, but in the second year on the trees for the control,B.
thuringiensis (0.5, 1 percent) and Malathion 7 days after treatment,were 5.466a, 2.4c, 4.4ab and 3.266bc, respectively. Overall results showed that microbial insecticide Bt has killing efficiency for the larvae in the orchards.
Key words: Archips rosanus, Bacillus thuringiensis, Bioassay, Citrus orchard.
Corresponding author: m.r.damavandian@gmail.com DOI: http://dx.doi.org/10.22092/jaep.2017.108121
Bacillus thuringiensis Archips rosanus
Archips rosanus (Linnaeus)
(Lep.: Tortricidae)
Mafi Pashakolaee et al., 2014
Aydogdu,
2014; Gu et al., 2014
Kot, 2007
Damavandian, 2007
Karaca et al., 2010
Mohamed Haggag and Mohamed, 2007
Aslam Khan, 2012
Bacillus thuringiensis Berliner Shikano
and Cory, 2014
Vatandoost, 2013 B. thuringiensis
Talaei-Hassanloei et al., 2014
AliNiazee, 1974 Bt
A. rosanus
Spodoptera exigua Hubner
B. thuringiensis var. kurstaki (Aramideh et al., 2006)
B. thuringiensis var. thuringiensis
B. thuringiensis var. kurstaki Spodoptera frugiperda Smith
(Knaak et al., 2010) B. thuringiensis var. kurstaki Helicoverpa armigera Hubner
(Abedi et al., 2011)
B. thuringiensis var. kurstaki Spodoptera exigua
Banna et al., 2012)
B. thuringiensis subsp kurstaki A. rosanus
Citrus sinensis(L) Osbeck.Var novel
A. rosanus A. rosanus
Dipping method
Bt A. rosanus P/PROBAN
Van Arc, 1983
Finney, 1971
.
: Bt
A. rosanus
Bacillus thuringiensis Archips rosanus
EC
B. thuringiensis subsp kurstaki
Bt
EC
Bt Bt
SAS
Bt
A. rosanus
A. rosanus
Bt
LC50
Bt
Bt LC90 Bt
A. rosanus
B. thuringiensis
A. rosanus
LC50 LC90
Bt
Archips rosanus
Bacillus thuringiensis
Table 1. The results of laboratory bioassay of L1, L2 and L3 of Archips rosanus treated with the different concentrations of Bacillus thuringiensis Larval stage The used dose
(ppm)
The predicted mortality
(%) (± SE)
L1
(3 days after treatment)
4480 50 11150
9010 90 34030
10290 95 41120
12700 99 54550
15400 99.9 69700
L2 and L3 (6 days after treatment)
4660 50 43470
19040 90 271170
23120 95 337830
30760 99 463060
39340 99.9 603610
Bacillus thuringiensis Archips rosanus
P 0.05
P 0.05
P 0.05 LC50
LC90
Bt
LC90
LC90
LC50
LC90
Bt
LC90
Bt
Bt
Bt
B.t
B.t B.t
A. rosanus P 0.05
B.t
B.t B.t
Bt
B.t B.t
Bt
p
B.t
Archips rosanus
Bacillus thuringiensis
Table 2. The mean mortality percentage (±SE) of L1, L2 and L3 of Archips rosanus treated with the different concentrations of Bacillus thuringiensis Larval stage Dose (ppm)
Mean mortality percentage (±SE) 48
(hr) after treatment
72 (hr) after treatment
96 (hr) after treatment
L1
2000 8.8±2.2a 18.2±5.3a 49.1±5.1a
5000 13.3±4.1ab 31.07±6.01ab 61.06±4.8a
8000 18.05±2.5bc 39.2±5.2b 74.7±5.04b
11000 22.7±0.5c 48.9±9.2bc 83.09±3.01bc
14000 31.6±3.8d 59.9±5.1c 94.1±3.6c
L2
2000 10±3.1a 22.8±7.1a 46.1±4.05a
5000 14.2±3.9a 31.7±2.8a 55.2±6.5a
8000 18±5.8ab 44.6±3.8b 72.2±5.4b
11000 24.4±2.3bc 53.1±2.6bc 76.6±3.5b
14000 30.4±4.2c 59.3±4.4c 81.1±3.2b
Mean with the same letters in mortality column are not significantly different
LC50
LC90
Bacillus thuringiensis Archips rosanus
Table 3.The LC50 and LC90 calculated for biopesticide, Bacillus thuringiensis on L1 and L2 of Archips rosanus
