JP2011231123A - Use of neonicodinoids on transgenic plant - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a method of controlling pests with nitroimino- or nitroguanidino-compounds.SOLUTION: A pestical composition including a nitroimino- or nitroguanidino- compound in free form or in agrochemically useful salt form and at least one auxiliary is applied to the pests or their environment, in particular to the crop plant itself. Pests in and on transgenic crops of useful plants, such as, for example, in crops of maize, cereals, soya beans, tomatoes, cotton, potatoes, rice and mustard are controlled with the nitroimino- or nitroguanidino-compound, especially with thiamethoxam.

Description

  The present invention relates to a method for controlling pests with nitroimino or nitroguanidino compounds (especially thiamethoxam); more particularly, the pests within and on transgenic plants of useful plants are nitroimino. Alternatively, the present invention relates to a novel method of controlling with a nitroguanidino compound.

  Certain pest control methods have been proposed in the literature.

  However, these methods are not fully satisfactory in the field of pest control, and as such, to control and fight against pests, particularly those of the order of insects and Acarina. There is a need to provide further methods to protect plants, especially crop plants.

  This object is achieved by providing the method of the present invention according to the present invention.

  Thus, the present invention is a method for controlling pests in crops of useful plants for transformation, such as in crops of corn, cereals, soybeans, tomatoes, cotton, potatoes, rice and mustard, for example in free form or A pesticidal composition comprising a nitroimino or nitroguanidino compound, particularly thiamethoxam, imidacloprid, Ti-435 or thiacloprid, and at least one auxiliary in the form of an agrochemically useful salt. To a method characterized in that it is applied to the pests or their environment, in particular the crop plant itself; to the use of the composition and to the propagation material of transformed plants treated therewith.

  Surprisingly, for example containing one or more genes that express an active ingredient, such as agrochemicals, in particular insecticides, acaricides, nematicides or fungicidally, or herbicides That the use of nitroimino or nitroguanidino compounds to control pests against useful plants of transformation that are tolerant to or resistant to fungi attack has a synergistic effect, Now it turns out. The use of nitroimino or nitroguanidino compounds in combination with transformed plants exceeds the additive effects expected in principle against pests to be controlled, and thus the action of nitroimino or nitroguanidino compounds and Extending the range of activity principles expressed by transformed plants is very surprising, especially in two respects:

In particular, within the scope of the present invention, the agrochemical activity of a nitroimino or nitroguanidino compound alone, such that the agrochemical activity of the nitroimino or nitroguanidino compound in combination with the effect expressed by the useful plant of transformation is generally predictable. It was surprisingly found that there is a synergistic effect as well as additive in comparing the activity with the activity of the transformed crop plant alone. However, the term “synergistic” is in no way to be understood as being limited to pesticidal activity in this context, and the term is a comparison between a nitroimino or nitroguanidino compound alone and a useful transformed plant alone. In connection with other advantageous properties of the process according to the invention. Examples of such advantageous properties that may be mentioned are: expansion of the agrochemical spectrum of action on other pests, eg resistant strains; reduction of the rate of application of nitroimino or nitroguanidino compounds, or nitroimino or nitro Sufficient control of pests using the composition according to the invention, even at application rates that are completely ineffective with guanidino compounds alone or with useful transformed plants alone; improved crop safety; more than nutrients or oils etc. High content, better fiber quality, improved shelf life, reduced content of toxic products such as mycotoxins, reduced content of residues or any unsuitable ingredients Or improved product quality, such as better digestibility; improved tolerance to unfavorable temperature, droughts or water salinity; nutrients Improved assimilation rates such as uptake, water uptake and photosynthesis; modified leaf area , reduced vegetative growth, increased yield, favorable seed shape / seed thickness or germination Advantageous crop properties such as modified colonization by humic or epiphytic plants, reduced senescence, improved phytoalexin production, accelerated ripening, increased flower set, reduced culling Falling and shattering, better attraction to beneficial and predators, increased pollination, reduced attraction to birds; or other benefits known to those skilled in the art.

  Nitroimino or nitroguanidino compounds such as thiamethoxam (5- (2-chlorothiazol-5-ylmethyl) -3-methyl-4-nitroimino-perhydro-1,3,5-oxadiazine) are EP-A-O'580 ' No. 553.

  Within the scope of the present invention, the formula known from “The Pesticide Manual”, 10th edition, (1991), The British Crop Protection Council (London), page 591.

Of imidacloprid is also preferred;
The formula known from European Patent Publication (EP-A) 235'725,

Also preferred is thiacloprid;
Furthermore, the formulas known from European Patent Publication No. 376'279,

  Ti-435 (Clotiamidin) is also preferred.

  Agrochemically compatible nitroimino or nitroguanidino compound salts include, for example, acid addition salts of inorganic and organic acids, especially hydrochloric acid, hydrobromic acid, sulfuric acid, nitric acid, perchloric acid, phosphoric acid, formic acid , Acetic acid, trifluoroacetic acid, oxalic acid, malonic acid, toluenesulfonic acid or benzoic acid. Preferred within the scope of the invention are compositions known per se that contain thiamethoxam and imidacloprid in the free form, in particular thiamethoxam, as active ingredients.

  The transformed plants used according to the invention are, for example, those obtainable from, for example, Bacillus thuringiensis strains known from vertebrate producing invertebrates, in particular arthropoda. Has been transformed by recombinant DNA technology so that it can synthesize a selectively acting poison; or known from plants such as lectins; or can express herbicide or fungicidal resistance. Plants or their breeding materials. Examples of such poisons, or transformed plants capable of synthesizing such poisons are for example European Patent Publication No. 0 374 753, International Publication No. WO 93/07278, WO 95/34656, European Patent Publication 0 427 529 and European Patent Publication No. 451 878, which are hereby incorporated by reference.

Methods for generating such transformed plants are well known to those skilled in the art and are described, for example, in the publications mentioned above.
Poisons that can be expressed by such transformed plants have, for example, insecticidal properties, and toxins such as proteins expressed by transformed plants, such as Bacillus cereus protein or Bacillus poppylia D. (popliae) protein; or Bacillus thuringiensis endotoxin (B. t.); For example, CrylA (a), CryIA (b), CryIA (c), CryIIA, CryIIIA, CryIIIB2, or CytA; VIP1; VIP2; VIP3 etc .; or, for example, bacterial insecticidal proteins that colonize nematodes such as Photorhabdus species such as Photorhabdus luminescens, Xenorhabdus nematophilus or Xenorhabdus species; trypsin inhibitors, serine protease inhibitors, patatin, Cystatin, papain Proteinase inhibitors such as ricin; ribosin inactivating protein (RIP) such as ricin, corn RIP, abrin, luffin, saporin or bryodin; pea lectin, barley lectin or Plant lectins such as snowdrop lectins; or agglutinins; poisons produced by animals such as scorpion venom, spider venom, wasp venom and other insect-specific neurotoxins; 3-hydroxysteroid oxidase, ecdysteroid UDP-glycosyl Transferase, cholesterol oxidase, ecdysone inhibitor, HMG-COA reductase, ion channel blockers such as sodium and calcium, juvenile hormone esterase, diuretic hormone receptor, Chill Ben synthase, bi benzyl synthase, including steroid metabolism enzymes such as chitinases and glucanases.

  Examples of known transformed plants encoding one or more genes encoding insecticide resistance and expressing one or more toxins are: KnockOut® (corn), YieldGard® (corn), NuCOTN 33B® (cotton), Bollgard®, NewLeaf® (potato), NatureGard® and Protecta®.

The following table shows transformations that are tolerant to targets and principles, pests, mainly insects, ticks, nematodes, viruses, bacteria and diseases, or tolerant to specific herbicides or herbicide types Includes additional examples of other crop phenotypes.
Table A1: Crop: Corn
Effected target or <Crop phenotype / tolerance subject>
One or more expression principles ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol (Isoxaflutol) or
Acid dioxygenase (HPP, such as Isoxachlortol)
D) Soxazoles, mesotrione
Or a sulcotrione
Lions
Phosphinotritin (thrici phosphinotritin)
n) Acetyltransferase
Ase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialav
Os (Bialaphos)
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
Nitrilase (Nitrilase) bromoxynil (Bromoxynil) and Rokishini
3,5-dihalo-4-hydride such as loxinyl
Roxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulfose
- Hosufoshikimi acid sinter door (sulfosate)
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Phenopylate, oxadiazoles
, Other

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Herbicides such as chitok xenobiotics such as P450 SU1 and sulfonylureas
ROHM P450
Dimboa biosynthesis (Bx1 gene) Helminthosporium turcicum, Rhopalosiphum
maydi, Diplodia maydis, Ostrinia nubi
lalis, lepidoptera.
CMIII (small bass eg Fusarium, alteraria, sclerotina
Plant pathogens such as corn seed peptide
Corn-SAFP (Zeematifusarium , alteraria, sclerotina, rhizoc
Zeamatin) Plant pathogens such as tonia, chaetomium, phycomyces
body
Hml gene Cochliobulus
Chitinase plant pathogen
Glucanase plant pathogen
Coat protein maize dwarf mosaic virus, maize chloroti
c dwarf virus and other viruses
Bacillus thuringiensis Lepidoptera, Coleoptera, Diptera, Nematodes, eg os
Suto poison, VIP 3, Bacillus trinia nubilalis, heliothis zea, Awayoto
Cereus poison, Photorabdus your window larvae, for example, spodoptera frugiperda, co
And Xenorhabdus venom rnrootworms, sesamia species, black beetles,
asian corn borer, weevil
3-hydroxysteroids lepidoptera, coleoptera, diptera, nematodes, eg os
Oxidase trinia nubilalis, heliothis zea, Awayoto
Cormorant larvae, for example, spopodoptera frugiperda, corn
rootworms, sesamia species, black beetles, as
ian corn borer, weevil
Peroxidase lepidoptera, coleoptera, diptera, nematodes, eg os
trinia nubilalis, heliothis zea, awayoto
Cormorant larvae, for example, spopodoptera frugiperda, corn
rootworms, sesamia species, black beetles, as
ian corn borer, weevil

Implementation target or one or more expression <subject phenotype / tolerant subject>
Principle ───────────────────────────────────
Leucine aminopeptidase Lepidoptera, Coleoptera, Diptera, Nematodes, eg os
Inhibitor (LAPI), etc. trinia nubilalis, heliothis zea, Awayoto
Aminopeptidase zein human c larvae example of, Spodoptera frugiperda, corn
Bitter rootworms, sesamia species, black beetles, as
ian corn borer, weevil
Limonene synthase corn rootworm
Lectins Lepidoptera, Coleoptera, Diptera, Nematodes, eg os
trinia nubilalis, heliothis zea, awayoto
Cormorant larvae, for example, spopodoptera frugiperda, corn
rootworms, sesamia species, black beetles, as
ian corn borer, weevil
Cystatin, patatin, Vie weevils, corn rootworm
Luciferin
And protease such as CPTI
Inhibitor
Ribosome inactivating protein Lepidoptera, Coleoptera, Diptera, Nematodes, eg os
trinia nubilalis, heliothis zea, awayoto
Cormorant larvae, for example, spopodoptera frugiperda, corn
rootworms, sesamia species, black beetles, as
ian corn borer, weevil
Corn 5C9 Polypep Lepidoptera, Coleoptera, Diptera, Nematodes, eg os
Plastid trinia nubilalis, heliothis zea, Awayoto
Cormorant larvae, for example, spopodoptera frugiperda, corn
rootworms, sesamia species, black beetles, as
ian corn borer, weevil
HMG-CoA reductase Lepidoptera, Coleoptera, Diptera, Nematodes, eg os
trinia nubilalis, heliothis zea, awayoto
Cormorant larvae, for example, spopodoptem frugiperda, corn r
ootworms, sesamia species, black beetles, asia
n corn borer, weevil

Table A2: Crop wheat
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
Herbicides such as chitok xenobiotics such as P450 SU1 and sulfonylureas
ROHM P450
Antifungal poly, eg plant diseases such as septoria and fusarioum
Peptide AlyAFP active substance
Glucose oxidase, for example plant diseases such as Fusarium and septoria
Active ingredient
Pyrrolnitrin synthesis genes, for example, plant diseases such as Fusarium and septoria
Active ingredient
Serine / threonine kinases eg Fusarium, septoria and other diseases
Plant pathogens
Hypersensitivity response attraction (elicit eg, Fusarium, septoria and other diseases)
ing) Polypeptide plant pathogens
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Chitinase plant pathogen
Glucanase plant pathogen
Viruses such as double-stranded ribonuclease BYDV and MSMV
Viruses such as coat proteins BYDV and MSMV
Bacillus thuringiensis Lepidoptera, Coleoptera, Diptera, Nematodes,
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-Hydroxysteroids Lepidoptera, Coleoptera, Diptera, Nematodes
Xidase
Peroxidase Lepidoptera, Coleoptera, Diptera, Nematodes
Leucine aminopeptidase Lepidoptera, Coleoptera, Diptera, Nematodes,
Aminopeps such as inhibitors
Thidase inhibitor
Lectins Lepidoptera, Coleoptera, Diptera, Nematodes, Aphids
(Aphids)
Cystatin, patatin, lepidoptera, coleoptera, diptera, nematodes, aphids
Such as luciferin, CPTI
Protease inhibitor
Ribosome-inactivating protein Lepidoptera, Coleoptera, Diptera, Nematodes, Aphids
HMG-CoA reductase Lepidoptera, Coleoptera, Diptera, Nematodes, eg os
trinia nubilalis, heliothis zea, awayoto
Cormorant larvae, for example, spopodoptera frugiperda, corn
rootworms, sesamia species, black beetles, as
ian corn borer, weevil

Table A3: Crop barley
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
Herbicides such as chitok xenobiotics such as P450 SU1 and sulfonylureas
ROHM P450
Antimicrobial polypeptide Aly, for example plant diseases such as septoria and fusarioum
AFP body

