SOP for Safe and Judicious Use of Pesticides Specific to ...
Transcript of SOP for Safe and Judicious Use of Pesticides Specific to ...
SOP for Safe and Judicious Use of
Pesticides Specific to Tricyclazole and
Buprofezin
Government of India
Ministry of Agriculture & Farmers Welfare
Directorate of Plant Protection, Quarantine & Storage
N.H.IV., Faridabad-121001 (May-2021)
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CONTENTS
Sl. No. Topic Page No.
1. Introduction 2
2. Background 2
3. Role and Responsibilities of Stakeholders 3
3.1 DAC&FW 3
3.2 State Department of Agriculture 3
3.3 ICAR/State Agriculture Universities/ Krishi Vigyan Kendra 4
3.4 APEDA 5
3.5 Export Inspection Council (EIC) 5
3.6 Central Integrated Pest Management Centre (CIPMC) 6
3.7 All India Rice Exporters Association(AIREA)/Exporters 6
3.8 Farmers 7
4. Pests occurrence with Paddy growth stages and recommended control measures
7
5. Use of Tricyclazole and Buprofezin in Agriculture 12
6. Strategies for safe and judicious use of pesticide 13
6.1 Implementation of IPM Practices (from seed to harvest) 13
6.1.1 Cultural practices 13
6.1.2 Mechanical practices 14
6.1.3 Biological practices 14
6.1.4 Weed management practices 14
6.1.5 Nematode management practices 15
6.2 Chemical control measures 15
7. Implementation of Good Agricultural Practices (GAP) 15
8. Selection of correct pesticide based on field situation 15
9. Selection of alternate pesticides including combination pesticides 16
10. Awareness among pesticide dealers and farmers 16
11. Harmonizing the Package of Practices by all concerned stake holders specifically w.r.t. application/use of pesticide
16
12. Need of pesticide Residue Testing 17
13. Guidelines for safe use of pesticides 17
Annexure-I: List of Members of Sub-Committee 20
Annexure-II A: Disease-wise approved fungicides on rice 21
Annexure-II B: Pest-wise approved Insecticides on rice 29
Annexure-III: Economic Threshold Level (ETL) of major pests of rice crop stage-wise
40
Annexure-IV: Approved uses of Tricyclazole and its combinations as per Major Uses of Pesticides
41
Annexure-V: Approved uses of Buprofezin and its combinations as per Major Uses of Pesticides
42
Annexure-VI: Major parasites and predators of insect pests of rice 44
Glossary 46
References 47
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1. Introduction
Pesticides are essential agricultural inputs for protecting crop plants and
increasing agricultural production. The average pesticide consumption in India is
around 0.381 kg a.i./ha as compared to world average of 0.5 kg a.i./ha. Indiscriminate
use of pesticides poses risk to human health in the form of pesticide residues in food
produce and also hampers the export of agri-commodities. Therefore, there is need of
safe and judicious use of pesticides. Need based and judicious use of pesticides would
result in residue free produce and also improve and expand export potential of
agricultural produce.
2. Background
A Draft Notification (S.O.531(E) was published on 03.02.2020 proposing
prohibition of Tricyclazole and Buprofezin and inviting objections/suggestions from
all stakeholders. It was mentioned in draft notification that use of Tricyclazole and
Buprofezin involves health hazards to human beings, animals and the environment. A
large number of objections/ suggestions were received from Industry, Associations
and farmers etc. The objections/suggestions were examined by a sub-committee
constituted by Registration Committee (RC) under the Chairmanship of Dr. S.K.
Khurana, Consultant (Toxicology) CIB&RC, Faridabad.
The sub-committee observed that Buprofezin is approved in various Asian
Countries including China, Japan and other developed countries like U.S., Australia
and EU countries. Basmati Rice is grown and exported from Pakistan also where both
the molecules are registered. Tricyclazole is registered in 14 Asian countries,
however, the current status in EU is “Not Approved” which is due to insufficient data
on safety. The sub-committee could not find any issue related to safety of these
molecules except for change in the value of MRL by European Union.
The issue was further deliberated in the DAC&FW whereupon it was decided
that due to non-availability of scientific data to revisit the usefulness, efficacy and
safety of the Tricyclazole and Buprofezin and before taking a final view on draft
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Notification, a SOP /Advisory may be developed on safe and judicious use of
pesticides specific to use of Tricyclazole and Buprofezin, which may be implemented
effectively so that issue of residue on crops may be addressed.
In view of the above, DAC&FW has directed DPPQS to constitute a sub-
committee for preparing a Standard Operating Procedure (SOP) on safe and judicious
use of pesticides specific to use of Tricyclazole and Buprofezin and suggest course of
action for effective implementation of the said SOP to minimize the residues on the
recommended crops.
Accordingly, a sub-committee was constituted as per the details given in
Annexure-I under the chairmanship of Plant Protection Adviser, DPPQS, Faridabad.
Tricyclazole and Buprofezin are mainly used in rice crop and their
residue in exportable rice consignments is an issue of concern. Accordingly, this
SOP has been targeted to minimize pesticide residue in rice crop.
3. Roles and Responsibilities of stakeholders
3.1 Department of Agriculture, Cooperation & Farmers Welfare (DAC&FW)
1. To coordinate and monitor with all stake holders for the effective implementation of
this SOP.
2. To advise and assist concerned authorities on the availability of the quality pesticides
and bio-pesticides.
3. To provide guidance to all stakeholders on safe and judicious use of pesticides as and
when required.
3.2 State Department of Agriculture
1. To create awareness among the farmers regarding implementation of IPM and safe
and judicious use of pesticides through extension functionaries of the state.
2. To organize training/demonstration for the farmers on production of residue free
crops.
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3. Promotion of line transplanting with maintaining the gaps after 2 to 3 meters and
green manuring.
4. To monitor occurrence of pests and diseases in the state.
5. To advise appropriate plant protection measures for control of pests and diseases
ensuring non-use of Tricyclazole and Buprofezin in Basmati rice.
6. To maintain and monitor the records on the management practices of the crop from
sowing to harvesting.
7. To ensure availability of certified seeds and IPM/GAP inputs (eg.
light/sticky/pheromone traps, tricho cards, bio-pesticides, etc.) to the farmers.
8. To ensure registration of farmers under Basmati.net for receiving latest information
and traceability.
9. To prepare and distribute crop wise package of practices in local languages for the
benefit of the farmers.
10. To monitor the pesticide dealers for the sale of approved pesticides and to ensure that
all the pesticides are being sold with label and leaflets.
11. To ensure the display of crop wise recommended pesticides by the pesticide dealers to
avoid the usages of non-label claim pesticides by the farmers.
12. To ensure that banned pesticides are not in circulation.
3.3 ICAR/State Agriculture Universities/ Krishi Vigyan Kendra
1. To create awareness among the farmers regarding implementation of IPM and safe
and judicious use of pesticides.
2. To organize training/demonstration for the state extension workers and farmers on
production of residue free crops.
3. To monitor occurrence of pests and diseases in the fields.
4. To advise appropriate plant protection measures for control of pests and diseases as
per the approved label claims.
5. To assist State Department of Agriculture for harmonizing the package of practice
w.r.t. application/safe and judicious use of pesticide.
6. Preparation of literature on identification & management of pests and diseases and
also on importance of natural enemies.
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7. Issue advisories to the extension functionaries and farmers.
8. As a long term measure, ICAR/SAU may lay emphasis on developing rice varieties
resistant to blast disease.
3.4 Agricultural & Processed Food Products Export Development Authority (APEDA)
1. To create awareness among all stakeholders.
2. Organization of workshops for all stakeholders with coordination of respective State
Agriculture Department and SAUs.
3. Facilitate exporters for pesticide residue testing at Basmati Export Development
Foundation (BEDF) lab.
4. To coordinate between all rice growing states and SAUs including Basmati.
5. To encourage the State Department of Agriculture for implementing the registration
of farmers under Basmati.net for facilitating dissemination of information to all
stakeholders.
6. To liaise with State Governments and All India Rice Exporters Association (AIREA)
for registration of farmers/ farms intended to export rice.
7. To support capacity building programmes for exporters, farmers and other stake
holders towards production of residue free crop.
8. To promote/encourage establishment/recognition of pesticide testing laboratories in
the main rice growing areas.
9. To assist/support the researchers for development of modules/ technology to resolve
the concern issues.
3.5 Export Inspection Council (EIC)
The Export Inspection Council (EIC) is the official export –certification body of India
which ensures quality and safety of products exported from India. EIC was set up by the
Government of India under Section 3 of the Export (Quality Control and Inspection) Act,
1963 to ensure sound development of export trade of India through quality control and
inspection and matters connected therewith. The role of EIC is to ensure that products
notified under the Export (Quality Control and Inspection) Act 1963 are meeting the
requirements of the importing countries in respect of their quality and safety.
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“Basmati Rice is a notified commodity and subject to quality control and inspection
prior to export in accordance with Export of Basmati Rice (Quality Control and Inspection)
Rules, 2003”. Recently Department of Commerce has entrusted EIC to carry out Quality
control for Non-basmati rice exports to EU.
1. To ensures residue free export through pre-shipment testing.
2. To create awareness among the exporters regarding country specific maximum
residue limits (MRLs) of pesticides.
3. To ensure that products intended for export are meeting the requirements of the
importing countries in respect of their quality and safety.
3.6 Central Integrated Pest Management Centre (CIPMC)
1. To create awareness among the farmers regarding implementation of IPM, safe and
judicious use of pesticides through organizing Farmers Field Schools (FFS).
2. To organize training/demonstration for the state extension functionaries and farmers
on production of residue free crops.
3. To monitor occurrence of pests and diseases in the fields.
4. To advise appropriate plant protection measures for control of pests and diseases as
per the approved label claims.
5. To organize trainings on production of bio-pesticides at village/ district level by the
farmers/ FPOs etc.
3.7 All India Rice Exporters Association (AIREA)/ Exporters
1. AIREA should create awareness among rice exporters regarding residue free export.
2. AIREA may coordinate to conduct the training programs on safe and judicious use of
pesticides with farmers in conjunction with other agencies like Basmati Export
Development Foundation (BEDF), State Department of Agriculture, SAUs/KVKs and
CIPMCs etc.
3. Exporters may be encouraged to procure the rice for export from the farmers
registered under Basmati.net
4. To provide technical support to the registered farmers so as to ensure pest and residue
free produce for export.
