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1 Myzus persicae), an agronomically important insect pest.
2 al, oomycete, and bacterial pathogens and an insect pest.
3 f microbial control organisms for the target insect pest.
4 mes of commercial fruits susceptible to this insect pest.
5 can help guide management of this widespread insect pest.
6 ly interface for real time identification of insect pest.
7 taneum as a viable means of controlling this insect pest.
8 novel crop protection strategy against this insect pest.
9 e sustainable management of this devastating insect pest.
10 rom worldwide populations of an agricultural insect pest.
11 e a means of engineering plant resistance to insect pests.
12 oassayed for resistance to five lepidopteran insect pests.
13 networks that fine-tune plant resistance to insect pests.
14 a plants to study its effect on lepidopteran insect pests.
15 for control of both agricultural and medical insect pests.
16 iendly options for cost-effective control of insect pests.
17 redators that attack them as well as various insect pests.
18 lay an important natural role in controlling insect pests.
19 m and is deployed as a biological control of insect pests.
20 methods, could protect valuable assets from insect pests.
21 n diploid, haplodiploid, and parthenogenetic insect pests.
22 ential for control of commercially important insect pests.
23 Phenacoccus solenopsis, and Bemisia tabaci) insect pests.
24 control agent that is active against several insect pests.
25 s useful for controlling the reproduction of insect pests.
26 t that could be used to control agricultural insect pests.
27 ts in helping to control Anopheles and other insect pests.
28 in developing new strategies for controlling insect pests.
29 atodes and are used around the world to kill insect pests.
30 practical significance for the management of insect pests.
31 rotein controls certain lepidopterous cotton insect pests.
32 sticide against a spectrum of stored-produce insect pests.
33 ime in their availability and suitability to insect pests.
34 rates and offer effective control of certain insect pests.
35 molecules against Coleopteran and Hemipteran insect pests.
36 on and different spectra of activity against insect pests.
37 on as potential biological control agents of insect pests.
38 be used as a general strategy for control of insect pests.
39 targets for controlling a group of notorious insect pests.
40 ed sticky traps are commonly used to monitor insect pests.
41 giensis (Bt) are used globally to manage key insect pests.
42 fits and are important globally for managing insect pests.
43 trol strategies designed to suppress harmful insect pests.
44 y species-specific approaches for control of insect pests.
45 eraction between plants and piercing/sucking insect pests.
46 s that are implicated in resistance in other insect pests.
47 e employed as such for biological control of insect pests.
48 uzzles and provide new tools for controlling insect pests.
49 elies on the use of agrochemicals to control insect pests.
50 rategies against many agriculture and forest insect pests.
51 synthetic chemical tools in the for control insect pests.
52 ains in other major medical and agricultural insect pests.
53 ng a diverse range of agricultural and other insect pests.
54 ngus-insecticide integration against sucking insect pests.
55 lications for the control of highly damaging insect pests.
56 non-lethal effects for biological control of insect pests.
57 ingiensis (Bt) are grown worldwide to manage insect pests.
58 use and, specifically, pesticides targeting insect pests.
59 laboratory findings to inform forecasting of insect pests.
60 tle progress has been made with agricultural insect pests.
61 strategies against these major agricultural insect pests.
62 sed of wood-boring insects, including forest insect pests.
63 ing Allee effects and consequently eradicate insect pests.
64 ed defense (immunity), and the deterrence of insect pests.
65 re defenses in response to olfactory cues of insect pests.
66 plied on trees as protection measure against insect pests.
67 en widely used for the biological control of insect pests.
68 urability of Bt crops for management of some insect pests.
69 ies for selectively controlling agricultural insect pests.
70 ing a valuable gene for rice defence against insect pests.
71 hemical pesticides for control of hemipteran insect pests.
72 rimary target for pyrethroid insecticides in insect pests.
73 st interactions and as biocontrol agents for insect pests.
74 t toxins used in transgenic crops against 15 insect pests.
75 portion of global food production is lost to insect pests.
76 of manipulation of the microbiota to control insect pests.
77 an uncharted territory for the agricultural insect pests.
78 , salinity tolerance as well as diseases and insect-pests.
79 e (L.), which is one of the most destructive insect pests against many strategic grains such as wheat
80 en Colletotrichum fioriniae are an important insect pest and fungal disease of highbush blueberries,
81 dge on the biology of a devastating tropical insect pest and suggests new pest management strategies.