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Glucose oxidase, for example plant diseases such as Fusarium and septoria
Active ingredient
Pyrrolnitrin synthesis genes, for example, plant diseases such as Fusarium and septoria
Active ingredient
Serine / threonine kinases eg Fusarium, septoria and other diseases
Plant pathogens
Hypersensitivity response attraction (elicit eg, Fusarium, septoria and other diseases)
ing) Polypeptide plant pathogens
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Chitinase plant pathogen
Glucanase plant pathogen
Viruses such as double-stranded ribonuclease BYDV and MSMV
Viruses such as coat proteins BYDV and MSMV
Bacillus thuringiensis Lepidoptera, Coleoptera, Diptera, Nematodes,
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroids lepidoptera, coleoptera, diptera, nematodes,
Xidase
Peroxidase Lepidoptera, Coleoptera, Diptera, Nematodes
Leucine aminopeptidase Lepidoptera, Coleoptera, Diptera, Nematodes,
Aminopeps such as inhibitors
Thidase inhibitor
Lectins Lepidoptera, Coleoptera, Diptera, Nematodes, Aphids
Cystatin, patatin, lepidoptera, coleoptera, diptera, nematodes, aphids
Such as luciferin, CPTI
Protease inhibitor
Ribosome-inactivating protein Lepidoptera, Coleoptera, Diptera, Nematodes, Aphids
HMG-CoA reductase Lepidoptera, Coleoptera, Diptera, Nematodes, Aphids

Table A4: Crop rice
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
Herbicides such as chitok xenobiotics such as P450 SU1 and sulfonylureas
ROHM P450
Antibacterial polypeptide Aly plant pathogen
AFP
Glucose oxidase plant pathogen
Pyrrolnitrin synthesis gene plant pathogen
Serine / threonine kinases eg Fusarium, septoria and other diseases
of
Phenylalanine ammonia bacterial leaf blight, induction
Plant pathogens such as lyase (PAL) inducible rice blast

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Plant diseases such as phytoalexin bacterial soot disease, rice blast
Active ingredient
Plant diseases such as B-1,3-glucanase bacterial bacterial soot disease, rice blast
Antisense original
Plant diseases such as receptor kinase bacterial soot disease, rice blast
Active ingredient
Hypersensitive response-induced polypep plant pathogen
Chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Plant diseases such as chitinase bacterial soot disease and rice blast
Active ingredient
Glucanase plant pathogen
Viruses such as double-stranded ribonuclease BYDV and MSMV
Viruses such as coat proteins BYDV and MSMV
Bacillus thuringiensis, for example, lepidopters such as stemborer, rice water
Scan poison, VIP 3, Coleoptera such as Bacillus Umushi, Diptera, brown rice hoppe
Cereus venom, rice hoppers such as Photorabdus
And Xenorhabdus poison
3-hydroxysteroids, for example, lepidopters such as stemborer, rice water
Coleoptera such as oxidase weevil, diptera, brown rice hoppe
r etc. rice hoppers
Peroxidase, for example, lepidopters such as stemborer, rice water
Coleoptera such as weevil, diptera, brown rice hoppe
r etc. rice hoppers
Leucine aminopeptidase, for example, lepidopters such as stemborer, rice water
Coleoptera, Diptera such as Aminopepu Umushi of inhibitors such as, brown rice hoppe
Rice hoppers such as thidase inhibitors
Lectins, for example, lepidopters such as stemborer, rice water
Coleoptera such as weevil, diptera, brown rice hoppe
r etc. rice hoppers
Protease inhibitors, for example, lepidopters such as stemborer, rice water
Coleoptera such as weevil, diptera, brown rice hoppe
r etc. rice hoppers

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Ribosome-inactivating protein, for example, lepidopters such as stemborer, rice water
Coleoptera such as weevil, diptera, brown rice hoppe
r etc. rice hoppers
HMG-CoA reductase For example, lepidoptera such as stemborer, rice water
Coleoptera such as weevil, diptera, brown rice hoppe
r etc. rice hoppers

Table A5: Crop soybean
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Antibacterial polypeptide Aly Fusarium, sclerotinia, stem rot
Bacterial and fungal pathogens such as AFP
Oxalate oxidase fusarium, sclerotinia, stem rot
Bacterial and fungal pathogens such as
Gactose oxidase fusarium, sclerotinia, stalk rot, etc.
Real and fungal pathogens
Pyrrolnitrin synthesis gene Fusarium, sclerotinia, stalk rot, etc.
Real and fungal pathogens
Serine / threonine kinase Fusarium, sclerotinia, stalk rot, etc.
Real and fungal pathogens
Bacterium such as phenylalanine ammonia fusarium, sclerotinia, stem rot
Lyase (PAL) rearic and fungal pathogens
Plant diseases such as phytoalexin bacterial soot disease, rice blast
Active ingredient
Plant diseases such as B-1,3-glucanase bacterial bacterial soot disease, rice blast
Antisense original
Receptor kinase fusarium, sclerotinia, stalk rot, etc.
Real and fungal pathogens
Hypersensitive response-induced polypep plant pathogen
Chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Chitinase fusarium, sclerotinia, stalk rot, etc.
Real and fungal pathogens
Gactanase Fusarium, sclerotinia, stalk rot, etc.
Real and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Viruses such as double-stranded ribonuclease BYDV and SbMV
Viruses such as coat proteins BYDV and MSMV
Bacillus thuringiensis Lepidoptera, Coleoptera, Aphids
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroids Lepidoptera, Coleoptera, Aphids
Xidase
Peroxidase Lepidoptera, Coleoptera, Aphids
Leucine aminopeptidase Lepidoptera, Coleoptera, Aphids
Aminopeps such as inhibitors
Thidase inhibitor
Lectins Lepidoptera, Coleoptera, Aphids
Proteic Lepidoptera, Coleoptera, Aphids such as virgiferrin
Ase inhibitor
Ribosome inactivating protein Lepidoptera, Coleoptera, Aphids
HMG-CoA reductase Lepidoptera, Coleoptera, Aphids
Barnase Nematodes such as root- knot nematodes and cyst nematodes
Cyst nematode hatching stimulating cyst nematode
Anti-feeding principle Nematodes such as root-knot nematodes and cyst nematodes

Table A6: Crop potato
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase black spot bruise
Or polyphenoloxy
Dase antisense
Metallothionein ( bacterial and fungal diseases such as Metallot phytophtora )
hionein)
Ribonuclease Phytophtora, Verticillium, Rhizoctonia
Antibacterial polypeptide Aly Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens of AFP
Glucose oxidase Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens
Pyrronitrin synthesis gene Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Serine / threonine kinase Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens
Cecropin B corynebacterium sepedonicum, Erwinia ca
Bacteria such as rotovora
Phenylalanine ammonia Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens of lyase (PAL)
Phytoalexin Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens
B-1,3-glucanase Phytophtora, Verticillium, Rhizoctonia, etc.
Antisense bacterial and fungal pathogens
Receptor kinases Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens
Hypersensitivity response-induced polypep Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens of chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Chitinase Phytophtora, Verticillium, Rhizoctonia etc.
Bacterial and fungal pathogens
Barnase Phytophtora, Verticillium, Rhizoctonia etc.
Bacterial and fungal pathogens
Disease resistance response gene 4 Phytophtora, Verticillium, Rhizoctonia, etc.
9 bacterial and fungal pathogens
Transaldolase anti- black spot
sense
Glucanase Phytophtora, Verticillium, Rhizoctonia, etc.
Bacterial and fungal pathogens
Viruses such as double-stranded ribonuclease PLRV, PVY and TRV
Viruses such as coat proteins PLRV, PVY and TRV
Viruses such as 7 kDa or 60 kDa protein PLRV, PVY and TRV
White matter
Viruses such as nuclear inclusion proteins, PLRV, PVY and TRV
Eg a or b

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Pseudoboehmite ubiquitin PLRV, PVY and TRV, etc. of virus
Viruses such as replicase PLRV, PVY and TRV
Bacillus Churinjenshi colorado potato beetle or the like of the Coleoptera, Abram
Scan poison, VIP 3, Bacillus sheet
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroids such as colorado potato beetle, Abram
Oxidase Shea
Peroxidase colorado potato beetle and other pods, Abram
Shi
Leucine aminopeptidase Coleoptera such as colorado potato beetle, Abram
Aminopepu of the inhibitor or the like
Thidase inhibitor
Clams such as stilbene synthase colorado potato beetle, Abram
Shi
Lectins such as colorado potato beetle, Abram
Shi
Cystatin, patatin, etc. pods such as colorado potato beetle, Abram
Rotase inhibitor
Abram pods such as the ribosome inactivating protein colorado potato beetle
Shi
Clams such as HMG-CoA reductase colorado potato beetle, Abram
Shi
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
Anti-feeding principle Nematodes such as root-knot nematodes and cyst nematodes

Table A7: Crop tomato
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase black spot bruise
Or polyphenoloxy
Dase antisense
Metallothionein ( bacterial and fungal pathogens such as Metallot phytophtora )
hionein) body
Ribonuclease Phytophtora, Verticillium, Rhizoctonia
Antibacterial polypeptide Aly bacterial speck, Fusarium, soft rot, udon
Bacteria such as AFP powdery mildew, crown rot, leaf mold
Sexual and fungal pathogens
Oxalate oxidase bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
Glucose oxidase bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
Pyrrolnitrin synthesis gene, bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
Serine / threonine kinase bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
Cecropin B bacterial speck, Fusarium, Soft rot, Udo
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
Phenylalanine ammonia bacterial speck, fusarium, soft rot, udon
Lyase (PAL) mildew, crown rot, scab, etc.
Bacterial and fungal pathogens
For example, Cf9, Cf5, Cf subtilis
4, Cf genes such as Cf2
Osmotin alternaria solani
Alpha Holdthionine ( bacteria
Hordothionin)
Systemin bacterial speck, Fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Polygalacturinase (Po bacterial speck, Fusarium, Soft rot, Udo
lygalacturonase) Inhibin mildew, crown rot, scab, etc.
Tar such bacterial and fungal pathogens
Prf regulatory ( bacterial speck ) , Fusarium, soft rot, udon
Gene Nkobyo, crown rot, Susukabi disease, and other such
Bacterial and fungal pathogens
I2 Fusarium resistant seat (locu Fusarium
s)
Phytoalexin bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
B-1,3-glucanase bacterial speck, Fusarium, soft rot, udon
Nantisense powdery mildew, crown rot, scab, etc.
Bacterial and fungal pathogens
Receptor kinase bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
Hypersensitivity response-induced polypep bacterial speck, fusarium, soft rot, udon
Plastid Nkobyo, crown rot, Susukabi disease, and other such
Bacterial and fungal pathogens
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Chitinase bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Barnase bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
Glucanase bacterial speck, fusarium, soft rot, udon
Such as mildew, crown rot, soot mold, etc.
Bacterial and fungal pathogens
Will such as double-stranded ribonuclease PLRV, PVY and ToMoV
The
Will such as coat proteins PLRV, PVY and ToMoV
The
Wills such as 7 kDa or 60 kDa protein PLRV, PVY and ToMoV
White matter scan
Will of nuclear inclusion proteins, PLRV, PVY and ToMoV
For example, a or b
Nucleoprotein TRV
Will such as pseudo ubiquitin PLRV, PVY and ToMoV
The
Will such as replicase PLRV, PVY and ToMoV
The
Lepidoptera such as Bacillus thuringiensi heliothis, whitefly, abram
Scan poison, VIP 3, Bacillus sheet
Cereus poison, Photorabdus
And Xenorhabdus poison
Lepidoptera such as 3-hydroxysteroid heliothis, whitefly, abram
Oxidase Shea
Lepidoptera such as peroxidase heliothis, whitefly, abram
Shi
Leucine aminopeptidase heliothis and other lepidoptera, whitefly, abram
Aminopepu of the inhibitor or the like
Thidase inhibitor
Lectins such as heliothis, lepidoptera, whiteflies, abram
Shi
Cystatin, patatin, etc. Lepidoptera such as heliothis, whitefly, abram
Rotase inhibitor
Lepidoptera such as heliothis ribosome inactivating protein , whitefly, abram
Shi
Lepidoptera such as stilbene synthase heliothis, whitefly, abram
Shi

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Lepidoptera such as HMG-CoA reductase heliothis, whitefly, abram
Shi
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
Anti-feeding principle Nematodes such as root-knot nematodes and cyst nematodes

Table A8: Crop pepper
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase bacterial and fungal pathogens
Or polyphenoloxy
Dase antisense
Metallothionein bacterial and fungal pathogens
Ribonuclease bacterial and fungal pathogens
Antibacterial polypeptide Aly bacterial and fungal pathogens
AFP
Oxalate oxidase bacterial and fungal pathogens
Glucose oxidase bacterial and fungal pathogens
Pyrrolnitrin synthesis gene Bacterial and fungal pathogens
Serine / threonine kinase bacterial and fungal pathogens
Cecropin B rot, Bacterial fungus, etc.
And fungal pathogens
Phenylalanine ammonia bacterial and fungal pathogens
Riase (PAL)
For example, Cf9, Cf5, Cf bacterial and fungal pathogens
4, Cf genes such as Cf2
Osmotin bacterial and fungal pathogens
Alpha-holdthionine bacterial and fungal pathogens
Systemin bacterial and fungal pathogens
Polygalacturinase bacterial and fungal pathogens
Inhibitors
Prf regulatory genes Bacterial and fungal pathogens
I2 Fusarium Resistant Seat Fusarium
Phytoalexin bacterial and fungal pathogens
B-1,3-glucanase bacterial and fungal pathogens
Inchance
Receptor kinase bacterial and fungal pathogens
Hypersensitivity response-induced polypepbacterial and fungal pathogens
Chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Chitinase bacterial and fungal pathogens
Barnase bacterial and fungal pathogens
Glucanase bacterial and fungal pathogens
Viruses such as double-stranded ribonuclease CMV and TEV
Viruses such as coat proteins CMV and TEV
Viruses such as 7 kDa or 60 kDa protein CMV, TEV
White matter
Nuclear inclusion proteins, viruses such as CMV and TEV
Eg a or b
Viruses such as nucleoprotein CMV and TEV
Viruses such as pseudoubiquitin CMV and TEV
Viruses such as replicase CMV and TEV
Bacillus thuringiensis lepidoptera, whitefly, aphids
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-Hydroxysteroid lepidoptera, whitefly, aphids
Xidase
Peroxidase lepidoptera, whiteflies, aphids
Leucine aminopeptidase Lepidoptera, whiteflies, aphids
Aminopeps such as inhibitors
Thidase inhibitor
Lectins Lepidoptera, whiteflies, aphids
Cystatins, patatin and other lepidoptera, whiteflies, aphids
Rotase inhibitor
Ribosome-inactivating protein lepidoptera, whiteflies, aphids
Stilbene synthase lepidoptera, whiteflies, aphids
HMG-CoA reductase Lepidoptera, whiteflies, aphids
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
Anti-feeding principle Nematodes such as root-knot nematodes and cyst nematodes