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5. Exporters may employ agriculture graduates for extension services with the guidance
of KVK / SAU/ BEDF to train farmers for judicious use of pesticides and fertilizers.
6. Rice producers, traders and exporters may give enough time for rice ageing (1-2
years) and export of such rice to ensure sufficient degradation of the pesticides
including Tricyclazole residue during storage.
7. The encouragement to the progressive farmers in terms of bonus for residue free
production.
3.8 Farmers
1. To approach State Department of Agriculture for registration of their farms under
Basmati.net
2. To maintain status of pests and diseases in the registered farms on fortnightly basis
along with the record of the control measures/ plant protection measures undertaken
from sowing to harvesting.
3. To follow the advice from State Department of Agriculture, SAUs/KVKs, CIPMCs
or technical support from exporter on pest management practices, approved pesticides
along with waiting period etc.
4. To adopt integrated pest management practices and use only recommended pesticides
when necessary.
5. Farmers should purchase the pesticides from Licensed Pesticide dealers after the
advice from extension functionaries and insist for cash memo with details of batch
No. of the pesticide.
4. Pests occurrence with Paddy growth stages and recommended
control measures
Pest IPM practices
Nursery stage
Gall midge Ploughing under the ratoon of previous crops can reduce infestation.
Control of grassy weeds and wild rice (alternate hosts) from
surrounding areas can reduce gall midge incidence.
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Draining of rice fields for 5-7 days reduces midge populations.
Planting of early and using early maturing varieties may help to avoid
high infestations.
Use moderate amounts of nitrogen and potassium fertilizers and adopt
split applications to reduce population growth rates.
Avoiding staggered planting (complete planting in an area within 3
weeks) to reduce infestation.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Stem Borer Clipping the tips of seedlings before transplanting greatly reduces the
carryover of eggs from the seedbed to the transplanted fields
Rice varieties with short stature and shorter growth duration periods
suffer less damage than long growth duration varieties.
Community-wide destruction of diapausing larvae (in stubble) through
tillage after harvest, followed by flooding, reduces stem borer
populations resulting in low incidence in the next crop.
Blast Use certified seed and follow seed treatment.
Bacterial leaf
blight (BLB)
Use certified seed and follow seed treatment. Avoid early transplanting.
Avoid excessive use of nitrogenous fertilizer. Avoid passage of water
from diseased to healthy field and select resistant varieties for sowing.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Vegetative stage
Stem borer Mass trapping of male moth by installing pheromone traps @20
traps/ha at 10 days after transplanting (Lures should be replaced 3
times after 20 days interval).
Augmentative release of eggs parasitoid Trichogramma
japonicum@50,000-100,000/ha/week for 5-6 times starting from 30
days after transplanting.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
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Leaf folder Early planting may help to avoid greater degrees of leaf damage.
Wider spacing (22.5 x 20 cm and 30 x 20 cm) and low usage of
nitrogenous fertilizers decreases leaf damage.
Highly fertilized plots seem to attract females for oviposition.
Therefore, it is advisable to avoid over-fertilization.
Higher damages will occur in shaded areas. Therefore, remove the
causes of shading within the field.
Use of rope for dislodging the larvae of leaf folder before panicle
initiation stage
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Brown Plant
Hopper
(BPH) and
White
Backed Plant
Hopper
(WBPH)
High dosages of nitrogenous fertilizers close spacing, and high relative
humidity increases plant hopper populations.
Balanced use of fertilizer by splitting nitrogen applications can also
reduce chances of plant hopper outbreaks.
Draining rice fields can be effective in reducing initial infestation
levels. The field should be drained for 3 - 4 days when heavy
infestations occur.
Synchronous planting (planting neighboring fields within 3 weeks) and
maintaining a rice-free period may be effective.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Gall midge Control of grassy weeds and wild rice (alternate hosts) from
surrounding area can reduce gall midge incidence.
Draining of rice fields for 5-7 days affects midge populations.
Planting of early and using early maturing varieties may help to avoid
high infestations.
Use moderate amounts of nitrogen and potassium fertilizers and adopt
split applications to reduce population growth rates.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
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Hispa Clipping and destruction of the top three-fourths of the leaves of highly
infested crops with eggs and grubs at the early vegetative stage can
suppress populations.
Regular collection of adults by sweep net and destruction suppresses
population and reduces damage.
The removal of rice ratoons and volunteer rice during the crop-free
season affects the rice hispa’s survival and multiplication of over-
wintering populations.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Caseworm Rice fields with wider hill spacing (30 x 20 cm) usually suffer less
damage from caseworm.
Draining of fields for 5-7 days’ kills caseworm larvae.
Nitrogen fertilizer use at optimal dosages and split applications reduce
the rice caseworm’s population.
Foot rot and
Bakane
Clean seeds should be used to minimize the occurrence of the diseases.
Salt water can be used to separate light weight, infected seeds from seed
lots and thereby reduce seed borne inoculums.
Seed treatment using recommended fungicides or bio fungicide
(Annexure-II).
Diseased plants should be uprooted and burnt.
Blast In case of Basmati, sowing should be completed in the first fortnight of
July.
Avoid excessive use of nitrogenous fertilizers as it increases the intensity
of the disease.
Destruction of collateral host around the field
Proper moisture should be maintained during flowering period.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
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Bacterial leaf
blight
Follow the management practices given above for BLB.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Sheath blight For management keep the bunds weed free. Avoid excessive use of
nitrogenous fertilizers.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Panicle initiation to booting
Stem borer,
Leaf folder,
BPH/WBPH
As mentioned above
Blast Follow the management practices given above for blast
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Bacterial leaf
blight
Reduce nitrogen application and apply if needed only small dose of N in
more split doses.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Sheath blight Follow the management practices given above for sheath blight.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Flowering
BPH/WBPH As mentioned above
Blast Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Use alternate of Tricyclazole at this stage.
False smut Select disease free seed for sowing.
Avoid excessive dose of nitrogen fertilizer and its late application.
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Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Sheath blight Follow the management practices given above for sheath blight.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Brown leaf
spot
As disease is seed borne, Use disease free seeds.
Removal of alternate & collateral hosts.
Growing resistant varieties
Providing proper nutrition for optimum plant growth and prevention of
water stress seem to be the most important factors in controlling brown
spot.
Use of recommended pesticide if needed, as per the details given in
Annexure-II.
Economic Threshold Level (ETL) of major pests of Rice: The use of chemical pesticide
must be avoided until the pest/disease is above ETL. The ETL of major pests of rice crop is
given in Annexure-III.
5. Use of Tricyclazole and Buprofezin in Agriculture
Tricyclazole fungicide is cost effective and widely used in several rice growing countries
including India for control of rice blast (Pyricularia oryzea). It has been observed that
sometimes farmers use this fungicide very late (after the grain formation stage) in the rice
crop. It leads to the residues of pesticide beyond the permissible Maximum Residue Limit
(MRL) in the grains after harvesting of the crop. The harvesting of early varieties of Basmati
and non-Basmati crops starts in late September and early October, respectively. The farmers
are required to stop spraying this pesticide at least 40 days before the harvesting to
avoid its residue. Approved uses of Tricyclazole is given at Annexure-IV.
Buprofezin is an Insect Growth Regulator (IGR) registered for the control of pests of rice,
cotton, and other crops/edible commodities in India and several other countries. Buprofezin
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acts by inhibiting chitin synthesis, suppressing oviposition of adults, and reducing egg-laying,
egg hatching, and inhibits insect growth & development during larval moulting, and
suppresses the population density of hoppers even in the progeny of the treated generation in
the paddy field. Approved uses of Buprofezin are given at Annexure-V.
6. Strategies for safe and judicious use of pesticide
6.1 Implementation of IPM Practices (from seed to harvest)
6.1.1 Cultural practices
Pre-Sowing
1. Field selection
2. Soil testing
3. Deep summer ploughing
4. Destruction of crop residues, weeds and trimming of bunds
5. Seed-bed preparation
6. Selection of healthy, resistant/tolerant, short duration and high yielding variety seeds
7. Seed/Seedling treatment: Brine solution (15%) by mixing 1.5 kg salt (NaCl) in 10
litres of water for soaking and treatment of seeds. Seed treatment (for diseases) with
Carbendazim 50% WP @ 2 g/kg seed or Trichoderma/Pseudomonas @ 5-10 g/kg of
seed and seedling treatment for seed or soil borne diseases.
8. Timely and synchronous sowing/transplanting operation.
9. Raising of healthy nursery.
10. Optimum plant spacing (20cm x 10cm with 2-3 seedlings per hill)
11. In BPH prone area follow skip row method of transplantation.
12. Leave 40 centimeter space after each 10 rows.
Post sowing
1. Balanced use of fertilizers
2. Proper water management
3. Timely weed control
4. Pest scouting/monitoring
5. Harvest close to ground level
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6.1.2 Mechanical practices
1. Collection and destruction of eggs, egg masses, larvae and pupae of insect pests. Stem
borer egg masses to be placed in the bamboo cage-cum-percher for trapping the
young un-parasitized caterpillars and for encouraging egg parasites.
2. Mass trapping of pest adults through light/Sex pheromone traps
3. Removal and destruction of leaf portion infested with insect pest/diseases.
4. Use of rope for dislodging leaf feeders (Larvae of leaf folders, caseworm etc).
6.1.3 Biological practices
1. Conservation of egg, larval, nymphal and pupal parasites and predators in the
field.
2. Release of laboratory/commercially produced parasites and predators.
3. Transfer of natural enemies of pests from high population fields to infested fields.
4. Pest-defender ratio of (2:1) may be useful to avoid application of pesticides.
5. List of parasite and predators is available at Annexure-VI.
6.1.4 Weeds management practices
1. Apply cyhalofop-butyl 10% EC @ 0.75-0.80 l/ha @ 18-20 days after sowing in
grassy weeds in direct seeded rice followed by one hand weeding given after 4-6
weeks.
2. Apply butachlor 50% EC @ 2.5-4 l/ha or pretilachlor 50% EC @ 1.0-1.5 l/ha or
oxadiargyl 80% WP @ 0.125 kg/ha or chlorimuron ethyl 25% WP @ 24 g a.i./ha
or metsufluron methyl 20% WG @ 20 gm/l or anilophos 2% G @ 20-25 kg/ha or
ethoxysulfuron 15% WDG @ 83.3-100 g/ha or Cinmethylin 10% EC @ 0.75-1.0
l/ha as pre-emergence within 4-6 days after transplanting.