Larval stage Time (hr) after treatment LC50 (ppm)
(95%CI)
LC90 (ppm) (95%CI)
L1
48 21120
(15140 101790)
39540 (25330 247370)
72 11230
(9100 14980)
23390 (40490 18130)
96 2130
(635 4540)
13790 (10380 28120)
L2
48
72 10370
(8330 13700)
25610 (19670 42710)
96 2840
(256 5190)
16840 (13360 26200)
Bacillus thuringiensis Archips rosanus
Archips rosanus Bt
Table 4. The mean comparisons of number of alive larvae of Archips rosanus at three treatments (1% Bt, malathion and control) by Duncan test at different sampling times (first year)
Treatment Mean number of alive larvae (%mortality) 7d after treatment 14d after treatment
Control 2.068±0.03a (0) 0.332±0.001a (0)
Malathion 2.334±0.02a (32.99) 0.132±0.003a (53.14) B.t 1.8±0.04a (17.59) 0.534±0.004a (35.20) Mean with the same letters in mortality column are not significantly different
Bt Bt
Table 5. The mean comparisons of four treatments (1%Bt, 0.5% Bt, malathion and control) by Duncan test at different sampling times (second year) Treatment
Mean number of alive larvae (%mortality) After treatment
3 5 7 10 12 14
Control 6.066±0.07a (0)
6.334±0.05a (0)
5.466±0.05a (0)
6.734±0.07a (0)
6.8±0.06a (0)
8.866±0.05a (0) Malathion 1.00±0.02c
(82.69)
1.666±0.02b (72.39)
2.4±0.06c (53.9)
2.466±0.03b (61.56)
1.866±0.03b (71.2)
4.798±0.08b (26.64) 0.5% B.t 2.798±0.03b
(56.78)
2.668±0.02b (60.52)
4.4±0.04ab (24.55)
3.132±0.03b (56.4)
2.536±0.04b (5.05)
5.4±0.04b (26.28) 1% B.t 2.534±0.02bc
(56.15)
2.666±0.03b (55.82)
3.266±0.05bc (32.28)
2.134±0.02b (66.74)
2.202±0.05b (66.01)
3.4±0.04c (48.02) Mean with the same letters in mortality column are not significantly different
Bt Bt
Table 6. The mean comparisons of four treatments (1% Bt, 0.5% Bt, malathion and control) by Duncan test at sampling dates (21, 29 and 35 days after treatment) (sampling unit = 50 cm sprout)
Time (days) after treatment Treatment Mean
21
Control 25.60±3.5a
0.5% B.t 18.798±1.7b
1% B.t 11.132±2.3c
Malathion 10.532±3.1c
29
Control 22.932±3.8a
0.5% B.t 18.734±2.4a
1% B.t 14.066±3.2b
Malathion 9.932±1.9b
35
Control 14.466±2.5a
0.5% B.t 10.2±3.1b
1% B.t 6.066±2.2c
Malathion 3.532±0.9c
Bt
A. rosanus
Yezza and Tyagi (2006) Bt B.t
Hyphantria cunea Durry (Saruhan et al., 2014)
LC50
LC90
Vatandoost (2013) Bt
Ennomus
qurecinaria (Haufnagel) LC50 LC90
A. rosanus
Ennomus qurecinaria Bt
Ferro and Lopez
(1995) Javvi et al. (2005) LC50
Bt
Aramideh et al. (2006)
B.t
Knaak et al. (2010) B. thuringiensis thuringiensis
B. thuringiensis kurstaki Spodoptera frugiperda
Bt Khalil Arya et al., 1998
Bt
Mashhadi Jafarloo and Danyali, 1998
Boulton (2003)
Bt
Bt
B.thuringiensis var Kurstaki S. exigua (Hübner)
LC50 LC90
El-Banna et al., 2012)
Bt
Karimzadeh Esfahani et al.,
2012
LC50
A. rosanus
Bacillus thuringiensis Archips rosanus
A.rosanus
Bt
Bt
AliNiazee, 1974
Bt
Bt Bt
Bt
Bt
Bt Bt
Ferrari and Trevisan, 1978
Bt Vatandoost, 2013 .
Bt
Bt
Mascarenhas and Luttrell,
1997 Bt
Yezza and
Tyagi, 2006; Ibrahim et al., 2010
B. thuringiensis A. rosanus
Bt A. rosanus
Bt Bt
A. rosanus
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