Table A9: Crop grapes
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Bacterial activity such as polyphenol oxidase Botrytis and powdery mildew
Or polyphenoloxy and fungal pathogens
Dase antisense
Bacterial activity such as metallothionein Botrytis and powdery mildew
And fungal pathogens
Bacterial properties such as ribonuclease Botrytis and powdery mildew
And fungal pathogens
Antibacterial polypeptide Aly Botrytis and bacterial bacteria such as powdery mildew
AFP and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Bacterial activity such as oxalate oxidase Botrytis and powdery mildew
And fungal pathogens
Bacterial activity such as glucose oxidase Botrytis and powdery mildew
And fungal pathogens
Bacterial properties such as pyrrolnitrin synthesis gene Botrytis and powdery mildew
And fungal pathogens
Serine / threonine kinase Botrytis and bacterial diseases such as powdery mildew
And fungal pathogens
Bacterial activity such as Cecropin B Botrytis and powdery mildew
And fungal pathogens
Bacterial properties such as phenylalanine ammonia Botrytis and powdery mildew
Lyase (PAL) and fungal pathogens
For example, bacterial fever such as Cf9, Cf5, Cf Botrytis and powdery mildew
4. Cf genes such as Cf2 and fungal pathogens
Bacterial properties such as osmotin Botrytis and powdery mildew
And fungal pathogens
Bacterial activity such as alpha-holded thionine Botrytis and powdery mildew
And fungal pathogens
Bacterial properties such as cystemin Botrytis and powdery mildew
And fungal pathogens
Bacterial properties such as polygalacturinase in Botrytis and powdery mildew
Hibiters and fungal pathogens
Prf regulatory gene Botrytis and bacterial bacteria such as powdery mildew
And fungal pathogens
Bacterial properties such as phytoalexin Botrytis and powdery mildew
And fungal pathogens
B-1,3-glucanase a botrytis and bacterial bacteria such as powdery mildew
Antisense and fungal pathogens
Bacterial activity such as receptor kinase Botrytis and powdery mildew
And fungal pathogens
Hypersensitivity response-induced polypep Botrytis and bacterial bacteria such as powdery mildew
Plastid and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Bacterial activity such as chitinase Botrytis and powdery mildew
And fungal pathogens
Bacterial properties such as barnase Botrytis and powdery mildew
And fungal pathogens
Bacterial activity such as glucanase Botrytis and powdery mildew
And fungal pathogens
Double-stranded ribonuclease virus
Coat protein virus
7 kDa or 60 kDa protein virus
White matter
Nuclear inclusion protein, virus
Eg a or b
Nuclear protein virus
Pseudoubiquitin virus
Replicase virus
Bacillus thuringiensis Coleoptera, Aphids
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroid lepidoptera, aphids
Xidase
Peroxidase lepidoptera, aphids
Leucine aminopeptidase lepidoptera, aphids
Aminopeps such as inhibitors
Thidase inhibitor
Lectin Lepidoptera, Aphids
Cystatins, patatins and other scabies, aphids
Rotase inhibitor
Ribosome-inactivating protein lepidoptera, aphids
Stilbene synthase lepidoptera, aphids
HMG-CoA reductase lepidoptera, aphids
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Anti-feeding principle Nematodes such as root-knot nematodes and cyst nematodes

Table A10: Crop oilseed rape
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase such as Cylindrossporium, Phoma, Sclerotinia
Or polyphenoloxybacterial and fungal pathogens
Dase antisense

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Metallothionein such as Cylindroporium, Phoma, Sclerotinia etc.
Bacterial and fungal pathogens
Ribonuclease such as Cylindroporium, Phoma, Sclerotinia
Bacterial and fungal pathogens
Antibacterial polypeptides such as Aly Cylindrosporium, Phoma, Sclerotinia, etc.
AFP bacterial and fungal pathogens
Oxalate oxidase such as Cylindroporium, Phoma, Sclerotinia
Bacterial and fungal pathogens
Glucose oxidase such as Cylindroporium, Phoma, Sclerotinia
Bacterial and fungal pathogens
Pyrrolnitrin synthesis genes such as Cylindrossporium, Phoma, and Sclerotinia
Bacterial and fungal pathogens
Serine / threonine kinase such as Cylindroporium, Phoma, Sclerotinia
Bacterial and fungal pathogens
Cecropin B Cylindrosporium, Phoma, Sclerotinia etc.
Bacterial and fungal pathogens
Phenylalanine ammonia such as Cylindroporium, Phoma, Sclerotinia etc.
Lyase (PAL) bacterial and fungal pathogens
For example, Cf9, Cf5, Cf Cylindrosporium, Phoma, Sclerotinia etc.
4. Cf gene bacterial and fungal pathogens such as Cf2
Osmotin Cylindroporium, Phoma, Sclerotinia etc.
Bacterial and fungal pathogens
Alpha Holdthionine Cylindrossporium, Phoma, Sclerotinia etc.
Bacterial and fungal pathogens
Systemin Cylindroporium, Phoma, Sclerotinia etc.
Bacterial and fungal pathogens
Polygalacturinase in Cylindropspium, Phoma, Sclerotinia etc.
Inhibitor formation such bacterial and fungal pathogens
Prf regulatory genes such as Cylindrossporium, Phoma, and Sclerotinia
Bacterial and fungal pathogens
Phytoalexins such as Cylindroporium, Phoma, Sclerotinia etc.
Bacterial and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
B-1,3-glucanases such as Cylindroporium, Phoma, Sclerotinia, etc.
Antisense bacterial and fungal pathogens
Receptor kinases such as Cylindrossporium, Phoma, and Sclerotinia
Bacterial and fungal pathogens
Hypersensitivity response-induced polypep such as Cylindrosporium, Phoma, Sclerotinia
Chidobacterial and fungal pathogens
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Chitinase Cylindroporium, Phoma, Sclerotinia etc.
Bacterial and fungal pathogens
Barnase Cylindroporium, Phoma, Sclerotinia etc.
Bacterial and fungal pathogens, nematodes
Glucanase Cylindrosporium, Phoma, such as Sclerotinia
Bacterial and fungal pathogens
Double-stranded ribonuclease virus
Coat protein virus
7 kDa or 60 kDa protein virus
White matter
Nuclear inclusion protein, virus
Eg a or b
Nuclear protein virus
Pseudoubiquitin virus
Replicase virus
Bacillus thuringiensis lepidoptera, aphids
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroid lepidoptera, aphids
Xidase
Peroxidase lepidoptera, aphids
Leucine aminopeptidase lepidoptera, aphids
Aminopeps such as inhibitors
Thidase inhibitor
Lectin Lepidoptera, Aphids
Cystatin, patatin, CP lepidoptera, aphids
Protease Inhi, such as TI
bitter

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Ribosome-inactivating protein lepidoptera, aphids
Stilbene synthase lepidoptera, aphids, disease
HMG-CoA Reductor Lepidoptera, Aphids
ZE
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode
Nematodes such as root-knot nematodes and root cyst nematodes at feeding sites of nematodes
Induced anti-feeding principle

Table A11: Crop Brassica vegetables (cabbage, Brussels sprouts, broccoli, etc.)
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase bacterial and fungal pathogens
Or polyphenoloxy
Dase antisense
Metallothionein bacterial and fungal pathogens
Ribonuclease bacterial and fungal pathogens
Antibacterial polypeptide Aly bacterial and fungal pathogens
AFP
Oxalate oxidase bacterial and fungal pathogens
Glucose oxidase bacterial and fungal pathogens
Pyrrolnitrin synthesis gene Bacterial and fungal pathogens
Serine / threonine kinase bacterial and fungal pathogens
Cecropin B bacterial and fungal pathogens
Phenylalanine ammonia bacterial and fungal pathogens
Riase (PAL)
For example, Cf9, Cf5, Cf bacterial and fungal pathogens
4, Cf genes such as Cf2
Osmotin bacterial and fungal pathogens
Alpha-holdthionine bacterial and fungal pathogens
Systemin bacterial and fungal pathogens
Polygalacturinase bacterial and fungal pathogens
Inhibitors
Prf regulatory genes Bacterial and fungal pathogens
Phytoalexin bacterial and fungal pathogens
B-1,3-glucanase bacterial and fungal pathogens
Inchance
Receptor kinase bacterial and fungal pathogens
Hypersensitivity response-induced polypepbacterial and fungal pathogens
Chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Chitinase bacterial and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Barnase bacterial and fungal pathogens
Glucanase bacterial and fungal pathogens
Double-stranded ribonuclease virus
Coat protein virus
7 kDa or 60 kDa protein virus
White matter
Nuclear inclusion protein, virus
Eg a or b
Nuclear protein virus
Pseudoubiquitin virus
Replicase virus
Bacillus thuringiensis lepidoptera, aphids
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroid lepidoptera, aphids
Xidase
Peroxidase lepidoptera, aphids
Leucine aminopeptidase lepidoptera, aphids
Aminopeps such as inhibitors
Thidase inhibitor
Lectin Lepidoptera, Aphids
Cystatin, patatin, CP lepidoptera, aphids
Protease Inhi, such as TI
bitter
Ribosome-inactivating protein lepidoptera, aphids
Stilbene synthase lepidoptera, aphids, disease
HMG-CoA reductase lepidoptera, aphids
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode
Nematodes induced root-knot nematodes and the like root cyst nematodes in feeding sites nematodes
Guided anti-feeding principle

Table A12: Crop fruits such as apples and pears
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase apple scab, burn disease, etc.
Or bacterial and fungal pathogens of polyphenoloxy
Dase antisense
Bacterial properties such as metallothionein rot or burn disease
And fungal pathogens
Bacterial properties such as ribonuclease apple rot or burn disease
And fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Antibacterial polypeptide Aly apple rot disease or bacterial disease such as burn disease
AFP and fungal pathogens
Bacterial properties such as oxalate oxidase apple rot or burn disease
And fungal pathogens
Bacterial properties such as glucose oxidase apple rot or burn disease
And fungal pathogens
Bacterial properties such as apple rot or burn disease of pyrrolnitrin synthesis gene
And fungal pathogens
Serine / threonine kinase Bacteria such as apple rot or burn disease
And fungal pathogens
Cecropin B Bacteria such as apple rot or burn disease
And fungal pathogens
Bacterial properties such as phenylalanine ammonia apple rot or burn disease
Lyase (PAL) and fungal pathogens
Bacterial properties such as Cf9, Cf5, Cf apple rot, or burn disease
4. Cf genes such as Cf2 and fungal pathogens
Bacterial properties such as osmotin apple rot or burn disease
And fungal pathogens
Bacterial properties such as alpha-holdthionine apple rot or burn disease
And fungal pathogens
Bacterial properties such as cystemin apple rot or burn disease
And fungal pathogens
Bacterial properties such as polygalacturinase apple rot or burn disease
Hibiters and fungal pathogens
Prf regulatory gene Bacterial properties such as apple rot or burn disease
And fungal pathogens
Bacterial properties such as phytoalexin apple rot or burn disease
And fungal pathogens
B-1,3-glucanase Bacterial properties such as apple rot or burn disease
Antisense and fungal pathogens
Bacterial properties such as receptor kinase apple rot or burn disease
And fungal pathogens
Hypersensitivity response attract Poripepu apple scab, or bacteria of burn disease, etc.
Chido and fungal pathogens
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Degradable protein ( bacterial properties such as lytic protei apple rot or burn disease
n) and fungal pathogens
Bacterial properties such as lysozyme apple rot or burn disease
And fungal pathogens
Bacterial properties such as chitinase apple rot or burn disease
And fungal pathogens
Barnase bacterial and fungal pathogens
Glucanase bacterial and fungal pathogens
Double-stranded ribonuclease virus
Coat protein virus
7 kDa or 60 kDa protein virus
White matter
Nuclear inclusion protein, virus
For example, a or b or nuclear protein
White matter
Pseudoubiquitin virus
Replicase virus
Bacillus thuringiensis lepidoptera, aphids, ticks
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroids, lepidoptera, aphids, mites
Xidase
Peroxidase lepidoptera, aphids, ticks
Leucine aminopeptidase lepidoptera, aphids, mites
Aminopeps such as inhibitors
Thidase inhibitor
Lectins Lepidoptera, Aphids, Tick
Cystatin, patatin, CP lepidoptera, aphids, mites
Protease Inhi, such as TI
bitter

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Ribosome-inactivating protein lepidoptera, aphids, mites
Stilbene synthase lepidoptera, aphids, disease, mites
HMG-CoA reductase lepidoptera, aphids, mites
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode
Nematodes induced root-knot nematodes and the like root cyst nematodes in feeding sites nematodes
Guided anti-feeding principle