3. Apply metsulfuron methyl 10% + chlorimuron ethyl 10% WP @ 20 g/ha or
anilophos 24% + 2, 4-D- ethyl ester 32% EC @ 1-1.5 l/ha at 3-10 days after
transplanting.
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6.1.5 Nematode management practices
A. White tip nematode (Aphalenchoides besseyi)
1. Sun drying of seeds for 6 hours for 4 days.
2. Pre-sowing of nursery bed treatment with carbofuran 3% CG @ 50000 g/ha, if
nematode population is above ETL.
B. Root knot nematode (Meloidogyne graminicola)
1. Rotation with the crops like sweet potato, sunflower, cowpea, sesamum and onion.
2. Soil application of carbofuran 3% CG @ 50000 g/ha, if nematode population is
above ETL.
6.2 Chemical control measures
Need based, judicious and safe application of pesticides are the most vital segments of
chemical control measures under the ambit of IPM. It involves developing IPM skills to play
safe with environment by proper crop health monitoring, observing ETL and conserving
natural bio-control potential before deciding in favour of use of chemical pesticides as a last
resort. The pesticides recommended for control of insect pests and diseases are given in the
Annexure II.
7. Implementation of Good Agricultural Practices (GAP)
All stakeholders specifically the extension functionaries have to ensure implementation of
GAP with special reference to cultivation of rice including IPM, integrated crop management,
awareness among farmers on safe use of Tricyclazole and Buprofezin and alternatives.
8. Selection of correct pesticide based on field situation
Before application of any pesticide, ensure that the damage to the crop is done by insect-
pests, diseases or by other abiotic factors. Damage can also be the result of other factors such
as incorrect irrigation, nutrient deficiency, poor drainage, herbicide toxicity or physical
disorder. Identify the pest and its level of infestation to select the correct control measures.
Integrated pest management practices should be used to keep the pest population below
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Economic Threshold Level (ETL). Use of pesticide should be recommended only if the pest
population is above ETL. It should be ensured that only recommended/ label claim pesticides
are used in rice in correct dose and time. Farmers must be encouraged to take expert advice
for selection of recommended pesticide.
9. Selection of alternate pesticides including combination pesticides
The farmers may be advised to use pesticides available as an alternate to Tricyclazole and
Buprofezin specifically in the later stage of rice cultivation. The details of all approved
pesticides including combination products on rice crop against various pests and diseases are
given at Annexure -II.
10. Awareness among pesticide dealers and farmers
The pesticide dealers play major role in judicious use of pesticides by the farmers, as the
farmers at times receive guidance from pesticide dealers. Therefore, the pesticide dealers and
farmers may be advised to use pesticides as per label claim (recommended dose/dilutions,
crop stage, spray intervals, maximum no. of sprays and waiting period/Pre Harvest
Interval).The recommended waiting period/pre harvest interval as mentioned in pesticide
label/leaflets should be strictly followed to minimize the pesticide residue.
11. Harmonizing the Package of Practices by all concerned stake holders
specifically w.r.t. application/use of pesticides
Rice is cultivated across various agro-climatic zones/states in India. As a result, various State
Govt./SAUs have developed their own Package of Practices for rice in their states. This has
been observed that different pesticides are recommended by different authorities depending
upon major pests and diseases in their area. However, it is important to ensure that the
pesticides recommended must have been approved by CIB&RC. The Package of Practices
should have recommended pesticides, their dose/dilutions, crop stage, spray intervals and Pre
Harvest Interval (waiting period). Hence, there is a need to use harmonized package of
practice by all concerned stakeholders.
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12. Need of Pesticide Residue Testing
Worldwide, people are exposed to pesticide residues through food intake. With a view to safe
guard the consumer from such residues, pesticide maximum residues in food are approved as
legal Maximum Residue Limits (MRLs) by the Codex Alimentarius Commission (Codex).
Besides, a country can have their own MRL w.r.t. different food commodities, if technically
justified. The pesticide residue is a matter of concern and important factor affecting export of
agri commodities including rice. Various countries have identified pesticides to be tested for
their residues and consignments having pesticide residue within the MRL are permitted for
import. The residue testing for specified pesticides w.r.t. different countries are mandatory
requirement for export. There is a need to strengthen the awareness among the farmers to
grow residue free crop and also a mechanism wherein the exporters can get the rice tested for
residues just before or immediately after harvest. Such mechanism will be beneficial for both,
the farmers (for better remuneration) and exporters (assurance for residue free consignment).
Paddy samples from different mandies/ areas may be collected for residue testing to identify
the use trend of pesticides/ residue in respective areas. This database can be used to procure
the paddy for export from safe/ low risk areas by the exporters. It will also be helpful for
planning of area specific strategies.
13. Guidelines for safe use of pesticides
There is a need to train all stakeholders such as farmers, traders, field workers for strictly
adhering to the label claim of pesticides and to educate them for safe and judicious use of
pesticides. The issue of spurious pesticides also needs to be looked into so that unwanted
chemicals do not enter rice fields.In order that the residues remain within the permissible
level, farmers must be educated and trained to adopt GAP (Good Agriculture Practices) and
use right dose, at the right time using right equipment and give enough time (PHI) allowing
pesticide to dissipate by the time of harvest.
While purchasing
1. Purchase pesticides only from registered pesticide dealers having valid License.
2. Purchase only required quantity of pesticides for single operation in a specified area.
3. See approved labels on the containers/packets of pesticides.
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4. See Batch No., Registration Number, Date of Manufacture/Expiry on the labels.
5. Purchase pesticides well packed in containers.
6. Do not purchase pesticide in bulk for whole season.
7. Never purchase expired pesticide.
8. Do not purchase pesticides whose containers are leaking/loose/ unsealed.
Storage
1. Avoid storage of pesticides in the house premises and store under lock and key.
2. Keep only in original container with intact seal.
3. Do not transfer pesticides to other container.
4. Never keep them together with food or feed/fodder.
5. Keep away from the reach of children and livestock.
6. Do not expose to sun-light or rain water.
Handling
1. Never carry/transport pesticides along with food materials. Keep pesticides separate
during transportation.
2. Avoid carrying bulk - pesticides (dusts / granules) on head, shoulders or on the back.
3. Bulk pesticides should be carried carefully to the site of application.
Precautions for Preparing Spray Solution
1. Always use clean water.
2. Use protective clothing viz., hand gloves, face masks, cap, apron, full trouser, shoes
etc. to cover whole body.
3. Always protect your nose, eyes, ears, hands, etc. from spill of spray solution.
4. Read instructions on pesticide container label carefully before use and follow the
instructions.
5. Prepare the solution as per requirement.
6. Granular pesticides should be used as such.
7. Avoid spilling of pesticides solutions while filling the spray tank.
8. Always use recommended dosage of pesticide.
9. Do not allow the pesticide/its solution to fall on any body parts.
10. Do not smell the spray tank.
11. Do not use overdose which may affect plant health and environment.
12. Do not eat, drink, smoke or chew during whole operation of pesticides.
19 | P a g e
Selection of equipment
1. Select right kind of equipment.
2. Select right sized nozzles.
3. Use separate sprayer for insecticides and weedicides.
4. Do not use leaky or defective equipment.
5. Do not blow/clean clogged nozzles with mouth. Instead use tooth brush tied with
sprayer.
Precautions for applying pesticides
1. Never apply over-dose and high concentrations than recommended.
2. Spray operation should not be conducted on hot sunny days or strong windy
condition.
3. Spray operation should be conducted in the wind direction.
4. After spray operation, sprayer and buckets should be washed with clean water using
detergent/soap.
5. Avoid the entry of animals/workers in the field immediately after spray.
6. Do not spray just before rains and immediately after the rains.
7. Emulsifiable concentrate (EC) formulations should not be used for spraying with
battery operated ULV sprayer.
8. Containers and buckets used for mixing pesticides should never be used for domestic
purpose even after thorough washing.
After Spray Operation
1. Left over spray solutions should be disposed of at safer place viz. barren isolated area.
2. Empty containers of pesticides should not be re-used and must be crushed and be
disposed off as per guidelines.
3. Wash hands and face with clean water and soap before eating/smoking.
4. On observing poisoning symptoms give the first aid and show the patient to doctor.
Also show the empty container to doctor.
5. Left over spray solution should not be drained in or near ponds or water lines etc.
*****
20 | P a g e
Annexure-I
List of Members of Sub-Committee to Prepare SOP for Safe and Judicious Use of
Pesticides Specific to Use of Tricyclazole and Buprofezin.
S.
No.
Name, Designation &
Organization
Role in Sub-
committee
Email & Contact Number
1. Dr. Ravi Prakash,
Plant Protection Adviser,
Directorate of Plant Protection
Quarantine & Storage
(DPPQ&S), Faridabad
Chairman [email protected]
98102 50206
2. Dr. Jasvir Singh,
Joint Director,
Regional Central Integrated
Pest Management Centre
(RCIPMC), Faridabad
Member-
Secretary
90135 71032
3. Sh. Sukhdev Singh,
Director,
Directorate of Agriculture &
Farmers Welfare, Near Dara
Studio, Phase-6, SAS Nagar
(Mohali), Punjab
Member [email protected]
98558 04444
4. Sh. R.P. Sihag,
Joint Director (PP),
Agriculture & Farmers
Welfare Department,
Panchkula, Haryana
Member [email protected]
94163 07523
5. Dr. N.A. Shakil,
Principal Scientist, Div. of
Agri-Chemicals, IARI,
New Delhi
Member [email protected]
98181 96164
6. Dr. D.D.K. Sharma,
Director (BEDF),
APEDA, New Delhi
Member [email protected]
9999769677
7. Mrs. Vinita Sudhanshu, DGM
APEDA, New Delhi
Member [email protected]
9167887633
8. Sh. Kiran W. Deshkar
Dy Director (Ent.)
CIB&RC, DPPQS, Faridabad
Member [email protected]
99991 29820
9. Sh. Vijay Setia
All India Rice Exporters
Association, New Delhi
Member [email protected]
8295977665
10. Sh. Anoop A. Krishnan,
Assistant Director (Technical)
Export Inspection Council
Kochi
Member [email protected]
9920914669
21 | P a g e
Annexure-II A
Disease wise Approved Fungicides on Rice
S.
No.