Table A13: Crop melon
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Bacterial and fungal pathogens such as polyphenol oxidase phytophtora
Or polyphenoloxy
Dase antisense
Bacterial and fungal pathogens such as metallothionein phytophtora
body
Bacterial and fungal pathogens such as ribonuclease phytophtora
body
Bacterial and fungal pathogens such as antibacterial polypeptide Aly phytophtora
AFP body
Bacterial and fungal pathogens such as oxalate oxidase phytophtora
body
Bacterial and fungal pathogens such as glucose oxidase phytophtora
body
Bacterial and fungal pathogens such as pyrrolnitrin synthesis gene phytophtora
body
Bacterial and fungal pathogens such as serine / threonine kinase phytophtora
body
Bacterial and fungal pathogens such as Cecropin B phytophtora
body
Bacterial and fungal pathogens such as phenylalanine ammonia phytophtora
Riase (PAL) body
For example, bacterial and fungal pathogens such as Cf9, Cf5, and Cf phytophtora
4. Cf gene bodies such as Cf2
Bacterial and fungal pathogens such as osmotin phytophtora
body

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Bacterial and fungal pathogens such as alpha-holdthionine phytophtora
body
Bacterial and fungal pathogens such as systemin phytophtora
body
Bacterial and fungal pathogens such as polygalacturinase phytophtora
Hibiters
Bacterial and fungal pathogens such as Prf regulatory gene phytophtora
body
Bacterial and fungal pathogens such as phytoalexin phytophtora
body
Bacterial and fungal pathogens such as B-1,3-glucanase phytophtora
Antisense body
Bacterial and fungal pathogens such as receptor kinase phytophtora
body
Bacterial and fungal pathogens such as hypersensitive response-induced polypep phytophtora
Chido body
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Bacterial and fungal pathogens such as degradable protein phytophtora
body
Bacterial and fungal pathogens such as lysozyme phytophtora
body
Bacterial and fungal pathogens such as chitinase phytophtora
body
Bacterial and fungal pathogens such as barnase phytophtora
body
Bacterial and fungal pathogens such as glucanase phytophtora
body
Double-stranded ribonuclease CMV, PRSV, WMV2, SMV, ZYM
Viruses such as V
Coat protein CMV, PRSV, WMV2, SMV, ZYM
Viruses such as V

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
17 kDa or 60 kDa CMV, PRSV, WMV2, SMV, ZYM
Viruses such as protein V
Nuclear inclusion protein, CMV, PRSV, WMV2, SMV, ZYM
For example , virus such as a or b or nuclear protein V
White matter
Pseudoboehmite ubiquitin CMV, PRSV, WMV2, SMV, ZYM
Viruses such as V
Replicase CMV, PRSV, WMV2, SMV, ZYM
Viruses such as V
Bacillus thuringiensis lepidoptera, aphids, ticks
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-Hydroxysteroid lepidoptera, aphids, ticks, whiteflies
Xidase
Peroxidase lepidoptera, aphids, ticks, whiteflies
Leucine aminopeptidase Lepidoptera, aphids, mites, whiteflies
Aminopeps such as inhibitors
Thidase inhibitor
Lectins Lepidoptera, aphids, ticks, whiteflies
Cystatin, patatin, CP lepidoptera, aphids, mites, whiteflies
TI, Viljeferin, etc.
Protease inhibitors
Ribosome-inactivating protein lepidoptera, aphids, mites, whiteflies
Stilbene synthase lepidoptera, aphids, mites, whiteflies
HMG-CoA reductase lepidoptera, aphids, mites, whiteflies
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode
Nematodes induced root-knot nematodes and the like root cyst nematodes in feeding sites nematodes
Guided anti-feeding principle

Table A14: Crop Banana
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or selesulfonylurea
Cytochrome P
450
Polyphenol oxidase bacterial and fungal pathogens
Or polyphenoloxy
Dase antisense
Metallothionein bacterial and fungal pathogens
Ribonuclease bacterial and fungal pathogens
Antibacterial polypeptide Aly bacterial and fungal pathogens
AFP
Oxalate oxidase bacterial and fungal pathogens
Glucose oxidase bacterial and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Pyrrolnitrin synthesis gene Bacterial and fungal pathogens
Serine / threonine kinase bacterial and fungal pathogens
Cecropin B bacterial and fungal pathogens
Phenylalanine ammonia bacterial and fungal pathogens
Riase (PAL)
For example, Cf9, Cf5, Cf bacterial and fungal pathogens
4, Cf genes such as Cf2
Osmotin bacterial and fungal pathogens
Alpha-holdthionine bacterial and fungal pathogens
Systemin bacterial and fungal pathogens
Polygalacturinase bacterial and fungal pathogens
Hibiters
Prf regulatory genes Bacterial and fungal pathogens
Phytoalexin bacterial and fungal pathogens
B-1,3-glucanase bacterial and fungal pathogens
Inchance
Receptor kinase bacterial and fungal pathogens
Hypersensitivity response-induced polypepbacterial and fungal pathogens
Chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Lytic protein viral, bacterial, fungal, nematode
Pathogen
Lysozyme virus, bacteria, fungi, nematode
Pathogen
Chitinase bacterial and fungal pathogens
Barnase bacterial and fungal pathogens
Glucanase bacterial and fungal pathogens
Such as double-stranded ribonuclease Banana bunchy top virus (BBTV)
virus
Coat protein Banana bunchy top virus (BBTV) etc.
virus
17 kDa or 60 kDa Banana bunchy top virus (BBTV) etc.
Protein virus
Nuclear inclusion protein, Banana bunchy top virus (BBTV), etc.
Eg a or b or nuclear protein virus
White matter
Such as pseudo ubiquitin Banana bunchy top virus (BBTV)
virus

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Replicase Banana bunchy top virus (BBTV) such as
virus
Bacillus thuringiensis lepidoptera, aphids, mites, nematodes
Suto poison, VIP 3, Bacillus
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroids lepidoptera, aphids, mites, nematodes
Xidase
Peroxidase lepidoptera, aphids, mites, nematodes
Leucine aminopeptidase lepidoptera, aphids, mites, nematodes
Aminopeps such as inhibitors
Thidase inhibitor
Lectins Lepidoptera, aphids, ticks, nematodes
Cystatin, patatin, CP lepidoptera, aphids, mites, nematodes
TI, Viljeferin, etc.
Protease inhibitors
Ribosome-inactivating protein lepidoptera, aphids, mites, nematodes
Stilbene synthase lepidoptera, aphids, disease, mites
HMG-CoA reductase lepidoptera, aphids, mites, nematodes
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode
Nematodes induced root-knot nematodes and the like root cyst nematodes in feeding sites nematodes
Guided anti-feeding principle

Table A15: Crop Cotton
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase bacterial and fungal pathogens
Or polyphenoloxy
Dase antisense
Metallothionein bacterial and fungal pathogens
Ribonuclease bacterial and fungal pathogens
Antibacterial polypeptide Aly bacterial and fungal pathogens
AFP
Oxalate oxidase bacterial and fungal pathogens
Glucose oxidase bacterial and fungal pathogens
Pyrrolnitrin synthesis gene Bacterial and fungal pathogens
Serine / threonine kinase bacterial and fungal pathogens
Cecropin B bacterial and fungal pathogens
Phenylalanine ammonia bacterial and fungal pathogens
Riase (PAL)
For example, Cf9, Cf5, Cf bacterial and fungal pathogens
4, Cf genes such as Cf2
Osmotin bacterial and fungal pathogens
Alpha-holdthionine bacterial and fungal pathogens

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Systemin bacterial and fungal pathogens
Polygalacturinase bacterial and fungal pathogens
Hibiters
Prf regulatory genes Bacterial and fungal pathogens
Phytoalexin bacterial and fungal pathogens
B-1,3-glucanase bacterial and fungal pathogens
Inchance
Receptor kinase bacterial and fungal pathogens
Hypersensitivity response-induced polypepbacterial and fungal pathogens
Chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Degradable proteins Bacterial and fungal pathogens
Lysozyme bacterial and fungal pathogens
Chitinase bacterial and fungal pathogens
Barnase bacterial and fungal pathogens
Glucanase bacterial and fungal pathogens
Viruses such as double-stranded ribonuclease wound tumor virus (WTV)
Viruses such as coat protein wound tumor virus (WTV)
Viruses such as 17 kDa or 60 kDa wound tumor virus (WTV)
protein
Viruses such as nuclear inclusion protein, wound tumor virus (WTV)
For example, a or b or nuclear protein
White matter
Viruses such as pseudoubiquitin wound tumor virus (WTV)
Viruses such as replicase wound tumor virus (WTV)
Bacillus thuringiens lepidoptera, aphids, mites, nematodes, whitefly
Poison, VIP 3, Bachirususe Mi
Reus poison, Photorabdus and
Xenorhabdus poison
3-hydroxysteroids lepidoptera, aphids, ticks, nematodes, whiteflies
Oxidase Mi
Peroxidase lepidoptera, aphids, mites, nematodes, whiteflies
Mi
Leucine aminopeptidase Lepidoptera, aphids, mites, nematodes, whitefly
Aminopepu Mi inhibitors such as
Thidase inhibitor
Lectins lepidoptera, aphids, ticks, nematodes, whiteflies
Mi
Cystatin, patatin, CP lepidoptera, aphids, mites, nematodes, whitefly
TI, virgiferrin, etc.
Protease inhibitor
Ribosome-inactivating protein lepidoptera, aphids, ticks, nematodes, whitefly
Mi
Stilbene synthase lepidoptera, aphids, ticks, nematodes, whiteflies
Mi
HMG-CoA reductase lepidoptera, aphids, ticks, nematodes, whitefly
Mi
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode
Nematodes induced root-knot nematodes and the like root cyst nematodes in feeding sites nematodes
Guided anti-feeding principle

Table A16: Crop sugarcane
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase bacterial or fungal pathogen
Or polyphenoloxy
Dase antisense
Metallothionein bacterial or fungal pathogens
Ribonuclease bacterial or fungal pathogen
Antibacterial polypeptide Aly bacterial or fungal pathogen
AFP
Oxalate oxidase bacterial or fungal pathogen
Glucose oxidase bacterial or fungal pathogen
Pyrrolnitrin synthesis gene Bacterial or fungal pathogen
Serine / threonine kinase bacterial or fungal pathogen
Cecropin B bacterial or fungal pathogen
Phenylalanine ammonia bacterial or fungal pathogen
Riase (PAL)
For example Cf9, Cf5, Cf bacterial or fungal pathogen
4, Cf genes such as Cf2
Osmotin bacterial or fungal pathogen
Alpha Holdthionine Bacterial or fungal pathogen
Systemin bacterial or fungal pathogens
Polygalacturinase in bacterial or fungal pathogen
Hibiters
Prf regulatory gene Bacterial or fungal pathogen
Phytoalexin bacterial or fungal pathogen
B-1,3-glucanase bacterial or fungal pathogen
Inchance
Receptor kinase Bacterial or fungal pathogen

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Hypersensitivity response-induced polypepbacterial or fungal pathogen
Chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Degradable protein Bacterial or fungal pathogen
Bacterial or fungal pathogens such as lysozyme clavibacter
body
Chitinase bacterial or fungal pathogen
Barnase bacterial or fungal pathogen
Glucanase bacterial or fungal pathogen
Viruses such as double-stranded ribonuclease SCMV and SrMV
Viruses such as coat proteins SCMV and SrMV
Viruses such as 17 kDa or 60 kDa SCMV, SrMV
protein
Nuclear inclusion proteins, viruses such as SCMV and SrMV
For example, a or b or nuclear protein
White matter or nuclear protein
Pseudoboehmite ubiquitin SCMV, viruses such as SrMV
Viruses such as replicase SCMV and SrMV
Bacillus thuringiensis lepidoptera, aphids, mites, nematodes, whitefly
Scan poison, VIP 3, Bacillus Mi, beetles such as mexican rice borer
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroids lepidoptera, aphids, ticks, nematodes, whiteflies
Oxidase Mi, beetles such as mexican rice borer
Peroxidase lepidoptera, aphids, mites, nematodes, whiteflies
Mi, mexican rice borer and other beetles
Leucine aminopeptidase Lepidoptera, aphids, mites, nematodes, whitefly
Aminopepu Mi of inhibitors such as, beetles such as mexican rice borer
Thidase inhibitor
Lectins lepidoptera, aphids, ticks, nematodes, whiteflies
Mi, mexican rice borer and other beetles
Cystatin, patatin, CP lepidoptera, aphids, mites, nematodes, whitefly
TI, mi, such as virgiferrin, beetles, such as mexican rice borer
Protease inhibitor

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Ribosome-inactivating protein lepidoptera, aphids, ticks, nematodes, whitefly
Mi, mexican rice borer and other beetles
Stilbene synthase lepidoptera, aphids, ticks, nematodes, whiteflies
Mi, mexican rice borer and other beetles
HMG-CoA reductase lepidoptera, aphids, ticks, nematodes, whitefly
Mi, mexican rice borer and other beetles
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode
Nematodes induced root-knot nematodes and the like root cyst nematodes in feeding sites nematodes
Guided anti-feeding principle

Table A17: Crop sunflower
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase bacterial or fungal pathogen
Or polyphenoloxy
Dase antisense
Metallothionein bacterial or fungal pathogens
Ribonuclease bacterial or fungal pathogen
Antibacterial polypeptide Aly bacterial or fungal pathogen
AFP
Bacterial or fungal pathogens such as oxalate oxidase sclerotinia
body
Glucose oxidase bacterial or fungal pathogen
Pyrrolnitrin synthesis gene Bacterial or fungal pathogen
Serine / threonine kinase bacterial or fungal pathogen
Cecropin B bacterial or fungal pathogen
Phenylalanine ammonia bacterial or fungal pathogen
Riase (PAL)
For example Cf9, Cf5, Cf bacterial or fungal pathogen
4, Cf genes such as Cf2
Osmotin bacterial or fungal pathogen
Alpha Holdthionine Bacterial or fungal pathogen
Systemin bacterial or fungal pathogens
Polygalacturinase in bacterial or fungal pathogen
Hibiters
Prf regulatory gene Bacterial or fungal pathogen
Phytoalexin bacterial or fungal pathogen
B-1,3-glucanase bacterial or fungal pathogen
Inchance
Receptor kinase Bacterial or fungal pathogen
Hypersensitivity response-induced polypepbacterial or fungal pathogen
Chido

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen
Degradable protein Bacterial or fungal pathogen
Lysozyme bacterial or fungal pathogen
Chitinase bacterial or fungal pathogen
Barnase bacterial or fungal pathogen
Glucanase bacterial or fungal pathogen
Viruses such as double-stranded ribonuclease CMV and TMV
Viruses such as coat proteins CMV and TMV
Viruses such as 17 kDa or 60 kDa CMV and TMV
protein
Nuclear inclusion proteins, viruses such as CMV and TMV
For example, a or b or nuclear protein
White matter
Viruses such as pseudoubiquitin CMV and TMV
Viruses such as replicase CMV and TMV
Bacillus thuringiensis lepidoptera, aphids, mites, nematodes, whitefly
Scan poison, VIP 3, Bacillus Mi, beetles
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroids lepidoptera, aphids, ticks, nematodes, whiteflies
Oxidase Mi, beetles
Peroxidase lepidoptera, aphids, mites, nematodes, whiteflies
Mi, beetle
Leucine aminopeptidase Lepidoptera, aphids, mites, nematodes, whitefly
Aminopepu Mi, beetles such as inhibitors
Thidase inhibitor
Lectins lepidoptera, aphids, ticks, nematodes, whiteflies
Mi, beetle
Cystatin, patatin, CP lepidoptera, aphids, mites, nematodes, whitefly
Mi, beetles, such as TI and virgiferrin
Protease inhibitor
Ribosome-inactivating protein lepidoptera, aphids, ticks, nematodes, whitefly
Mi, beetle
Stilbene synthase lepidoptera, aphids, disease, mites

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
HMG-CoA reductase lepidoptera, aphids, ticks, nematodes, whitefly
Mi, beetle
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
CBI root-knot nematode
Nematodes induced root-knot nematodes and the like root cyst nematodes in feeding sites nematodes
Guided anti-feeding principle

Table A18: Crop sugar beet, beet root
Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Acetolactate synthase sulfonylurea, imidazolinone, triazolo
(ALS) pyrimidine, pyrimidyloxybenzoate, fu
Talide
Acetyl CoA carboxylaryloxyphenoxyalkanecarboxylic acid,
ACCASE cyclohexanedione
Hydroxyphenylpyrubin isoxaflutol or isoxachlor
Acid dioxygenase ( isoxazoles such as HPP , mesotrione or
D) Triones such as sulcotrione
Phosphinotritin acetylphosphinotritin
Transferase
O-methyl transferer modified lignin level
ZE
Glutamine synthetase glufosinate, bialaphos
Adenylosuccinate lyase ( inhibitor of IMP and AMP synthesis
ADSL)
Adenylosuccinate synthase Inhibitors of adenylosuccinate synthesis
Inhibition of anthranilate synthase tryptophan synthesis and catabolism
Tar
3,5- such as nitrilase bromoxynyl and roxinyl
Dihalo-4-hydroxybenzonitriles
5-enolpyruvoyl-3 glyphosate or sulphosate
-Phosphoshikimate sinter
ZE (EPSPS)

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Glyphosate oxidoreducta glyphosate or sulphosate
Ase
Protoporphyrinogen odiphenyl ethers, cyclic imides, phenyl
Xoxidase (PROTOX) lupyrazoles, pyridine derivatives, phenopi
Rate, oxadiazoles, etc.
P450 SU1 or Sele xenobiotic and herbicides such as sulfonylureas
Cytochrome P
450
Polyphenol oxidase bacterial or fungal pathogen
Or polyphenoloxy
Dase antisense
Metallothionein bacterial or fungal pathogens
Ribonuclease bacterial or fungal pathogen
Antibacterial polypeptide Aly bacterial or fungal pathogen
AFP
Bacterial or fungal pathogens such as oxalate oxidase sclerotinia
body
Glucose oxidase bacterial or fungal pathogen
Pyrrolnitrin synthesis gene Bacterial or fungal pathogen
Serine / threonine kinase bacterial or fungal pathogen
Cecropin B bacterial or fungal pathogen
Phenylalanine ammonia bacterial or fungal pathogen
Riase (PAL)
For example Cf9, Cf5, Cf bacterial or fungal pathogen
4, Cf genes such as Cf2
Osmotin bacterial or fungal pathogen
Alpha Holdthionine Bacterial or fungal pathogen
Systemin bacterial or fungal pathogens
Polygalacturinase bacterial or fungal pathogen
Inhibitors
Prf regulatory gene Bacterial or fungal pathogen
Phytoalexin bacterial or fungal pathogen
B-1,3-glucanase bacterial or fungal pathogen
Inchance
Bacterial properties such as AX + WIN protein Cercospora beticola or
Fungal pathogen
Receptor kinase Bacterial or fungal pathogen
Hypersensitivity response-induced polypepbacterial or fungal pathogen
Chido
Systemic acquired resistance (SAR) virus, bacterial, fungal, nematode
Gene pathogen

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Degradable protein Bacterial or fungal pathogen
Lysozyme bacterial or fungal pathogen
Chitinase bacterial or fungal pathogen
Barnase bacterial or fungal pathogen
Glucanase bacterial or fungal pathogen
Viruses such as double-stranded ribonuclease BNYVV
Viruses such as coat protein BNYVV
Viruses such as 17 kDa or 60 kDa BNYVV
protein
Nuclear inclusion proteins, viruses such as BNYVV
For example, a or b or nuclear protein
White matter
Pseudoboehmite ubiquitin BNYVV or the like of the virus
Viruses such as replicase BNYVV
Bacillus thuringiensis lepidoptera, aphids, mites, nematodes, whitefly
Scan poison, VIP 3, Bacillus Mi, beetles, rootflies
Cereus poison, Photorabdus
And Xenorhabdus poison
3-hydroxysteroids lepidoptera, aphids, ticks, nematodes, whiteflies
Oxidase Mi, Coleoptera, rootflies
Peroxidase lepidoptera, aphids, mites, nematodes, whiteflies
Mi, beetle, rootflies
Leucine aminopeptidase Lepidoptera, aphids, mites, nematodes, whitefly
Aminopepu Mi, beetles such as inhibitors, rootflies
Thidase inhibitor
Lectins lepidoptera, aphids, ticks, nematodes, whiteflies
Mi, beetle, rootflies
Cystatin, patatin, CP lepidoptera, aphids, mites, nematodes, whitefly
TI, virgiferrin and other mi, beetles, rootflies
Protease inhibitor
Ribosome-inactivating protein lepidoptera, aphids, ticks, nematodes, whitefly
Mi, beetle, rootflies
Stilbene synthase lepidoptera, aphids, ticks, nematodes, whiteflies
Mi, beetle, rootflies
HMG-CoA reductase lepidoptera, aphids, ticks, nematodes, whitefly
Mi, beetle, rootflies

Implementation target or one or more expression <Crop phenotype / tolerant subject>
Principle ───────────────────────────────────
Cyst nematode hatching stimulating cyst nematode
Nematodes such as barnase root-knot nematode and cyst nematode
beet cyst nematode resistant locus cyst nematode
CBI root-knot nematode
Nematodes induced root-knot nematodes and the like root cyst nematodes in feeding sites nematodes
Guided anti-feeding principle

  Said harmful animals that can be controlled by the method according to the invention include, for example, worms, representatives of ticks, and representatives of class nematodes, in particular:

  Lepidoptera Acleris species, Adoxophyes species, especially Adoxophyes reticulana; Aegeria species, Agrotis species, especially Agrtis spinifera; Chilo species, Choristoneura species, Clysia ambiguella, Cnaphalocrocis species, Cnephasia species, Cochylis species, Coleophora species, Crocidolomia binotalis, Cryptophlebia leucotreta, Cydia species, especially Cydia pomonella; Diatraea species, E Eucosma species, Eupoecilia ambiguella, Euproctis species, Euxoa species, Grapholita species, Hedya nubiferana, Heliothis species, especially H. virescena and H. zea; Hellula undalis, Hyphantria cunea, Keiferia lycopersicella, this Species, Lyonetia species, Malacosoma species, Mamestra brassicae, Manduca sexta, Operophtera species, Ostrinia nubilal is, Pammene species, Pandemis species, Panolis flammea, Pectinophora species, Phthhorimaea operculella, Pieris rapae, Pieris species, Plutella xylostella, Prays species, Scirpophaga species, Sesamia species, Sparganothis species, Spodoptera Synanthed species, Spodoptera Synanthed species Trichoplusia ni and Yponomeuta species;

  From Coleoptera, for example, Agriotes species, Anthonomus species, Atomaria linearis, Chaetocnema tibialis, Cosmopolites species, Curculio species, Dermestes species, Diabrotica species, Epilachna species, Eremnus species, Leptinotarsa decemlineata species, Lissorhopelosphilus species Phlyctinus species, Popilla species, Psylliodes species, Rhizopertha species, Scarabeidae, Sitophilus species, Sitotroga species, Tenebrio species, Tribolium species and Trogoderma species;

  From the order Orthoptera, for example, Blatta, Blattella, Gryllotalpa, Leucophaca maderae, Locusta, Periplaneta and Schistocerca;

  From the order Isoptera, for example Reticulitermes species;

  From the order Psocoptera, for example Liposcelis species;

  From the order Anoplura, for example Haematopinus species, Linognathus species, Pediculus species, Pemphigus species and Phylloxera species;

  From Mallophaga, for example, Damalinea species and Trichodectes species;

  From the order Thysanoptera, for example, Frankliniella species, Hercinothrips species, Taeniothrips species, Thripas palmi, Thrips tabaci and Scirtothrips aurantii;

  From the order Heteroptera, for example, Cimex species, Diatantiella theobroma, Dysdercus species, Euchistus species Eurygaster species Leptocorisa species, Nezara species, Piesma species, Rhodnius species, Sahlbergella singularis species, Scotinophara species and Triatoma species;

  From Homoptera, for example, Aleurothrixus floccosus, Aleyrodes brassicae, Aonidiella aurantii, Aphididae, Aphis craccivige, A. fabae, A. gossypii; Aspidiotus species, Bemisia tabaci, Ceroplaster species, Chrysomdictus hemidium , Erythroneura, Gascardia, Laodelphax, Lecanium corni, Lepidosaphes, Macrosiphus, Myzus, especially M.persicae; Nephotettix, especially N. cincticeps; Nilaparvata, especially N. lugens; Paratoria, Pemphicus, Planem Species, Pseudaulacaspis species, Pseudococcus species, especially P. Fragilis, P. citriculus and P. comatocki; Psylla species, especially P. pyri; Pulvinaria aethiopica, Quadraspidiotus species, Rhopalosiphum species, Saissetia species, Scaphoideus species, Scaphoiza Trialeurodes vaporariorum, Trioza erytreae and Unaspis citri;

  From the order Hymenoptera, for example, Acromyrmex, Atta species, Cephus species, Diprion species, Diprionidae, Gilpinia polytoma, Hoplocampa species, Lasius species, Monomorium pharaonis, Neodiprion species, Solenopsis species and Vespa species;

  From Diptera, for example, Aedes species, Antherigona soccata, Bibio hortulanus, Calliphora erythrocephala, Ceratitis species, Chrysomyia species, Culex species, Cuterebra species, Dacus species, Drosophila melanogaster, Fannia species, Gastrophilus species, Gpo Liriomyza species, Lucilia species, Melanagromyza species, Musca species, Oestrus species, Orseolia species, Oscinella frit, Pegomyia hyoscyami, Phorbia species, Rhagoletis pomonella, Sciara species, Stomoxys species, Tabanus species, Tipula species and Tipula species

  From the order Siphonaptera, for example Ceratophyllus species and Xenopsylla cheopis;

  Eyes from Thysanura, for example Lepisma saccharina, and

  From the order Acarina, for example, Acarus siro, Aceria sheldoni; Aculus species, especially A. schlechtendali; Amblyomma species, Argas species, Boophilus species, Brevipalpus species, especially B. caiflornicus and B. phoenicis species; gallinae, Eotetranychus species, especially E.carpini and E. orientalis; Eriophyes species, especially E. vitis; Hyalomma species, Ixodes species, Olygonychus pratensis, Ornithodoros species, Panonychus species, especially P. ulmi and P. citri; species Phyllocoptru P. oleivora; Polyphagotarsonemus species, especially P. latus; Psoroptes species, Rhipicephalus species, Rhizoglyphus species, Sarcoptes species, Tarsonemus species and Tetranychus species, especially T. urticae, T. cinnabarinus and T. Kanzawai.

Representative of the rope Nematoda;
(1) A nematode selected from the group consisting of root knot nematodes, cyst-forming nematodes, stem eelworms and foliar nematodes;
(2) Anguina species; Aphelenchoides species; Ditylenchus species; Globodera species, such as Globodera rostochiensis; Heterodera species, such as Heterodera avenae, Heterodera glycines, Heterodera schachtii or Heterodera trifolii; Eg, Pratylenchus neglectans or Pratylenchus penetrans; Radopholus species, eg Radopholus similis; Trichodorus species; Tylenchulus, eg Tylenchulus semipenetrans; and nematodes selected from the group consisting of Xiphinema species;
(3) Nematodes selected from the group consisting of Heterodera species such as Heterodera glycines; and Meloidogyne species such as Meloidogyne incognita.

  The method according to the invention is mainly used in agriculture, in horticulture and in forests, mainly useful plants and ornamental plants or parts thereof, such as the fruits, flowers, leaves, stalks, tubers or roots of such plants, in particular transformed plants. All pests of the type described above that occur against In some cases, protection against these pests extends to parts of the plant that are formed at a later point in time.