Name of
disease/pathogen
Name of registered
fungicide
Dosage/ha
Waiting
period (in
days) a.i. (g) Formulation
(g/ml/%)
Dilution in
water (L)
1. Brown Leaf Spot
(Helminthosporium
oryzae)
Ediphenphos 50% EC 250-300 500-600 750-1000 21
Aureofungin 46.15% w/v
SP
0.005% 500 30
Propineb70%WP 1050to 1400 g 1500to2000 g 500 Litre/
hectare
-
Hexaconzole 4% + Zineb
68% WP
720-900 1000-1250 500 34
Captan 75% WP 750gm 1000gm 750 -
Carbendazim 5% GR 0.62kg 12.5 kg - -
Carbendazim 25%+
Mancozeb 50% WS
(7.5+15) to
(8.75+17.5)
30-35 0.1
-
Azoxystrobin 16.7% +
Tricyclazole 33.30% SC
83.5 + 166.5 500 500 24
2. Blast
(Magnaporthe
oryzae)
Carpropamid27.8%SC 0.03% 0.1% 300-500
depending
upon crop
stage
-
Aureofungin 46.15% w/v
SP
0.005% 500 30
Ediphenphos 50% EC 250-300 500-600 750-1000 21
Kasugamycin 3% SL 30-50 gm 1000-1500 ml 750-1000 30
Kitazin 48% EC 0.10% or100
gram in 100ltr. Of
water
0.20% or
200ml in
200lit.of
water
As required
depending
upon crop
stage and
plant
protection
equipment
used
15
Hexaconazole 5% EC 50gm 1000 m l 500 40
Kresoxim-methyl 44.3%
SC
250gm 500 ml 500 30
Mancozeb 75% WP 1.125-1.5 kg 1.5-2kg 750Ltr. -
Picoxystrobin 22.52%
w/w SC
150 600 500 12
Pyraclostrobin 100g/l CS 100 1000 500 18
Zineb 75% WP 1.125- 1.5KG 1.5-2KG 750-1000 Lt
Azoxystrobin 16.7% +
Tricyclazole 33.30% SC
83.5 + 166.5 500 500 24
22 | P a g e
Azoxystrobin 18.2% w/w
+ Difenoconazole 11.4%
w/w SC
0.03% or 0.3 g/l 0.1% or 1 ml
/ Litre water
500 31
Hexaconazole 5.00% +
Validamycin 2.50% SC
50+25 1000 500 22
Hexaconazole 4% +
Zineb 68% WP
720-900 1000-1250 500 34
Flubendiamide 7.5% +
Kresoxim-Methyl 37.5%
SC
50 + 250 667 500 30
Kasugamycin 5% +
copper oxychloride 45%
WP
350 700 375 26
Kresoxim-methyl 40% +
Hexaconazole 8% WG
Kresoxim-methyl
200 &
Hexaconazole -
40
500 500 22
Carbendazim 50%WP 125-250 gm 250-500gm 750 (wet
slurry
treatment)
Carbendazim 1.92% +
Mancozeb 10.08% GR
240+1260 12.5 Broadcasting 46
Carbendazim12%+
Mancozeb63%WP
563gm 750gm 750lt. 57
Carbendazim 25%+
Mancozeb 50% WS
(7.5+15) to
(8.75+17.5)
30-35 0.1
-
Hexaconazole 4% +
Carbendazim 16% SC
(30+120) 750 400 - 500 40
Iprodione25%+
Carbendazim25%WP
250gm 500gm 500lt. 30
Isoprothiolane 40% EC 300 750 500- 1000 60
Propiconazole 10.7%+
Tricyclazole 34.2% SE
262.5 to 393.75 500-700 500 46
Tebuconazole25.9%m/m
EC
0.1875 kg 0.750 lit 500 10
Tebuconazole25% WG 0.1875 750 500 10
Tricyclazole 18.0% w/w
+ Tebuconazole 14.4%
w/w SC
360 (200+160) 1000 ml/ha -- 44
Tricyclazole 45% +
Hexaconazole 10% WG
225+50 500 500 23
Tricyclazole 20.4% w/w
+ Azoxystrobin 6.8%
w/w SC
300 (225+75) 1000 500 10
Picoxystrobin 6.78% +
Tricyclazole 20.33
%w/w SC
300 1000 500 29
Tricyclazole 75% WP 225- 300 gm 300- 400gm 500 30
Tebuconazole 50% +
Trifloxystrobin 25% WG
100 + 50 200 375-500 21
23 | P a g e
3. Sheath Blight
(Rhizoctonia
solani)
Carbendazim 50%WP
Aerial phase
1gm/ kg seed 2 gm/ kg seed 1Lit./10 kg
seed
(wet
slurry
treatment)
125-250 gm 250-500gm 750 (wet
slurry
treatment)
Difenoconazole25% EC 0.0125%
or12.5g/100 L
water
0.05%or50
ml/100 L
water
500 25
Flusilazole 40% EC 120g a.i./ha 300ml/ha 500 24
Hexaconazole 5% EC 50gm 1000 ml 500 40
Hexaconazole 5 % SC 0.01% (10 g/100
L water )
0.2% or
(200ml/100
L water)
As required
depending on
size of tree
and plant
protection
equipment
used
40
Pencycuron 22.9% SC 150-187.5gm 600-750ml 500 69
Thifluzamide24%SC 90gm 375 gm 500 28
Validamycin3%L 60gm 2000gm 750 There
should be
no
residues
on grains
and straw
of paddy
14 days
before
harvest
Fluxapyroxad 62.5g/l
FS + Epoxiconazole 62.5
g/L EC
78.12-93.75 625-750 500 33
Kitazin 48% EC 0.10% or100
gram in 100ltr. Of
water
0.20% or
200ml in
200lit.of
water
As required
depending
upon crop
stage and
plant
protection
equipment
used
15
Iprodione 50% WP 1.125kg 2.25kg 750 35
Propiconazole 25% EC 125gm 500gm 750 30
Tebuconazole25.9%m/m
EC
0.1875 kg 0.750 lit 500 10
Azoxystrobin 18.2% w/w
+ Difenoconazole 11.4%
w/w SC
0.03% or 0.3 g/l 0.1% or 1 ml
/ Litre water
500 31
24 | P a g e
Azoxystrobin 7.1% +
Propiconazole 11.9%
w/w SE
37.5+62.5 500 500 43
Azoxystrobin 11% +
Tebuconazole 18.3%
w/w SC
82.5+137.25 750 800 -
Azoxystrobin 16.7% +
Tricyclazole 33.30% SC
83.5 + 166.5 500 500 24
Hexaconazole 5.00% +
Validamycin 2.50% SC
50+25 1000 500 22
Hexaconazole 75 % WG 50 66.7 500 30
Kresoxim-methyl 44.3%
SC
250gm 500 ml 500 30
Iprodione25%+
Carbendazim25%WP
250gm 500gm 500lt. 30
Hexaconazole 4% +
Zineb 68% WP
720-900 1000-1250 500 34
Hexaconazole 4% +
Carbendazim 16% SC
(30+120) 750 400 - 500 40
Flubendiamide 3.5% +
Hexaconazole 5% WG
Flubendiamide35
&
Hexaconazole50
1000 500 30
Flubendiamide 7.5% +
Kresoxim-Methyl 37.5%
SC
50 + 250 667 500 30
Kresoxim-methyl 40% +
Hexaconazole 8% WG
Kresoxim-methyl
200 &
Hexaconazole -
40
500 500 22
Picoxystrobin 7.05% +
Propiconazole 11.7% SC
200 1000 500 24
Propiconazole 13.9% +
Difenoconazole 13.9%
EC
0.02% - 0.03% (0.07-0.1%)
0.7-1.0ml/L
500 46
Tebuconazole 50% +
Trifloxystrobin 25% WG
100 + 50 200 375-500 21
Carbendazim 1.92% +
Mancozeb 10.08% GR
240+1260 12.5 Broadcasting 46
Propiconazole 10.7%+
Tricyclazole 34.2% SE
262.5 to 393.75 500-700 500 46
Carbendazim 25%+
Mancozeb 50% WS
(7.5+15) to
(8.75+17.5)
30-35 0.1
-
Tricyclazole 20.4% w/w
+ Azoxystrobin 6.8%
w/w SC
300 (225+75) 1000 500 10
Tricyclazole 45% +
Hexaconazole 10% WG
225+50 500 500 23
Tricyclazole 18.0% w/w
+ Tebuconazole 14.4%
w/w SC
360 (200+160) 1000 ml/ha -- 44
25 | P a g e
Carbendazim 25 %+
Flusilazole 12.5% SE
300-360 800- 960 500 54
4. False Smut
(Ustilaginoidea
virens)
Copper Hydroxide
53.8% DF
525 1500 500 10
Copper Hydroxide 77%
WP
1000gm 2000gm 750
Fluopyram 17.7% w/w +
Tebuconazole 17.7%
w/w SC
Fluopyram110
+Tebconazole110
550 g/ha 500 22
Tricyclazole 20.4% w/w
+ Azoxystrobin 6.8%
w/w SC
300 (225+75) 1000 500 10
Tricyclazole 18.0% w/w
+ Tebuconazole 14.4%
w/w SC
360 (200+160) 1000 ml/ha -- 44
Picoxystrobin 7.05% +
Propiconazole 11.7% SC
200 1000 500 24
5. Dirty Panicle
(Curvularia sp.)
Hexaconzole 4% + Zineb
68% WP
720-900 1000-1250 500 34
Propiconazole 13.9% +
Difenoconazole 13.9%
EC
0.02% - 0.03% (0.07-0.1%)
0.7-1.0ml/L
500 46
Fluopyram 17.7% w/w +
Tebuconazole 17.7%
w/w SC
Fluopyram110
+Tebconazole110
550 g/ha 500 22
Tebuconazole 50% +
Trifloxystrobin 25% WG
100 + 50 200 375-500 21
Tricyclazole 20.4% w/w
+ Azoxystrobin 6.8%
w/w SC
300 (225+75) 1000 500 10
Tricyclazole 18.0% w/w
+ Tebuconazole 14.4%
w/w SC
360 (200+160) 1000 ml/ha -- 44
Picoxystrobin 7.05% +
Propiconazole 11.7% SC
200 1000 500 24
6.
Bacterial Leaf
Blight
(Xanthomonas
oryzae )
Streptomycin Sulphate
90% + Tetracylin
Hydrocloride 10% SP
Copper Hydroxide
53.8% DF
525 1500 500 10
Source: CIB&RC
Note: Fungicides registered other than Tricyclazole and its combination may be considered as
alternatives against blast, false smut, sheath blight, brown spot and grain discoloration (Dirty
Panicle) diseases of rice.
26 | P a g e
Disease wise Approved Bio-Fungicides on Rice
S. No. Name of
disease/pathogens
Name of
registered bio-
fungicide
Dose/
Formulation
Dilution Waiting
period
(in days)
1. Brown Leaf Spot
(Helminthosporium
oryzae)
Trichoderma
viride 5.0%
Liquid
Formulation
(Accession no.
NAIMCC-F-
03034)
500 liter/ha Foliar spray -
Pseudomonas
fluorescens
1.5% WP (BIL-
331 Accession
No.
MTCC5866)
5 gm/kg of seed Seed Treatment: Make a thin paste
of required quantity of
Pseudomonas fluorescens 1.5% WP
with min. volume of water and coat
the seed uniformly, shades dry the
seeds just before showing.
2.5 kg /ha Soil Treatment: Mix 2.5 kg of
Pseudomonas fluorescens 1.5% WP
with 50 kg FYM or and broadcast
uniformly over hectare of land
30days after planting.
2. Blast
(Magnaporthe
oryzae)
Pseudomonas
fluorescens
0.5% WP
(TNAU Strain
Accession No.
ITCC BE 0005)
10 g/kg seed Seed Treatment: Mix the required
quantity of seeds with the required
quantity of Pseudomonas
fluorescens 0.5% WP.
-
1 kg/ha Soil Treatment: Broadcast1 kg of
Pseudomonas fluorescens 0.5% WP
by mixing with 2.5 kg organic
manure in one ha area.
1 kg/ha Foliar spray: Spray 0.5% WP @ 1
kg/ha.
Pseudomonas
fluorescens
1.5% WP (BIL-
331 Accession
No.
MTCC5866)
5 gm/kg of seed Seed Treatment: Make a thin paste
of required quantity of
Pseudomonas fluorescens 1.5% WP
with min. volume of water and coat
the seed uniformly, shades dry the
seeds just before showing.
2.5 kg /ha Soil Treatment: Mix 2.5 kg of
Pseudomonas fluorescens 1.5% WP
with 50 kg FYM or and broadcast
uniformly over hectare of land
30days after planting.
Pseudomonas
fluorescens1.5
% LF (MTCC
no. 5671, Strain
4.5 ml per kg
seed
Seed Treatment: Mix the required
quantity of seeds with the required
of Pseudomonas fluorescens 1.5%
Liquid formulation ensure uniform
27 | P a g e
designation Pf-
1)
coating, shade dry and sow.
6.0 litre per ha Foliar spray: Spray Pseudomonas
fluorescens 1.5% Liquid formulation
uniformly on the crop.
3. Sheath Blight
(Rhizoctonia solani)
Trichoderma
viride 1.0% WP
(Strain T-14 in
house isolate of
M/s Indore
Biotech Inputs
& Research (P)
Ltd., Indore)
5-10 gm/litre of
water
Foliar spray: Mix 2.5 kg of
Trichoderma viride 1.0% WP in 500
litres of water. Spray three times at
15 days interval uniformly over one
hectare land 30 days after planting
-
4. Bacterial Leaf Blight
(Xanthomonas
oryzae )
Pseudomonas
fluorescens
2.0% AS
(Strain No.
IPL/PS-01,
Accession No.
MTCC 5727)
10 ml/litre of
water
Seedling Root Dip Treatment: Mix 10 ml of Pseudomonas
fluorescens 2.0% AS in one litre of
water and dip the paddy seedling
root for 30 minutes before
transplanting followed by foliar
application after 40- 45 days of
transplantation
-
1.87-2.50
litre/ha
Foliar Spray: Suspend 1.87 to 2.50
litre of Pseudomonas
fluorescens2.0% AS in 500 litre of
water and spray uniformly after 40-
45 days of transplantation over one
hectare land. 2-3 spray are required
depending upon the disease
incidence at interval of 10-12 days
using a hand operated Knapsack
sprayer or power sprayer fitted with
a hollow cone nozzle.
Pseudomonas
fluorescens
1.5% WP (BIL-
331 Accession
No.
MTCC5866)
5 gm/kg of seed Seed Treatment: Make a thin paste
of required quantity of
Pseudomonas fluorescens1.5% WP
with min. volume of water and coat
the seed uniformly; shades dry the
seeds just before showing.
2.5 kg /ha Soil Treatment: Mix 2.5 kg of
Pseudomonas fluorescens 1.5% WP
with 50 kg FYM or and broadcast
uniformly over hectare of land
30days after planting.
Bacillus subtilis
2.0% AS
(Strain No.
IPL/BS-09,
Accession No.
MTCC 5728)
10 ml/litre of
water
Seedling Root Dip Treatment: mix
10ml of Bacillus subtilis 2.0% AS in
one litre of water and dip the paddy
seedling root for 30 minutes before
transplanting followed by foliar
application.
28 | P a g e
1.87-2.50
litre/ha
Foliar Spray: Suspend 1.87 to 2.50
litre of Bacillus subtilis 2.0% AS in
500 litre of water and spray
uniformly after 40-45 days of
transplantation over one hectare land
2-3 spray are required depending
upon the disease incidence at
interval of 10-12 days using a hand
operated Knapsack sprayer or power
sprayer fitted with a hollow cone
nozzle.
5. Bakane /Foot rot
(Fusarium
moniliforme)
Trichoderma
harzianum
2.0% AS
(Strain No.
IPL/VT/102,
Accession No.
ITCC 6893)
30 ml/litre of
water
Seedling Root Dip Treatment: Mix
30 ml of Trichoderma harzianum
2.0% AS in one litre of water and
dip the paddy seedling root for 30
minutes before transplanting
followed by Soil treatment
2.5 litre/ha Soil Treatment: Mix 2.5 litre of
Trichoderma harzianum2.0% AS
with 100 kg of properly decomposed
FYM and broadcast uniformly over
a hectare of land prior to
transplanting. Source: CIB&RC
29 | P a g e
Annexure-II B
Pest wise Approved Insecticides on Rice
Sr.
No.
Name of
pest
Name of insecticide
registered
Dose Dilution
(Litres)
Waiting
Period (in
days) a.i.(g) Formulatio
n (g/ml)/ha
01 Stem borer Acephate 75% SP 500.0-750.0 666 - 1000 300-500 15
Acephate 97% DF 727.5 750 500 21
Acephate 95% SG 562.5 592 500 30
Benfuracarb 3% GR 1000 33000 - 20
Bifenthrin 8.8% CS 44 500 500 21
Bifenthrin 10% EC 50 500 500 21
Carbofuran 3% CG 750 25000 - -
Carbosulfan 6% GR 1000 16700 - 37
Carbosulfan 25% EC 200 – 250 800 – 1000 500 – 1000 14
Cartap hydrochloride
4% GR
750 18750 - -
Cartap hydrochloride
50% SP
500 1000 500 - 1000 -
Cartap hydrochloride
75% SG
318.75 - 375 425 - 500 250 - 500 35 - 89
Chlorantraniliprole
18.5% SC
30 150 500 47
Chlorantraniliprole
0.4% GR
40 10000 - 53
Chlorpyrifos 10% GR 1000 10000 - 30
Chlorpyriphos 75%
WG
375 - 400 500 - 533 500 - 1000 15
Chlorpyrifos 20% EC 250 1250 500 - 1000 -
Chlorpyrifos 50% EC 375 - 400 750 - 800 500 - 1000 15
Chlorpyrifos 1.5% DP 375 25000 - 07
Chromafenozide 80%
WP
75 - 100 94 - 125 500 32
Deltamethrin 11% EC 15 150 500 13
Deltamethrin 1.8% EC 10 – 12.5 625 - 780 500 07
Ethofenoprox 10% EC 50 - 75 500 - 750 500 15
Fenpropathrin 30% EC 100 333 500 30
Fipronil 5% SC 50 - 75 1000 - 1500 500 32
Fipronil 0.3% GR 50 - 75 16670 -
25000
- 32
Fipronil 0.6% GR 60 10 65 -
Fipronil 80% WG 40 - 50 50 – 62.50 375 - 500 19
Flubendiamide 20%