  The method according to the invention is for example in cereals such as rice, corn or sorghum; fruits such as apples, pears, plums, peaches, almonds, cherries or berries (eg strawberries, raspberries and blackberries); In fruit and soft fruits; in legumes such as beans, lentils, peas or soybeans; oilseed, rape, mustard, poppy, olives, sunflower, coconut, castor oil plants, cacao or peanuts, etc. In oil crops; in pumpkin (marrow) such as pumpkin, cucumber or melon; in fiber plants such as cotton, flax, cannabis or jute; in citrus fruits such as orange, lemon, grapefruit or tangerine; spinach, lettuce, asparagus gas, In vegetables such as cabbage, carrot, onion, tomato, potato, beet or pepper; in laurels such as avocado, cinnamon or camphor; or tobacco, nuts, coffee, eggplant plant, sugar radish, tea, pepper, vines In hops, bananas, latex plants or ornamental plants; mainly in corn, rice, cereals, soybeans, tomatoes, cotton, potatoes, sugar radish, rice and mustard; especially cotton, rice, soybeans, potatoes And can be advantageously used to control pests in corn.

  The method according to the invention is of prophylactic and / or therapeutic value in the field of pest control even at low use concentrations of the agrochemical composition, whereby a highly advantageous biocidal spectrum is achieved. It was revealed. Combined with the advantageous suitability of the composition when used with warm-blooded animals, fish and plants, the method according to the invention should be protected from attack by pests as well as those of normal sensitivity Depending on the species of transformed crop plant, it can be used for all or individual developmental stages of normally resistant pests, such as representatives of worms and mites. The insecticidal and / or acaricidal effect of the method according to the invention is directly, i.e. immediately or after a certain period of time, e.g. during molting, or indirectly. For example, it can be manifested in a reduced egg production and / or hatching rate. A good effect corresponds to an extermination rate (mortality) of at least 40-50%.

  Depending on the intended purpose and widely practiced situation, pesticides known per se within the scope of the invention are emulsifiable concentrates, suspension concentrates, directly sprayable or dilutable solutions, spreadable. ) Pastes, diluted emulsions, wettable powders, soluble powders, dispersible powders, dusts, granules or polymeric substances including nitroimino or nitroguanidino compounds.

  The active ingredient is in these compositions at least one of the auxiliaries such as extenders (eg solvents or solid carriers or surfactant compounds (surfactants)) conventionally used in formulation techniques. Used with.

  Formulation aids used are, for example, solid carriers, solvents, stabilizers, “slow release” aids, colorants, and where appropriate surfactants (surfactants). Suitable carriers and auxiliaries are all those substances conventionally used as crop protection products. Suitable auxiliaries such as solvents, solid carriers, surfactant compounds, nonionic surfactants, cationic surfactants, anionic surfactants, and other auxiliaries in the compositions used according to the present invention are European Patent Publication No. 736 252.

  These compositions for controlling pests can be formulated, for example, as wettable powders, powders, dusts, granules, solutions, emulsifiable concentrates, emulsions, suspension concentrates or aerosols. is there. For example, these compositions are of the type described in EP 736 252.

  The action of the compositions within the scope of the invention comprising nitroimino or nitroguanidino compounds is substantially extended by adding other insecticide, acaricide and / or fungicidal active ingredients. Can be adapted to the general practice. Suitable examples of active ingredients added are representative of the following classes of active ingredients: organophosphorus compounds, nitrophenols and derivatives, formamidines, ureas, carbamates, pyrethroids, chlorinated carbonization Hydrogens; particularly preferred components in the mixture include, for example, abamectin, emamectin, spinosad, pymetrozine, fenoxycarb, imidacloprid, Ti-435, fipronil ), Pyriproxyfen, diazinon or diafenthiuron.

  In general, compositions within the scope of the present invention comprise 0.1-99%, especially 0.1-95% nitroimino or nitroguanidino compounds and 1-99.9%, especially 5-99.9% less. In general, 0-25%, in particular 0.1-20% of the composition may be a surfactant ("%" in the individual case is Mass% (weight%). For commercial products, concentrated compositions are more preferred, but end-users will generally use diluted compositions having a much lower concentration of the active ingredient.

  The composition according to the invention comprises other solid or liquid auxiliaries, such as stabilizers, such as epoxidized or non-epoxidized vegetable oils (eg epoxidized coconut oil, rapeseed oil or soybean oil), antifoam agents, For example, silicone oils, preservatives, viscosity modifiers, binders and / or tackifiers, as well as active ingredients to achieve fertilizers or other specific effects (eg bactericides, fungicides, nematicides, softeners) Animal agents or herbicides).

The composition according to the invention can be obtained in a known manner, for example, prior to mixing with an auxiliary agent or agents, eg, to give a specific particle size, for example by grinding, sieving and / or sieving the active ingredient. Manufactured by compression and / or by fully mixing and / or grinding the active ingredient with the aid or auxiliaries.
The method according to the invention for controlling pests of the type described above can be carried out in a manner known to the person skilled in the art according to the intended purpose and the general practice, i.e. the composition can be sprayed, moistened, sprayed, dared. Sting, brushing-on, seed dressing, spraying or pouring. Typical use concentrations are between 0.1 and 1000 ppm active ingredient, preferably between 0.1 and 500 ppm. Application rates can vary within a wide range, including soil composition, type of application (foliar application; seed dressing; application in seed lines), transformed crop plants, pests to be controlled, individual cases Depends on general climatic conditions, other factors determined by the type of application, timing of application, and target crop. The application rate per hectare is generally 1 to 2000 g, in particular 10 to 1000 g / ha, preferably 10 to 500 g / ha, in particular 10 to 200 g / ha nitroimino or nitroguanidino compound per hectare.

A preferred type of application in the field of crop protection within the scope of the present invention is leaf application (leaf application). The frequency of application and the rate of application can be adapted to the risk of invasion by the pathogen.
However, the root system from the soil can be obtained by drenching the site of the plant with a liquid formulation or by applying its active ingredients in the solid form, eg in the form of granules (soil application) in the soil. Can also be put into plants via (systemic application). In the case of paddy rice, such a granule may be metered into a flooded rice field.

  The composition according to the invention is also suitable for protecting the propagation material of transformed plants, such as fruits, tubers or kernel, or plant cutting, from harmful animals, particularly those of the order of insects and mites. Yes. The propagation material is treated with the composition prior to application, for example, the seed can be dressed prior to sowing. The active ingredients may be applied (coated) to the seed kernel by dipping the kelnel in a liquid composition or by coating them with a solid composition. When applied to the propagation material, the composition may be applied to the application site, eg, the seed line during sowing. These treatment methods of plant propagation material, and the plant propagation material thus treated are also a further subject of the present invention.

  Examples of formulations of nitroimino or nitroguanidino compounds that can be used in the process according to the invention, such as solutions, granules, dust, sprayable powders, emulsion concentrates, coated granules, and suspension concentrates are described, for example, in European patents. Publication No. 580 553 (examples Fl to Fl0).

Table B
The following abbreviations are used in the table:
Activity principle of transformed plants: AP
Photorhabdus luminescens: PL
Xenorhabdus nematophilus: XN
Proteinase inhibitors: Plnh.
Plant lectin: Plec
Agglutinin: Aggl.
3-hydroxysteroid oxidase: HO
Cholesterol oxidase: CO
Chitinase: CH
Glucanase: GL
Stilbene synthase: SS

Biological example
Table 1: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising application of thiamethoxam to transformed cotton, corresponding to any one of 1170 individual combinations.

Table 2: The principles of activity expressed by the transformed plants and the pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests comprising application of thiamethoxam to transformed rice, corresponding to any one of 1170 individual combinations.

Table 3: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in B. of Table B. 1-B. A method for controlling pests comprising application of thiamethoxam to transformed potatoes, corresponding to any one of 1170 individual combinations.

Table 4: The principles of activity expressed by transformed plants and the pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests comprising application of thiamethoxam to transformed Brassica, corresponding to any one of 1170 individual combinations.

Table 5: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in B. of Table B. 1-B. A method for controlling pests comprising application of thiamethoxam to transformed tomatoes, corresponding to any one of 1170 individual combinations.

Table 6: The principles of activity expressed by the transformed plants and the pests to be controlled are shown in Table B. 1-B. A method for controlling pests comprising application of thiamethoxam to transformed cucubits plants corresponding to any one of 1170 individual combinations.

Table 7: The combination of the principles of activity expressed by the transformed plants and the pests to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising application of thiamethoxam to transformed soybeans, corresponding to any one of 1170 individual combinations.

Table 8: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in B. of Table B. 1-B. A method of controlling pests comprising application of thiamethoxam to transformed corn, corresponding to any one of 1170 individual combinations.

Table 9: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising application of thiamethoxam to transformed wheat, corresponding to any one of 1170 individual combinations.

Table 10: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method of controlling pests comprising application of thiamethoxam to transformed bananas, corresponding to any one of 1170 individual combinations.

Table 11: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method of controlling pests comprising application of thiamethoxam to transformed citrus trees corresponding to any one of 1170 individual combinations.

Table 12: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising application of thiamethoxam to transformed pear fruit trees corresponding to any one of 1170 individual combinations.

Table 13: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method of controlling pests comprising application of thiamethoxam to transformed pepper, corresponding to any one of 1170 individual combinations.

Table 14: Combinations of the principles of activity expressed by the transformed plants and the pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests comprising the application of imidacloprid to transformed cotton corresponding to any one of 1170 individual combinations.

Table 15: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests, comprising applying imidacloprid to transformed rice, corresponding to any one of 1170 individual combinations.

Table 16: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests, including application of imidacloprid to transformed potato, corresponding to any one of 1170 individual combinations.

Table 17: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in B. of Table B. 1-B. A method of controlling pests, including application of imidacloprid to transformed tomatoes, corresponding to any one of 1170 individual combinations.

Table 18: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising the application of imidacloprid to a transformed Cucurbitaceae plant corresponding to any one of 1170 individual combinations.

Table 19: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising the application of imidacloprid to transformed soybeans, corresponding to any one of 1170 individual combinations.

Table 20: The combination of the principles of activity expressed by the transformed plants and the pests to be controlled is shown in Table B.B. 1-B. A method of controlling pests, comprising applying imidacloprid to transformed corn, corresponding to any one of 1170 individual combinations.

Table 21: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests comprising the application of imidacloprid to transformed wheat, corresponding to any one of 1170 individual combinations.

Table 22: Principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests, comprising applying imidacloprid to transformed bananas, corresponding to any one of 1170 individual combinations.

Table 23: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests, comprising applying imidacloprid to transformed orange trees, corresponding to any one of 1170 individual combinations.

Table 24: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B. 1-B. A method of controlling pests, comprising applying imidacloprid to transformed pear fruit, corresponding to any one of 1170 individual combinations.

Table 25: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in B. of Table B. 1-B. A method of controlling pests, comprising applying imidacloprid to a transformed Cucurbitaceae corresponding to any one of 1170 individual combinations.

Table 26: The combination of the principles of activity expressed by the transformed plants and the pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests, comprising applying imidacloprid to transformed pepper, corresponding to any one of 1170 individual combinations.

Table 27: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method of controlling pests comprising application of Ti-435 to transformed cotton corresponding to any one of 1170 individual combinations.

Table 28: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising application of Ti-435 to transformed rice, corresponding to any one of 1170 individual combinations.

Table 29: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests comprising application of Ti-435 to transformed potatoes, corresponding to any one of 1170 individual combinations.

Table 30: The combination of the principles of activity expressed by the transformed plants and the pests to be controlled is shown in Table B.B. 1-B. A method of controlling pests, including application of Ti-435 to transformed Brassica, corresponding to any one of 1170 individual combinations.

Table 31: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests comprising application of Ti-435 to transformed tomatoes, corresponding to any one of 1170 individual combinations.

Table 32: Principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests comprising application of Ti-435 to transformed Cucurbitaceae plants corresponding to any one of 1170 individual combinations.

Table 33: The combination of the principle of activity expressed by the transformed plants and the pests to be controlled is shown in Table B.B. 1-B. A method of controlling pests comprising application of Ti-435 to transformed soybeans, corresponding to any one of 1170 individual combinations.

Table 34: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests, including application of Ti-435 to transformed corn, corresponding to any one of 1170 individual combinations.

Table 35: The combination of the principles of activity expressed by the transformed plants and the pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests comprising application of Ti-435 to transformed wheat, corresponding to any one of 1170 individual combinations.

Table 36: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests, including application of Ti-435 to transformed bananas, corresponding to any one of 1170 individual combinations.

Table 37: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method of controlling pests, including application of Ti-435 to transformed citrus trees, corresponding to any one of 1170 individual combinations.

Table 38: The combination of the principles of activity expressed by the transformed plants and the pests to be controlled is shown in Table B.B. 1-B. A method of controlling pests comprising application of Ti-435 to transformed pear fruit trees corresponding to any one of 1170 individual combinations.

Table 39: Principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests comprising application of thiacloprid to transformed cotton, corresponding to any one of 1170 individual combinations.

Table 40: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising application of thiacloprid to transformed rice, corresponding to any one of 1170 individual combinations.

Table 41: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests comprising application of thiacloprid to transformed potatoes, corresponding to any one of 1170 individual combinations.

Table 42: Principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests comprising application of thiacloprid to transformed Brassica corresponding to any one of 1170 individual combinations.

Table 43: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests, comprising application of thiacloprid to transformed tomatoes, corresponding to any one of 1170 individual combinations.

Table 44: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B. 1-B. A method for controlling pests comprising application of thiacloprid to a transformed Cucurbitaceae plant corresponding to any one of 1170 individual combinations.

Table 45: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising application of thiacloprid to transformed soybeans, corresponding to any one of 1170 individual combinations.

Table 46: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests comprising application of thiacloprid to transformed corn, corresponding to any one of 1170 individual combinations.

Table 47: Combinations of principles of activity expressed by transformed plants and pests to be controlled are shown in Table B.B. 1-B. A method for controlling pests comprising application of thiacloprid to transformed wheat, corresponding to any one of 1170 individual combinations.

Table 48: The combination of the principle of activity expressed by the transformed plant and the pest to be controlled is shown in Table B.B. 1-B. A method for controlling pests comprising application of thiacloprid to a transformed banana, corresponding to any one of 1170 individual combinations.

Table C:
Abbreviations:
Acetyl CoA carboxylase: ACCase
Acetolactate synthase: ALS
Hydroxyphenylpyruvate dioxygenase: HPPD
Inhibition of protein synthesis: IPS
Hormone analog (mimic): HO
Glutamine synthetase: GS
Protoporphyrinogen oxidase: PROTOX
5-Enolpyruvoyl-3-phosphoshikimate synthase: EPSPS

  ***: Includes sulfonylureas, imidazolinones, triazolopyrimidines, dimethoxypyrimidines and N-acylsulfonamides:

  Chlorsulfuron, Chlorimuron, Ethamethsuifuron, Metsulfuron, Primisulfuron, Prosulfuron, Trisulfuron, Trisulfuron, Cinosulfuron, Cinosulfuron Rufulon (Trifusulfuron), Oxasulfuron (Oxasulfuron), Bensulfuron (Bensulfuron), Tribenuron (Tribenuron), ACC322140, Flutazasulfuron (Fluzasulron), Ethoxysulfuron (Ethoxysulfuron), Flutazasdulfuron (Fluzasdulfuron) Nicosulfuron, Rimsulfuron, Thifensulfuron, Pyrazosulfuron, Clopyrasulfuron, NC330, Azimsulfuron, Imma Surufuron (Imazosulfuron), sul Foss iodosulfuron (Suflosulfuron), amidosulfuron (Amidosulfuron), full piston iodosulfuron (Flupyrsulfuron), sulfonylureas such as CGA362622;

  Imidazolinones such as Imazamethabenz, Imazaquin, Imazamethypyr, Imazethapyr, Imazapyr, and Imazamox;

  Triazolopyrimidines such as DE511, Flumetsulam and Chloransulam;

  Dimethoxypyrimidines such as Pyrithiobac, Pyriminobac, Bispyribac, and Pyribenzoxim.

  ++++: Diclofop-methyl, Fluazifop-P-butyl, Haloxyfop-P-methyl, Haloxyfop-P-ethyl, Kizarafop-P-ethyl, Clodinafop propargyl, fenoxaprop-ethyl, -Tepraloxydim, Alloxydim, Sethoxydim ), Cycloxydim, Cloproxydim, Tralkoxydim, Butoxydim, Caloxydim, Clefoxydim, Clethodim.

  &&&: Chloroacetanilides such as alachlor, acetochlor, and dimethenamid.

  ///: Protox inhibitors: for example, Acifluorfen, Aclonifen, Bifenox, Chloromtrofen, Ethoxyfen, Fluoroglycofen, Fomesafen, Lactofen (Lactofen), Oxyfluorfen and other dipheniethers; Azafenidin, Carfentrazone-ethyl, Cinidon-ethyl, Full microlac-pentyl (Flumiclorac- Imidos such as pentyl, flumioxazin, fluthiacet-methyl, oxadiaargyl, oxadiazon, pentoxazone, sulfentrazone, etc .; Down (Flumipropyn), Furupuropashiru (Flupropacil), Nipirakurofen imides such as (Nipyraclolen) and Chiajiajimin (Thidiazimin) Others; and, further Furuazoreto (Fluazolate) and pyraflufen - ethyl (Pyraflufen-ethyl).

Biological example
Table 49: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Adoxophyes comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 50: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Agrotis comprising the application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 51: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling Alabama argillaceae comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 52: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Antiarsia gemmatalis comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 53: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Chilo comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 54: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Clysia ambiguella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 55: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Cnephalocrocis comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 56: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Crocodomiria binotalis comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 57: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Cydia comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 58: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Diparopsis castanea comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 59: Combinations of principles of activity expressed by transformed plants and crops to be protected against pests are shown in line C. 1-C. 108. A method of controlling a representative of the genus Earias comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 60: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Ephestia comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 61: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Heliothis comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 62: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Hellula undalis comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 63: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Keiferia lycopersicella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 64: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Leucoptera scitella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 65: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Lithocollethis comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 66: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling the genus Lobesia botrana, comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 67: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Ostrinia nubialalis comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 68: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Pandemis comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 69: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Pectinophora gossypiella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 70: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Phyllocnistis citrella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 71: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Pieris comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 72: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Plutella xylostella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 73: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling the genus Scirpophaga comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 74: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in Table C. 1-C. 108. A method for controlling a representative of the genus Sesamia comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 75: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Sparganothis comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 76: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling representatives of Spodoptera, including application of thiamethoxam to herbicide-tolerant transformed crops corresponding to any one of 108.

Table 77: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Tortrix comprising the application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 78: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Trichoplusia ni comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 79: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling representatives of the genus Agriotes comprising application of thiamethoxam to herbicide-tolerant transformed crops corresponding to any one of 108.

Table 80: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Anthonomus grandis comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 81: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Curculio comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 82: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Diabrotica balteata comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 83: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Leptinotarsa comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 84: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Lissorhoptrus comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 85: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Otiorhynchus comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 86: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aleurothrixus comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 87: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Aleyrodes comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 88: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aonidiella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 89: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the family Aphididae comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 90: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aphis comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 91: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling the genus Bemisia tabaci comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 92: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Empoasca comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 93: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Mycus comprising the application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 94: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Nephotettix, comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 95: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Nilaparvata comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 96: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Pseudococcus comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 97: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Psylla comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 98: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Quadraspidiotus, comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 99: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Schizaphis comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 100: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Trialeurodes comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 101: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Lyriomyza comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 102: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Oscinella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 103: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Phorbia comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 104: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Frankliniella comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 105: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Thrips comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 106: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling Scirtothrips aurantii comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 107: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aceria comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 108: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Aculus comprising the application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 109: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Brevipalpus comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 110: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Panonychus comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 111: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Phyllocoptruta comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 112: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Tetranychus, comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 113: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Heterodera comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 114: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in Table C. 1-C. 108. A method of controlling a representative of the genus Meloidogyne comprising application of thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 115: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling the genus Mamestra brassica comprising applying thiamethoxam to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 116: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Adoxophyes comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 117: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Agrotis, comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 118: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling Alabama argillaceae comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 119: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Anticarsia gemmatalis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 120: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Chilo comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 121: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Clysia ambiguella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 122: Combinations of principles of activity expressed by transformed plants and crops to be protected against pests are shown in line C. 1-C. 108. A method for controlling a representative of the genus Cnephalocrocis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 123: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Crocodolomia binotalis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 124: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Cydia comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 125: Combinations of principles of activity expressed by transformed plants and crops to be protected against pests are shown in line C. 1-C. 108. A method for controlling Diparopsis castanea comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 126: Combinations of principles of activity expressed by transformed plants and crops to be protected against pests are shown in line C. 1-C. 108. A method of controlling a representative of the genus Earias comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 127: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Ephestia comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 128: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Heliothis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 129: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Hellula undalis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 130: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Keiferia lycopersicella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 131: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Leucoptera scitella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 132: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Lithocollethis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 133: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Lobesia botrana comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 134: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling Ostrinia nubialalis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 135: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Pandemis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 136: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Pectinophora gossypiella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 137: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Phyllocnistis citrella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 138: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Pieris comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 139: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Plutella xylostella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 140: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling the genus Scirpophaga comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 141: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Sesamia comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 142: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Sparganothis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 143: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling representatives of Spodoptera, including application of imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 144: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Tortrix comprising the application of imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 145: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Trichoplusia ni comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 146: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Agriotes comprising application of imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 147: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling Anthonomus grandis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 148: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Curculio comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 149: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Diabrotica balteata comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 150: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Leptinotarsa comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 151: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Lissorhoptrus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 152: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Otiorhynchus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 153: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aleurothrixus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 154: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aleyrodes comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 155: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Aonidiella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 156: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in Table C, line C. 1-C. 108. A method for controlling a representative of the family Aphididae comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 157: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aphis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 158: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling the genus Bemisia tabaci comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 159: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Empoasca comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 160: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Mycus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 161: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Nephotettix, comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 162: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Nilaparvata comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 163: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Pseudococcus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 164: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Psylla comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 165: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Quadraspidiotus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 166: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Schizaphis comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 167: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Trialeurodes, comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 168: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Lyriomyza comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 169: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Oscinella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 170: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Phorbia, comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 171: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Frankliniella comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 172: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Thrips comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 173: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling Scirtothrips aurantii comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 174: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aceria comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 175: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aculus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 176: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Brevipalpus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 177: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Panonychus comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 178: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the family Phyllocoptruta comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 179: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Tetranychus, comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 180: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Heterodera comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 181: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Meloidogyne, comprising applying imidacloprid to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 182: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Adoxophyes comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 183: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Agrotis comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 184: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling Alabama argillaceae comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 185: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Antiarsia gemmatalis comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 186: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Chilo comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 187: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling Clysia ambiguella comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 188: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Crocodolomia binotalis comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 189: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Cydia comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 190: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling Diparopsis castanea comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 191: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in Table C. 1-C. 108. A method of controlling a representative of the genus Earias comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 192: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Ephestia, comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 193: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Heliothis comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 194: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Hellula undalis comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 195: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Keiferia lycopersicella comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 196: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Leucoptera scitella comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 197: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Lithocollethis comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 198: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Lobesia botrana comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 199: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Ostrinia nubialalis comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 200: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Pandemis comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 201: The combination of the principle of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling Pectinophora gossypiella comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 202: Combinations of principles of activity expressed by transformed plants and crops to be protected against pests are shown in line C. 1-C. 108. A method of controlling Phyllocnistis citrella comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 203: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Pieris comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 204: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Plutella xylostella comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 205: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling the genus Scirpophaga comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 206: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Sesamia comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 207: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Sparganothis comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 208: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling representatives of Spodoptera, including application of Ti-435 to herbicide-tolerant transformed crops corresponding to any one of 108.

Table 209: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Tortrix comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 210: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Trichoplusia ni comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 211: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Agriotes comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 212: Combinations of principles of activity expressed by transformed plants and crops to be protected against pests are shown in line C. 1-C. 108. A method of controlling Anthonomus grandis comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 213: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Curculio comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 214: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling Diabrotica balteata comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 215: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Leptinotarsa comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 216: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Lissorhoptrus comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 217: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Otiorhynchus comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 218: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Aleurothrixus comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 219: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Aleyrodes comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 220: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aonidiella comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 221: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the family Aphididae comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 222: Combinations of principles of activity expressed by transformed plants and crops to be protected against pests are shown in line C. 1-C. 108. A method for controlling a representative of the genus Aphis comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 223: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling the genus Bemisia tabaci comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 224: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Empoasca comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 225: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Mycus comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 226: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Nephotettix comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 227: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Nilaparvata comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 228: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Pseudococcus comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 229: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Psylla comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 230: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Quadraspidiotus comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 231: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Schizaphis comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 232: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Trialeurodes comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 233: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Lyriomyza comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 234: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Oscinella comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 235: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Phorbia comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 236: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in Table C. 1-C. 108. A method for controlling a representative of the genus Frankliniella comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 237: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Thrips, comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 238: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling Scirtothrips aurantii comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 239: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Aceria comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 240: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Aculus comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 241: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Brevipalpus comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 242: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Panonychus comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 243: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the family Phyllocoptruta comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 244: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Tetranychus, comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 245: The combination of the principles of activity expressed by the transformed plants and the crops to be protected against pests is shown in line C. 1-C. 108. A method of controlling a representative of the genus Heterodera comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 246: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method for controlling a representative of the genus Meloidogyne comprising application of Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Table 247: The combination of the principle of activity expressed by the transformed plant and the crop to be protected against pests is shown in line C. 1-C. 108. A method of controlling the genus Mamestra brassica comprising applying Ti-435 to a herbicide-tolerant transformed crop corresponding to any one of 108.

Example B1 : Action against adult Anthonomus grandis, Spodootera littoralis or Heliothis virescens Young transformed cotton plants expressing δ-endotoxin CryIIIA are mixed with an aqueous emulsion spray mixture containing 100, 50, 10, 5, 1 ppm imidacloprid, respectively. Spray. After the spray coating has dried, 10 adult Anthonomus grandis larvae, 10 Spodootera littoralis larvae or 10 Heliothis virescens larvae are each planted in cotton plants and introduced into plastic containers. Evaluation is made after 3 to 10 days. Percentage reduction in population or percentage reduction in feeding damage (% effect) is the number of beetles killed on transformed cotton plants and the number of feeding damage, with imidacloprid and conventional CryIIIA-toxin in each case 100 , 50, 10, 5, and 1 ppm by comparison with those on non-transformed cotton plants treated with emulsion spray mixtures, respectively.

  In this test, the insect control tested in transformed plants is superior to that in non-transformed plants.

Example B2 : Action on adult Anthonomus grandis, Spodootera littoralis or Heliothis virescens Young transformed cotton plants expressing δ-endotoxin CryIIIA are mixed with aqueous emulsion spray mixtures containing 100, 50, 10, 5, 1 ppm thiamethoxam, respectively. Spray. After the spray coating has dried, cotton plants are planted with 10 adult Anthonomus grandis larvae, 10 Spodootera littoralis larvae or 10 Heliothis virescens larvae, respectively, and introduced into plastic containers. Evaluation is made after 3 to 10 days.
Percentage reduction in population or percentage reduction in feeding damage (% effect) is the number of beetles killed on transformed cotton plants and the number of feeding damage, in each case 100% thiamethoxam and conventional CryIIIA-toxins. , 50, 10, 5, and 1 ppm by comparison with those on non-transformed cotton plants treated with emulsion spray mixtures, respectively.