WG
25 125 500 30
30 | P a g e
Flubendiamide 39.35%
SC
24 50 375 - 500 40
Flubendiamide 0.7%
GR
85 - 100 12.14 –
14.28
- 25
Imidacloprid 0.3% GR 0.045 15.0 kg - 26
Lambda-cyhalothrin
4.9% CS
12.5 250 500 15
Lambda-cyhalothrin
2.5% EC
12.5 500 400 - 600 15
Lambda-cyhalothrin
5% EC
12.5 250 400 - 600 15
Monocrotophos 36%
SL
500 1250 500 - 1000 -
Quinalphos 25% Gel 250 1000 500 - 1000 -
Quinalphos 5% GR 250 5000 - -
Quinalphos 20% AF 250 - 300 1250 - 1500 750 - 1000 40
Quinalphos 25% EC 325 1300 500 - 1000 40
Thiacloprid 21.7% SC 120 500 500 30
Thiacyclam Hydrogen
Oxylate
500 1000 500 30
Thiamethoxam 25%
WG
25 100 500 - 750 14
Acephate 50% +
Imidacloprid 1.8% SP
518 1000 500 -
Acetamiprid 0.4% +
Chlorpyriphos 20% EC
10 + 500 2.5 500 - 800 10
Bifenthrin 3% +
Chlorpyriphos 30% EC
24 + 240 –
30 + 300
800 – 1000 500 21
Bufrofezin 20% +
Acephate 50% WP
200 + 500 1000 500 20
Cartap Hydrochloride
50% + Buprofezin
10% WP
480 800 500 20
Cartap Hydrochloride
4% + Fipronil 0.5%
CG
675 - 900 15 - 20 - 27
Chlorpyriphos 50% +
Cypermethrin 5% EC
312 + 32 –
375 + 38
625 - 750 500 - 700 15
Flubendiamide 4% +
Buprofezin 20% SC
35 + 175 175 + 750 500 30
Flubendiamide 3.5% +
Hexaconazole 5% WG
35 + 50 1000 500 20
Flubendiamide 7.5% +
Kresoxim methyl
37.5% SC
50 + 250 667 500 30
Imidacloprid 6% + 18 + 12 300 500 10
31 | P a g e
Lambda-cyhalothrin
4% SL
Chlorantraniliprole
0.5% + Thiamethoxam
1% GR
30 + 60 6Kg/ha. - 60
02 Leaf folder Acephate 75% SP 500.0-750.0 666 - 1000 300-500 15
Acephate 97% DF 727.5 750 500 21
Acephate 95% SG 562.5 592 500 30
Benfuracarb 3% GR 1000 33000 - 20
Bifenthrin 8.8% CS 44 500 500 21
Bifenthrin 10% EC 50 500 500 21
Carbosulfan 6% GR 1000 16700 - 37
Cartap hydrochloride
4% GR
750-1000 18750-
25000
- -
Cartap hydrochloride
50% SP
500 1000 500 - 1000 -
Cartap hydrochloride
75% SG
318.75 - 375 425 - 500 250 - 500 35 - 89
Chlorantraniliprole
18.5% SC
30 150 500 47
Chlorantraniliprole
0.4% GR
40 10000 - 53
Chlorpyrifos 10% GR 1000 10000 - 30
Chlorpyrifos 20% EC 375 1875 500 - 1000 -
Chlorpyrifos 50% EC 375 - 400 750 - 800 500 - 1000 15
Chlorpyrifos 1.5% DP 375 25000 - 07
Chromafenozide 80%
WP
75 - 100 94 - 125 500 32
Deltamethrin 11% EC 15 – 18.75 150 – 187.5 500 13
Deltamethrin 1.8% EC 10 – 12.5 625 - 780 500 07
Emamectin
benzoate1.90% EC
8.08 425 500 48
Ethofenoprox 10% EC 50 - 75 500 - 750 500 15
Fenpropathrin 30% EC 100 333 500 30
Fipronil 0.6% GR 60 10 65 -
Fipronil 80% WG 40 - 50 50 – 62.50 375 - 500 19
Flubendiamide 20%
WG
25 125 500 30
Flubendiamide 39.35%
SC
24 50 375 - 500 40
Indoxacarb 15.8% EC 30 200 500 14
Lambda-cyhalothrin
4.9% CS
12.5 250 500 15
Lambda-cyhalothrin
2.5% EC
12.5 500 400 - 600 15
Lambda-cyhalothrin 12.5 250 400 - 600 15
32 | P a g e
5% EC
Monocrotophos 36%
SL
250 625 500 - 100 -
Quinalphos 25% Gel 250 1000 500 - 1000 -
Quinalphos 20% AF 250 - 300 1250 - 1500 750 - 1000 40
Quinalphos 25% EC 250 1000 500 - 1000 40
Thiocyclam hydrogen
Oxalate
500 1000 500 30
Thiamethoxam 25%
WG
25 100 500 - 750 14
Acephate 50% +
Imidacloprid 1.8% SP
518 1000 500 -
Bifenthrin 3% +
Chlorpyriphos 30% EC
24 + 240 –
30 + 300
800 – 1000 500 21
Bufrofezin 20% +
Acephate 50% WP
200 + 500 1000 500 20
Cartap Hydrochloride
50% + Buprofezin
10% WP
480 800 500 20
Cartap Hydrochloride
4% + Fipronil 0.5%
CG
675 - 900 15 - 20 - 27
Chlorpyriphos 50% +
Cypermethrin 5% EC
312 + 32 –
375 + 38
625 - 750 500 - 700 15
Deltamethrin 0.72% +
Buprofezin 5.65% EC
0.78 + 62.5 –
0.94 + 75
1250 + 1500 500 30
Flubendiamide 4% +
Buprofezin 20% SC
35 + 175 175 + 700 500 30
Flubendiamide 3.5% +
Hexaconazole 5% WG
35 + 50 1000 500 20
Flubendiamide 7.5% +
Kresoxim methyl
37.5% SC
50 + 250 667 500 30
Novaluron 5.25 +
Indoxacarb 4.5% SC
22.97 +
19.69
437.5 500 40
Chlorantraniliprole
0.5% + Thiamethoxam
1% GR
30 + 60 6Kg/ha. - 60
03 Plant
hoppers
Acephate 75% SP 500.0-750.0 666 - 1000 300-500 15
Acephate 97% DF 727.5 750 500 21
Imidacloprid 6% +
Lambda-cyhalothrin
4% SL
18 + 12 300 500 10
04 Green leaf
hoppers
Acephate 75% SP 500.0-750.0 666 - 1000 300-500 15
Acephate 97% DF 727.5 750 500 21
Bifenthrin 10% EC 50 500 500 21
33 | P a g e
Buprofezin 25% SC 200 800 400-500 05
Carbofuran 3% CG 750 25000 - -
Carbosulfan 6% GR 1000 16700 - 37
Carbosulfan 25% EC 200 – 250 800 – 1000 500 – 1000 14
Chlorpyrifos 1.5% DP 375 25000 - 07
Deltamethrin 11% EC 15 150 500 13
Ethofenoprox 10% EC 50 - 75 500 - 750 500 15
Fenobucarb (BPMC)
50% EC
250 - 750 500 - 1500 500 30
Fipronil 5% SC 50 - 75 1000 - 1500 500 32
Fipronil 0.3% GR 50 - 75 16670 -
25000
- 32
Flonicamid 50% WG 75 150 500 36
Imidacloprid 17.8% SL 20 - 25 100 - 125 500 - 700 40
Lambda-cyhalothrin
2.5% EC
12.5 500 400 - 600 15
Lambda-cyhalothrin
5% EC
12.5 250 400 - 600 15
Monocrotophos 36%
SL
250 625 500 - 100 -
Quinalphos 20% AF 250-300 1250-1500 750-1000 40
Thiamethoxam 70%
WS
105 150 Seed
dresser at
the time of
sowing
Thiamethoxam 75%
SG
113 150 Dissolve in
500 ml
water and
mix with
20 Kg.
sand/ha.
60
Thiamethoxam 25%
WG
25 100 500 - 750 14
Thiamethoxam 25%
WG
(for nursery level – soil
drenching)
500 2000 250
ml/sq.mts.
86
Acephate 50% +
Imidacloprid 1.8% SP
518 1000 500 -
Cartap Hydrochloride
50% + Buprofezin
10% WP
480 800 500
20
Fenobucarb 20% +
Buprofezin 5% SE
400 + 100 2000 500 30
Fipronil 4% +
Thiamethoxam 4% SC
44 + 44 1100 500 45
34 | P a g e
Chlorantraniliprole
0.5% + Thiamethoxam
1% GR
30 + 60 6Kg/ha. - 60
05 Brown
Plant
Hopper
(BPH)
Acephate 95% SG 562.5 592 500 30
Acetamiprid 20% SP 10 – 20 50 – 100 500 – 600 07
Benfuracarb 3% GR 1000 33000 - 20
Buprofezin 25% SC 200 800 400-500 20
Buprofezin 70% DF 175 250 500 24
Carbofuran 3% CG 750 25000 - -
Carbosulfan 25% EC 200 – 250 800 – 1000 500 – 1000 14
Chlorpyrifos 1.5% DP 375 25000 - 07
Clothianidin 50%
WDG
10 - 12 20 - 24 500 12
Dinotefuran 20% SG 30 - 40 150 - 200 500 21
Ethofenoprox 10% EC 50 - 75 500 - 750 500 15
Fenobucarb (BPMC)
50% EC
250 - 750 500 - 1500 500 30
Fipronil 5% SC 50 - 75 1000 - 1500 500 32
Fipronil 0.3% GR 50 - 75 16670 -
25000
- 32
Flonicamid 50% WG 75 150 500 36
Imidacloprid 70% WG 21 – 24.5 30 - 35 300 - 375 07
Imidacloprid 30.5%
SC
21 – 26.25 60 - 75 500 - 750 37
Imidacloprid 17.8% SL 20 - 25 100 - 125 500 - 700 40
Monocrotophos 36%
SL
500 1250 500 - 1000 -
Pymetrozine 50% WG 150 300 500 19
Quinalphos 25% Gel 250 1000 500 - 1000 -
Quinalphos 20% AF 250 - 300 1250 - 1500 750 - 1000 40
Quinalphos 25% EC 375 1500 500 - 1000 40
Quinalphos 1.5% DP 300 20000 - 40
Thiamethoxam 75%
SG
113 150 Dissolve in
500 ml
water and
mix with
20 Kg.
sand/ha.