  In this test, the control of insects tested in transformed plants is excellent, while that in untransformed plants is inadequate.

Example B3 : Action on adult Anthonomus grandis, Spodootera littoralis or Heliothis virescens A young cotton plant transformed with δ-endotoxin CryIIIA, aqueous emulsion spray containing 100, 50, 10, 5, 1 ppm of Ti-435 Spray with mixture. After the spray coating has dried, cotton plants are planted with 10 adult Anthonomus grandis larvae, 10 Spodootera littoralis larvae or 10 Heliothis virescens larvae, respectively, and introduced into plastic containers. Evaluation is made after 3 to 10 days. Percentage reduction in population or percentage reduction in feeding damage (% effect) is the number of beetles killed on transformed cotton plants and the number of feeding damage, individually with Ti-435 and conventional CryIIIA-toxins. In comparison with that on non-transformed cotton plants treated with emulsion spray mixtures containing concentrations of 100, 50, 10, 5, 1 ppm respectively.

  In this test, the control of insects tested in transformed plants is excellent, while that in untransformed plants is inadequate.

Example B4 : Action against adult Anthonomus grandis, Spodootera littoralis or Heliothis virescens Young transformed cotton plants expressing δ-endotoxin CryIa (c) contain 100, 50, 10, 5, 1 ppm of Ti-435, respectively Spray with aqueous emulsion spray mixture. After the spray coating has dried, cotton plants are planted with 10 adult Anthonomus grandis larvae, 10 Spodootera littoralis larvae or 10 Heliothis virescens larvae, respectively, and introduced into plastic containers. Evaluation is made after 3 to 10 days. Percentage reduction in population or percentage reduction in feeding damage (% effect) is the number of beetles killed on transformed cotton plants and the number of feeding damage, individually with Ti-435 and conventional CryIIIA-toxins. In comparison with that on non-transformed cotton plants treated with emulsion spray mixtures containing concentrations of 100, 50, 10, 5, 1 ppm respectively.

  In this test, the control of insects tested in transformed plants is excellent, while that in untransformed plants is inadequate.

Example B5 : Action on adult Anthonomus grandis, Spodootera littoralis or Heliothis virescens A young cotton plant transformed with δ-endotoxin CryIa (c) containing 100, 50, 10, 5, 1 ppm thiamethoxam Spray with spray mixture. After the spray coating has dried, cotton plants are planted with 10 adult Anthonomus grandis larvae, 10 Spodootera littoralis larvae or 10 Heliothis virescens larvae, respectively, and introduced into plastic containers. Evaluation is made after 3 to 10 days. Percentage reduction in population or percentage reduction in feeding damage (% effect) is the number of beetles killed on transformed cotton plants and the number of feeding damage, in each case 100% thiamethoxam and conventional CryIIIA-toxins. , 50, 10, 5, and 1 ppm by comparison with those on non-transformed cotton plants treated with emulsion spray mixtures, respectively.

  In this test, the control of insects tested in transformed plants is excellent, while that in untransformed plants is inadequate.

Example B6 : Action on adult Anthonomus grandis, Spodootera littoralis or Heliothis virescens A young cotton plant transformed with δ-endotoxin CryIa (c) was added to each aqueous emulsion containing 100, 50, 10, 5, 1 ppm imidacloprid. Spray with spray mixture. After the spray coating has dried, cotton plants are planted with 10 adult Anthonomus grandis larvae, 10 Spodootera littoralis larvae or 10 Heliothis virescens larvae, respectively, and introduced into plastic containers. Evaluation is made after 3 to 10 days. Percentage reduction in population or percentage reduction in feeding damage (% effect) is the number of beetles killed on transformed cotton plants and the number of feeding damage, with imidacloprid and conventional CryIIIA-toxin in each case 100 , 50, 10, 5, and 1 ppm by comparison with those on non-transformed cotton plants treated with emulsion spray mixtures, respectively.

  In this test, the control of insects tested in transformed plants is excellent, while that in untransformed plants is inadequate.

Example B7 : plot (a) planted with corn varieties Knockout (R) showing natural invasion by Ostrinia nubilalis, Spodootera spp. Or Heliothis together with action on Ostrinia nubilalis, Spodootera spp. Adjacent compartments (b) of the same size are sprayed with an aqueous emulsion spray mixture containing 200, 100, 50, 10, 5, 1 ppm Ti-435. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 200, 100, 50, 10, 5, 1 ppm of endotoxin expressed by Knockout®. Evaluation takes place after 6 days. The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b).

Improved control of Ostrinia nubilalis, Spodootera species or Heliothis is observed on the plant in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B8 : plot (a) planted with corn varieties Knockout (registered trademark) showing invasion by natural Ostrinia nubilalis, Spodootera spp. Or Heliothis together with action on Ostrinia nubilalis, Spodootera spp. Adjacent compartments (b) of the same size are sprayed with an aqueous emulsion spray mixture containing 200, 100, 50, 10, 5, 1 ppm thiamethoxam. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 200, 100, 50, 10, 5, 1 ppm of endotoxin expressed by Knockout®. Evaluation takes place after 6 days. The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b).

Improved control of Ostrinia nubilalis, Spodootera species or Heliothis is observed on the plant in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B9 : plot (a) planted with corn varieties Knockout (R) showing natural invasion by Ostrinia nubilalis, Spodootera spp. Or Heliothis together with action on Ostrinia nubilalis, Spodootera spp. Adjacent compartments (b) of the same size are sprayed with an aqueous emulsion spray mixture containing 200, 100, 50, 10, 5, 1 ppm imidacloprid. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 200, 100, 50, 10, 5, 1 ppm of endotoxin expressed by Knockout®. Evaluation takes place after 6 days. The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b).

Improved control of Ostrinia nubilalis, Spodootera species or Heliothis is observed on the plant in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B10 : Action on Diabrotica balteata An aqueous emulsion containing 400 ppm thiamethoxam, a section (a) planted with seedlings of the corn variety Knockout® and an adjacent section (b) of the same size planted with conventional corn Spray with spray mixture. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of endotoxin expressed by Knockout®. After the spray coating has dried, the seedlings are planted with 10 second stage Diabrotica balteata larvae and transferred to plastic containers. The test is evaluated after 6 days. The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b).

  Improved control of Diabrotica balteata is observed on the plants in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B11 : Action on Aphis gossypii Cotton seedlings on compartment (a) expressing δ-endotoxin CryIIIa on compartment (a) and conventional cotton seedlings on compartment (b) Aphis gossypii And then spray them with a spray mixture containing 400 ppm thiamethoxam. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of δ-endotoxin CryIIIa. The seedlings are then incubated at 20 ° C. The test is evaluated after 3 and 6 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b). Improved control of Aphis gossypii is observed on the plants in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B12 : Action against Frankliniella occidentalis Cotton seedlings expressing δ-endotoxin CryIIIa on compartment (a) and conventional cotton seedlings on compartment (b) are infected with Frankliniella occidentalis, followed by They are sprayed with a spray mixture containing 400 ppm thiamethoxam. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of δ-endotoxin CryIIIa. The seedlings are then incubated at 20 ° C. The test is evaluated after 3 and 6 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b). Improved control of Frankliniella occidentalis is observed on the plants in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B13 : Action against Aphis gossypii Cotton seedlings expressing δ-endotoxin CryIA (c) on compartment (a) and conventional cotton seedlings on compartment (b) are infected with Aphis gossypii, They are subsequently sprayed with a spray mixture containing 400 ppm thiamethoxam. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of δ-endotoxin CryIIIa. The seedlings are then incubated at 20 ° C. The test is evaluated after 3 and 6 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b). Improved control of Aphis gossypii is observed on the plants in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B14 : Action on Frankliniella occidentalis Cotton seedlings expressing δ-endotoxin CryIA (c) on compartment (a) and conventional cotton seedlings on compartment (b) are infected with Frankliniella occidentalis, They are subsequently sprayed with a spray mixture containing 400 ppm thiamethoxam. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of δ-endotoxin CryIA (c). The seedlings are then incubated at 20 ° C. The test is evaluated after 3 and 6 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b). Improved control of Frankliniella occidentalis is observed on the plants in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B15 : Action against Nephotettix cincticeps Spraying a rice plant expressing δ-endotoxin CryIA (b) on compartment (a) and a conventional rice plant on compartment (b) with a spray mixture containing 400 ppm thiamethoxam To do. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of δ-endotoxin CryIA (b). After the spray coating has dried, the plants are infected with the second and third stages of Nephotettix cincticeps. The seedlings in compartments (a) and (b) are then incubated at 20 ° C. The test is evaluated after 21 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b). Improved control of Nephotettix cincticeps is observed on the plants in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B16 : Action on Nephotettix cincticeps (systemic)
A rice plant expressing δ-endotoxin CryIA (b) is planted in pot (a), and a conventional rice plant is planted in pot (b). Pot (a) is placed in an aqueous emulsion containing 400 ppm thiamethoxam, while compartment (b) is placed in a pot containing 400 ppm thiamethoxam and 400 ppm δ-endotoxin CryI (b). The plants are subsequently infected with second and third stage Nephotettix cincticeps larvae. The test is evaluated after 6 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in pot (a) with that on the plant in pot (b). Improved control of Nephotettix cincticeps is observed on plants in pot (a), while pot (b) shows a control level of 60% or less.

Example B17 : Action against Nilaparvata lugens A rice plant expressing δ-endotoxin CryIA (b) on compartment (a) and a conventional rice plant on compartment (b) are infected with Nilaparvata lugens followed by 400 ppm Spray with spray mixture containing thiamethoxam. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of δ-endotoxin CryIA (b). The seedlings in compartments (a) and (b) are incubated at 20 ° C. The test is evaluated after 21 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b). Improved control of Nilaparvata lugens is observed on the plants in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B18 : Action on Nilaparvata lugens (systemic)
A rice plant expressing δ-endotoxin CryIA (b) is planted in pot (a), and a conventional rice plant is planted in pot (b). Pot (a) is placed in an aqueous emulsion containing 400 ppm thiamethoxam, while compartment (b) is placed in a pot containing 400 ppm thiamethoxam and 400 ppm δ-endotoxin CryIA (b). The plants are subsequently infected with the second and third stage Nilaparvata lugens larvae. The test is evaluated after 6 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in pot (a) with that on the plant in pot (b). Improved control of Nilaparvata lugens is observed on plants in pot (a), while pot (b) shows a control level of 60% or less.

Example B19 : Action against Nephotettix cincticeps Spraying a rice plant expressing δ-endotoxin CryIA (c) on compartment (a) and a conventional rice plant on compartment (b) with a spray mixture containing 400 ppm thiamethoxam To do. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of δ-endotoxin CryIA (c). After the spray coating has dried, the plants are infected with the second and third stages of Nephotettix cincticeps. The seedlings in compartments (a) and (b) are then incubated at 20 ° C. The test is evaluated after 21 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b). Improved control of Nephotettix cincticeps is observed on the plants in compartment (a), while compartment (b) shows a control level of 60% or less.

Example B20 : Effect on Nephotettix cincticeps (systemic)
A rice plant expressing δ-endotoxin CryIA (c) is planted in pot (a), and a conventional rice plant is planted in pot (b). Pot (a) is placed in an aqueous emulsion containing 400 ppm thiamethoxam, while compartment (b) is placed in a pot containing 400 ppm thiamethoxam and 400 ppm δ-endotoxin CryI (b). The plants are subsequently infected with second and third stage Nephotettix cincticeps larvae. The test is evaluated after 6 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in pot (a) with that on the plant in pot (b). Improved control of Nephotettix cincticeps is observed on plants in pot (a), while pot (b) shows a control level of 60% or less.

Example B21 : Action against Nilaparvata lugens A rice plant expressing δ-endotoxin CryIA (c) on compartment (a) and a conventional rice plant on compartment (b) are infected with Nilaparvata lugens followed by 400 ppm Spray with spray mixture containing thiamethoxam. Immediately thereafter, compartment (b) is treated with an emulsion spray mixture containing 400 ppm of δ-endotoxin CryIA (c). The seedlings in compartments (a) and (b) are incubated at 20 ° C. The test is evaluated after 21 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in compartment (a) with that on the plant in compartment (b). Improved control of Nilaparvata lugens is observed on the plant in compartment (a), while compartment (b) shows a control level of 60 % or less.

Example B22 : Action on Nilaparvata lugens (systemic)
A rice plant expressing δ-endotoxin CryIA (c) is planted in pot (a), and a conventional rice plant is planted in pot (b). Pot (a) is placed in an aqueous emulsion containing 400 ppm thiamethoxam, while compartment (b) is placed in a pot containing 400 ppm thiamethoxam and 400 ppm δ-endotoxin CryIA (c). The plants are subsequently infected with the second and third stage Nilaparvata lugens larvae. The test is evaluated after 6 days.

The percentage reduction (% effect) in the population is determined by comparing the number of pests killed on the plant in pot (a) with that on the plant in pot (b). Improved control of Nephotettix cincticeps is observed on plants in pot (a), while pot (b) shows a control level of 60% or less.

Claims (7)

  A pesticide composition comprising a nitroimino or nitroguanidino compound in free or agrochemically useful salt form as an active ingredient and at least one auxiliary agent, characterized in that it is applied to pests or their environment A method for controlling pests in crops of useful plants for transformation.   Method according to claim 1, characterized in that thiamethoxam is used.   The process according to claim 1, characterized in that imidacloprid is used.   Process according to claim 1, characterized in that transformed plants are treated.   The method according to any one of claims 1 to 4, wherein the transformed plant of the useful plant is corn.   The method according to claim 1, wherein the transformed plant of the useful plant is soybean.   Process according to claim 4, characterized in that the propagation material of transformed useful plants is treated.