60
Thiamethoxam 25%
WG
25 100 500 - 750 14
Acephate 50% +
Imidacloprid 1.8% SP
518 1000 500 -
Acetamiprid 0.4% +
Chlorpyriphos 20% EC
10 + 500 2.5 500 - 800 10
Buprofezin 9% +
Acephate 24% WP
54 + 144 600 500 20
35 | P a g e
Buprofezin 15% +
Acephate 35% WP
187.5 +
437.5
1250 500 20
Buprofezin 20% +
Acephate 50% WP
200 + 500 1000 500 20
Buprofezin 22% +
Fipronil 3% SC
110 + 15 500 400 - 500 32
Buprofezin 23.1% +
Fipronil 3.85% SC
173.25 +
28.88
750 500 30
Cartap Hydrochloride
50% + Buprofezin
10% WP
480 800 500 20
Deltamethrin 0.72% +
Buprofezin 5.65% EC
0.78 + 62.5 –
0.94 + 75
1250 + 1500 500 30
Ethiprol 40% +
Imidacloprid 40% WG
37.5 + 37.5 93.75 375 15
Fenobucarb 20% +
Buprofezin 5% SE
400 + 100 2000 500 30
Flubendiamide 4% +
Buprofezin 20% SC
35 + 175 175 + 750 500 30
Fipronil 4% +
Thiamethoxam 4% SC
44 + 44 1100 500 45
Chlorantraniliprole
0.5% + Thiamethoxam
1% GR
30 + 60 6Kg/ha. - 60
06 White
Backed
Plant
Hopper
(WBPH)
Buprofezin 25% SC 200 800 400-500 20
Carbosulfan 25% EC 200 – 250 800 – 1000 500 – 1000 14
Ethofenoprox 10% EC 50 - 75 500 - 750 500 15
Fipronil 5% SC 50 - 75 1000 - 1500 500 32
Fipronil 0.3% GR 50 - 75 16670 -
25000
- 32
Flonicamid 50% WG 75 150 500 36
Imidacloprid 70% WG 21 – 24.5 30 - 35 300 - 375 07
Imidacloprid 30.5%
SC
21 – 26.25 60 - 75 500 - 750 37
Imidacloprid 17.8% SL 20 - 25 100 - 125 500 - 700 40
Thiamethoxam 25%
WG
25 100 500 - 750 14
Acetamiprid 0.4% +
Chlorpyriphos 20% EC
10 + 500 2.5 500 - 800 10
Bufrofezin 15% +
Acephate 35% WP
187.5 +
437.5
1250 500 20
Cartap Hydrochloride
50% + Buprofezin
10% WP
480 800 500 20
Ethiprol 40% +
Imidacloprid 40% WG
50 + 50 125 375 15
36 | P a g e
Fipronil 4% +
Thiamethoxam 4% SC
44 + 44 1100 500 45
07 Field Rat,
Large
Bandicota
Indian
house rat,
Indian
field mouse
Bromadiolone 0.25%
CB
0.005 - - -
Bromadiolone 0.005%
RB
0.005 - - -
08 Gall midge Carbofuran 3% CG 750 25000 - -
Carbosulfan 6% GR 1000 16700 - 37
Carbosulfan 25% EC 200 – 250 800 – 1000 500 – 1000 14
Chlorpyrifos 10% GR 1000 10000 - 30
Chlorpyrifos 20% EC 250 1250 500 - 1000 -
Chlorpyrifos 1.5% DP 375 25000 - 07
Ethofenoprox 10% EC 50 - 75 500 - 750 500 15
Fipronil 5% SC 50 - 75 1000 - 1500 500 32
Fipronil 0.3% GR 50 - 75 16670 -
25000
- 32
Lambda-cyhalothrin
2.5% EC
12.5 500 400 - 600 15
Lambda-cyhalothrin
5% EC
12.5 250 400 - 600 15
Quinalphos 5% GR 250 5000 - -
Thiamethoxam 25%
WG
25 100 500 - 750 14
09 Hispa Carbofuran 3% CG 750 25000 - -
Chlorpyrifos 20% EC 250 1250 500 - 1000 -
Emamectin benzoate
1.90% EC
8.08 425 500 48
Lambda-cyhalothrin
2.5% EC
12.5 500 400 - 600 15
Lambda-cyhalothrin
5% EC
12.5 250 400 - 600 15
Malathion 5% DP 1250 25000 - -
Malathion 50% EC 575 1150 500 - 1000 -
Quinalphos 25% Gel 250 1000 500 - 1000 -
Quinalphos 25% EC 500 2000 500 - 1000 40
Imidacloprid 6% +
Lambda-cyhalothrin
4% SL
18 + 12 300 500 10
10 Whorl
maggot
Cartap hydrochloride
4% GR
750-1000 18750-
25000
- -
Chlorpyrifos 20% EC 250 1250 500 - 1000 -
Deltamethrin 11% EC 15 150 500 13
Ethofenoprox 10% EC 50 - 75 500 - 750 500 15
37 | P a g e
Fipronil 5% SC 50 - 75 1000 - 1500 500 32
Fipronil 0.3% GR 50 - 75 16670 -
25000
- 32
Thiamethoxam 25%
WG
(for nursery level – soil
drenching)
500 2000 250
ml/sq.mts.
86
11 Thrips Imidacloprid 48% FS 0.15 0.25 - -
Lambda-cyhalothrin
2.5% EC
12.5 500 400 - 600 15
Lambda-cyhalothrin
5% EC
12.5 250 400 - 600 15
Thiamethoxam 70%
WS
105 150 - Seed
dresser at
the time of
sowing
Thiamethoxam 25%
WG
25 100 500 - 750 14
Thiamethoxam 25%
WG
(for nursery level – soil
drenching)
500 2000 250
ml/sq.mts.
86
12 Nematode Carbofuran 3% CG 1500 50000 - -
13 Grasshopper Chlorpyrifos 1.5% DP 375 25000 - 07
14 Green
semilooper
Indoxacarb 15.8% EC 30 200 500 14
15 Blue leaf
hopper
Oxydemeton methyl
25% EC
125 500 500 - 1000 -
16 White leaf
hopper
Oxydemeton methyl
25% EC
250 1000 500 - 1000 -
17 Rice case
worm
Phenthoate 50% EC 500 1000 500 - 1000 -
18 Gundhi
bug
Imidacloprid 6% +
Lambda-cyhalothrin
4% SL
18 + 12 300 500 10
Source: CIB&RC
Note: Insecticides registered other than Buprofezin and its combination may be
considered as alternatives against Brown plant hopper, Green leaf hopper, White Back
Plant Hopper pests of rice.
38 | P a g e
Pest wise Approved Bio-pesticides on Rice
S.
No.
Name of
pest
Name of insecticide
registered
Dose Dilution
(lts/ha)
Waiting
Period (in
days) a.i.
(g)
Formulatio
n (g/ml) %
01 Stem
borer
Azadirachtin 0.15% EC
w/w Min. Neem Seed
Kernel Based
- 1500 - 2500 500 05
Azadirachtin 00.03% EC
Min. Neem Oil Based
- 2000 1000 05
Azadirachtin 05.00%
w/w Min. Neem Extract
Concentrates
- 200 400 05
Bacillus thuringiensis
var. kurstaki, serotype H-
39, 3B, Strain Z-52
1.5 500 - 750 - -
Bacillus thuringiensis
var. kurstaki 2.5% AS
(Spicbio-BTK AS)
- 1.5 kg 500 - 750 -
02 Leaf
folder
Azadirachtin 0.15% EC
w/w Min. Neem Seed
Kernel Based
- 1500 - 2500 500 05
Azadirachtin 05.00%
w/w Min. Neem Extract
Concentrates
- 200 400 05
Bacillus thuringiensis
var. galleriae 1593 M
sero type H 59 5b, 1.3%
flowable concentrate
Potency 1500
IU/mg
- 1 - 3 1000 -
Bacillus thuringiensis
var. kurstaki, serotype H-
39, 3B, Strain Z-52
1.5 500 - 750 - -
Bacillus thuringiensis
var. kurstaki 2.5% AS
(Spicbio-BTK AS)
- 1.5 kg 500 - 750 -
Beauveria bassiana
01.15% WP
- 2.5kg/ha. 750 - 850 -
Beauveria bassiana
1.15% WP. (1x108 /gm
min) Strain BB-ICAR-
RJP, Accession No –
MCC 1022
- 2.5kg 750 - 850 -
Beauveria bassiana
1.15% WP (Strain : BB –
- 2.5kg 600 - 750 -
39 | P a g e
5372, own R & D
Isolate)
Beauveria bassiana
1.15% WP (1x108 /gm
min) Strain ICAR,
Research Complex,
Umiam, Meghalaya,
Accession No –
NAIMCC-F-03045
- 2.5kg 750 - 850 -
Beauveria bassiana
1.15% WP (1x108 /gm
min) Accession No –
NAIMCC-F-03045,
Strain No. NBAIM,
MAU.
- 2.5kg 750
03 BPH Azadirachtin 0.15% EC
w/w Min. Neem Seed
Kernel Based
- 1500 - 2500 500 05
Azadirachtin 00.03% EC
Min. Neem Oil Based
- 2000 1000 05
Azadirachtin 05.00%
w/w Min. Neem Extract
Concentrates
- 200 400 05
Metarhizium anisopliae
1.15% WP (1x108
CFU/gm min) Accession
No. MTCC – 5173
- 2.5kg 500 -
04 WBPH Verticillium lecanii 5.0%
SC, (1x108 CFU/gm
Min.) Strain – Own Red
Isolate, Strain No. VI-
17874,
MTCC No.5716
- 3.125kg 600 -
05 Thrips Azadirachtin 0.15% EC
w/w Min. Neem Seed
Kernel Based
- 1500 - 2500 500 05
06 Leaf
roller
Azadirachtin 00.03% EC
Min. Neem Oil Based
- 2000 1000 05
Source: CIB&RC
40 | P a g e
Annexure-III
Economic Threshold Level (ETL) of Major Pests of Rice Crop Stage Wise
Crop stage Pest/Disease Economic Threshold Level (ETLs)
Nursery
Yellow stem borer 1 egg-mass/m2
Root-knot nematode 1 nematode/g soil
BLB: Kresek Phase 2-3 plants/m2
Early to late
tillering
Leaf-folder 2 Fully damaged leaves (FDL) with larva/hill
Stem borer 2 egg-mass/m2
or 10% dead heart or 1
moth/m2 or 25 moths/ trap/week
Gall midge 1 gall/m2 or 10% Silver shoot
Brown plant hopper/
WBPH
10-15 hoppers/hill
Rice hispa 2 adults or 2 dead leaf /hill
Rice caseworm 2 FDL/hill
Swarming caterpillar 1 damaged tiller/hill or 2 larvae/ m2
Foliar blast 3-5 lesions/leaf
Brown spot 2-3 spots/leaf & 2-3 infected plants/ m2
Sheath blight Lesions of 5-6 mm in length & 2-3 infected
plants/m2
Sheath-rot Lesion length 2-3 mm on sheath & 3-5
infected plants/ m2
BLB 2-3 infected leaves/m2
Tungro 1 Tungro infected plants/m2& 2 GLH/hill (in
fungus endemic areas)
Panicle initiation to
booting
Stem borers 2 egg-mass/m2 or 1 moth/m2 or 25 moths /
trap / week
Leaf-folders 2 FDL/hill
BPH/WBPH 15-20 hoppers/hill
Swarming
caterpillar/cut worm
1 damaged tiller/hill or 2 larvae/ m2
Neck blast 2-5 neck infected plants/m2
Sheath-rot 5 infected plants/m2
Flowering to milky
grain
Gundhi bug 2 bugs/hill
Source: Integrated Pest Management Package for Rice, DPPQ&S, Faridabad-2014
41 | P a g e
Annexure-IV
Approved Uses of Tricyclazole and its Combinations as per Major Uses of Pesticides
Source: CIB&RC
Crop Common name of
the disease
Dosage per ha Waiting period
from last
application to
harvest(in days)
a. i. (g) Formulation
(g/ml)
Dilution
in
water(L)
Tricyclazole 75% WP
Paddy
(Rice)
Blast 225-300
gm
300- 400gm 500 30
Azoxystrobin 16.7% + Tricyclazole 33.30% SC
Rice Sheath blight and
Blast, and brown
spot
83.5 +
166.5
500 500 24
Propiconazole 10.7% w/w + Tricyclazole 34.2% w/w SE
Paddy
(Rice)
Sheath blight, Blast 262.5 to
393.75
500-700 500 46
Tricyclazole 20.4% w/w + Azoxystrobin 6.8% w/w SC
Rice
(Paddy)
Blast, False smut,
Sheath blight and
Grain discoloration
(Dirty Panicle)
300
(225+75)
1000 500 10
Tricyclazole 45% + Hexaconazole 10% WG
Paddy
(Rice)
Blast and Sheath
blight
225+50 500 500 23
Tricyclazole 18.0% w/w + Tebuconazole 14.4% w/w SC
Rice
(Paddy)
Sheath blight, Blast,
false smut and grain
Discoloration
360
(200+160)
1000 ml/ha -- 44
Picoxystrobin 6.78% + Tricyclazole 20.33 %w/w SC
Paddy
(Rice)
Leaf Blast & Neck
Blast
300 1000 500 29
Chilli Anthracnose, Wet
rot, Powdery
mildew
300 1000 500 3
42 | P a g e
Annexure-V
Approved Uses of Buprofezin and its Combinations as per Major Uses of Pesticides
Crop Common name
of the pest
Dosage per ha Waiting period
from last
application to
harvest(in
days)
a. i. (g) Formulation
(g/ml)
Dilution
in
water(L)
Buprofezin 25.00% SC
Cotton Whitefly Aphids,
Jassids, Thrips
250.0 1000 500-750 20
Chilies Yellow Mite 75.0-150.0 300-600 500-750 05
Mango Hoppers 0.025%-
0.05%
1-2 ml/liter of
water
5-15 liter
per tree
20
Grapes Mealy bugs 250.0-375.0 1000-1500 500-1000 07
Rice Brown plant
hopper, Green
leaf hopper,
White Back Plant
Hopper
200.0 800 400-500
20
Buprofezin 70.00% DF
Okra
(Bhindi)
Jassids 200.0 286 500 05
Cotton Jassids, Whitefly 250-300 357-429 500 20
Rice Brown plant
hopper
175 250 500 24
Buprofezin 09.00%+Acephate 24.00% w/w WP
Paddy
(Rice)
Brown plant
hopper
54.0+144.0 600 500 20
Buprofezin 15.00%+Acephate 35.00% w/w WP
Cotton Jassids, Thrips&
White fly
187.5 + 437.5 1250 500 --
Okra Jassids & White
fly
112.5 + 262.5 750 500 07
Paddy
(Rice)
Brown plant
hopper, White
backed plant
hopper
187.5 + 437.5 1250 500 20
Buprofezin 20.00%+Acephate 50.00% w/w WP
Paddy
(Rice)
Stem Borer, Leaf
folder, Brown
plant hopper
200.0+500.0 1000 500 20
43 | P a g e
Cotton Thrips, Jassids,
Mealy bug
250+625 1250 500 15
Buprofezin 22.00%+Fipronil 3.00% SC
Rice
(Paddy)
Brown plant
hopper
110.0+15.0 500 400 – 500 32
Buprofezin 23.10%+Fipronil 03.85% w/w SC
Paddy
(Rice)
Brown plant
hopper
173.25+28.88 750 500 30
Cartap Hydrochloride 50.00%+Buprofezin 10.00% w/w WP
Rice Yellow stem
borer, Brown
plant hopper,
Leaf folder,
Green leaf
hopper, White
backed plant
hopper
480.0 800 500
20
Deltamethrin 00.72%+Buprofezin 05.65% w/w EC
Rice
(Paddy)
Brown plant
hopper, Leaf
folder
0.78+62.50-
0.94+75.00
1250+1500 500 30
Fenobucarb 20.00%+Buprofezin 05.00% w/w SE
Paddy
(Rice)
Brown plant
hopper, Green
leaf hopper
400.0+100.0 2000 500 30
Flubendiamide 04.00%+Buprofezin 20.00% w/w SC
Paddy
(Rice)
Yellow stem
borer, Leaf
folder, Brown
plant hopper
35.0+175.0 175+700 500 30
Source: CIB&RC
44 | P a g e
Annexure-VI
Major Parasites and Predators of Insect Pests of Rice
Natural enemy
category
Natural enemy Pest attacked and feeding potential
I. Parasitoids
1. Egg
parasitoids
Trichogramma
japonicum Egg parasitoid of yellow stem
borer (YSB)
Trichogramma chilonis Egg parasitoid of leaf folder, Case
worm, YSB etc.
Tetrastichus schoenobii Egg parasitoid of yellow and white
stem borer.
At least 3 stem borer eggs are
needed for development of each
wasp.
Telenomus rowani Egg parasitoid of yellow and white
stem borer.
A female parasitizes 20-40 eggs
and lives 2-4 days or longer if
nectar or sugar solution is
provided.
Both Tetrastichus and Telenomus
may parasitize the same egg mass
but not the same egg.
Gonatocerus spp. Egg parasitoid of leaf and plant
hoppers.
Parasitize on an average 8 eggs per
day.
Anagrus spp.
Egg parasitoids of leaf and plant
hoppers.
Parasitizes 15 to 30 eggs/day.
Oligosita spp.
Egg parasitoid of leaf and plant
hoppers.
Consume 2 to 8 eggs per day.
Copidosomopsis
nacoleiae Egg parasitoid of leaf folder.
200-300 wasps are produced from
a few eggs.
2. Larval
parasitoids
Amauromorpha accepta Larval parasitoid of yellow and
white stem borer.
Stenobracon nicevillei Larval parasitoid of leaf folder.
Cotesia flavipes Larval parasitoid of leaf folder.
Elasmus sp. Larval parasite of leaf folder.
Wasp emerges from larva or pupa.
45 | P a g e
Haplogonatopus sp
Pseudogonatopus spp. Larval parasite of leaf folder.
Wasp emerges from larva or pupa.
Bracon sp. Larval parasite of leaf folder.
Wasp emerges from larva or pupa.
3. Larval and
pupal parasitoids
Xanthopimpla
flavolineata Larval, pupal parasitoid of stem
borer
Brachymeria lasus, B.
excarinata Larval and pupal parasitoid of
Rice skipper, leaf folder and green
horned caterpillar.
Opius sp. Larval pupal parasitoid of whorl
maggot
II. Predators
4. Coccinellid
beetles
Micraspis hirashimai Preying on small hoppers, small
larvae and exposed eggs
Harmonia octamaculata Preying on small hoppers, small
larvae and exposed eggs
5. Carabid beetle Ophionea nigrofasciata Preying leaf folder larvae and
plant hoppers
6. Rove beetle Paederus fuscipes Preying leaf and plant hoppers,
eggs, and small moths
7. Spiders Pardosa
psuedoannulata,
Wolf spider
Prey stem borer and leaf folder
moths, leaf-and plant hoppers, and
whorl maggot flies.
Oxyopes javanus,
Lynx spider Prey moths of rice pests, adults of
whorl maggots, leafhoppers and
plant hoppers
Tetragnatha maxillosa,
Long-jawed spider Prey stem borer and leaf folder
moths, leaf-and plant hoppers
Argiope catenulata,
Orb spider Prey moths/adults of rice pests viz.
grasshoppers Source: Integrated Pest Management Package for Rice, DPPQ&S, Faridabad-2014
46 | P a g e
Glossary
1. AIREA: The All India Rice Exporters’ Association (AIREA) is the Apex body of Indian
Rice Exporters established in 1989.
2. APEDA: Agricultural and Processed Food Products Export Development Authority.
3. BEDF: Basmati Export Development Foundation. BEDF has been founded by Agricultural
and Processed Food Products Export Development Authority (APEDA).
4. CIB&RC: Central Insecticides Board & Registration Committee (CIBRC) under the
Directorate of Plant Protection, Quarantine & Storage, Department of Agriculture,
Cooperation& Farmers Welfare.
5. CIPMC: Central Integrated Pest Management Center.
6. Codex: Codex Alimentarius collection of food standards.
7. EIC: Export Inspection Council (EIC) is the official export –certification body of India
which ensures quality and safety of products exported from India.
8. ETL: The pest density at which some control should be exerted to prevent a pest population
from increasing further and causing economic loss.
9. Farmers Field School (FFS): FFS is a season long programme which is organized in
farmer’s field by conducting IPM field exercise once in a week. It is an effective tool to
transfer IPM technology to farmers.
10. FPO: Farmers Producer Organization.
11. GAP: Good Agricultural Practices-According to FAO GAP is defined as “collection of
principles to apply for on- farm production and post production processes resulting in safe
and healthy food and non-food agricultural products while taking into account economic,
social and environmental sustainability”
12. ICAR: The Indian Council of Agricultural Research (ICAR) is the apex body for
coordinating, guiding, and managing research and education in agriculture in the entire
country.
13. IPM: Integrated Pest Management (IPM) combines the use of biological, cultural and
chemical practices to control insect pests in agricultural production. IPM aims to suppress
pest populations below the Economic Injury Level (EIL).
14. KVK: Krishi Vigyan Kendra
15. MRL: Maximum Residues Limits
16. Pre-Harvest Interval (PHI)/Waiting period: Waiting period refers to the time gap to
observe between the last application of pesticide and the harvesting for consumption. It may
be varying from pesticide to pesticide, crop to crop and place to place dependingupon the
residual toxicity of pesticide and environmental conditions. The leaflets supplied along with
pesticides normally contain this information about different crops.
17. SAU: State Agricultural University
18. SOP:Standard Operating Procedure
47 | P a g e
References
1. Integrated Pest Management Package for Rice: DPPQ&S, Faridabad-2014
2. Basmati Dhan Utpadan ki vaigyanik taknique- Basmati Export Development
Foundation, APEDA
3. Crop Protection-TNAU Agritech Portal:
https://agritech.tnau.ac.in/crop_protection/crop_prot_crop%20diseases_cereals_rice_
main.html
4. Rice Knowledge Bank: IRRI- http://www.knowledgebank.irri.org/step-by-step-
production/growth/pests-and-diseases/diseases
5. Major uses of pesticides, CIB&RC, DPPQ&S Faridabad-
http://ppqs.gov.in/divisions/cib-rc/major-uses-of-pesticides
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