82 and crop diversity, respectively, supported insect pest and weed control services in agricultural la
83 llus thuringiensis (Bt) toxins kill some key insect pests and can reduce reliance on insecticide spra
84 r, a significantly lower number of principal insect pests and damage symptoms were found in treatment
86 otential of spider-venom peptides to control insect pests and highlight their advantages and disadvan
88 ect the interactions between crop plants and insect pests and may promote yet another form of global
89 t an analysis of almost 1,300 known invasive insect pests and pathogens, calculating the total potent
90 is increasing evidence that acylsugars deter insect pests and plant virus vectors, including the west
91 rade facilitates the inadvertent movement of insect pests and subsequent establishment of populations
92 developed for the protection of plants from insect pests and their associated diseases, with a major
94 egies involve the behavioral manipulation of insect pests and their natural enemies via the integrati
95 llus thuringiensis (Bt) toxins kill some key insect pests and thus can reduce reliance on insecticide
97 (JH) is an attractive target for control of insect pests and vectors of disease, but the minute size
98 s could provide a novel means of controlling insect pests and vectors of human disease by impairing t
100 of particular importance for the control of insect pests and vectors of pathogens, while insect-born
101 n in reaching a lethal heating condition for insect pests, and hence measure the importance of the pa
102 include a brittle texture, susceptibility to insect pests, and inferior functional characteristics of
103 isruption of microbial symbionts required by insect pests, and manipulation of microorganisms with ma
104 each, the behavior and movement patterns of insect pests, and the agronomic and economic requirement
107 Outbreaks of emerging plant diseases and insect pests are increasing at an alarming rate threaten
109 cides are being used for the control of many insect pests as an environmentally acceptable alternativ
111 pathway in the aphid Acyrthosiphon pisum, an insect pest belonging to the Hemiptera, an earlier-diver
112 ose foliage is rarely affected by disease or insect pests, but can be severely damaged by ungulate br
114 merging crop protection technologies against insect pests, but they are vulnerable to resistance evol
115 Predicting the regulation of herbivorous insect pests by arthropod predators and parasitoids woul
116 onstrate that resistance of plants toward an insect pest can be modulated by genetically engineering
118 ave been proposed in recent years to control insect pests, characterizing the genetics of the target
119 ttributed to the increase in abundance of an insect pest, contributing to a crop disease pandemic.
120 e summarize recent progress in RNAi-mediated insect pest control and discuss factors determining its
121 y pyrethroids, are the most important in the insect pest control and preventing insect vector-borne h
122 Over-reliance on synthetic pesticides in insect pest control has caused widespread public and sci
125 gical succession, use of prescribed fire for insect pest control, and effects of fire on insect diver
130 sal was achieved in an emerging agricultural insect pest, Drosophila suzukii, by creating a temperatu
131 , Ceratitis capitata, is a major destructive insect pest due to its broad host range, which includes
132 eafhoppers) are some of the most devastating insect pests due to the numerous plant pathogens they tr
133 the increased susceptibility of the plant to insect pests due to the systemic absence of glands that
134 also documented the consumption of multiple insect pests (e.g., Rhyacionia frustrana) and disease ve
136 een plants and other organisms, particularly insect pests, foundered because of difficulties in deliv
138 l system have been developed in a variety of insect pests, from which females die by either of two co
141 expansion and ecological dominance shifts of insect pests has been challenging due to the lack of bas
143 thuringiensis (Bt) toxins that kill the same insect pest have been widely used to delay evolution of
144 h and the environment, especially since many insect pests have already developed resistances to conve
145 ns of controlling a variety of pathogens and insect pests; however, they can cause harmful effects on
146 th enhanced resistance to viral diseases and insects pests, improved nutritional content, modified an
148 ra (Coleoptera: Chrysomelidae), is a serious insect pest in the major corn growing areas of North Ame
153 ve control of several different lepidopteran insect pests in genetically modified tobacco and other p
162 icity against various stages of a variety of insect pests, including the brown marmorated stinkbug, H
163 arch and management are seldom used to study insect pest infestations in agricultural ecosystems.
164 ventional techniques for monitoring of these insect pests involve pheromone attractants and sticky tr
167 mal hosts, but their biocontrol potential of insect pests is routinely overlooked in agriculture and
168 Rhopalosiphum maidis), a phloem sap-sucking insect pest, is independent of JA but regulated by the E
169 t resistance may slow the adaptation of some insect pests, it may speed up adaptations of others.
170 del for automated monitoring and identifying insect pests, like fruit flies and fall-armyworms, in op
171 wn B. thuringiensis toxin against the forest insect pest Lymantria dispar (gypsy moth), unfortunately
172 as well as for developing new strategies of insect pest management and virus resistance in plants.IM
173 e extensive use of chemical insecticides for insect pest management has resulted in insecticide resis
174 alternative tool to synthetic pesticide for insect pest management in crop production, thereby, redu
175 n rice fields could lead to more sustainable insect pest management in rice agroecosystems, potential
176 the anticipated heightened demand for novel insect pest management strategies created by growing hum
177 giensis (Bt) have been successfully used for insect pest management, a diverse range of insect-specif
181 for mitigating the damaging effects of some insect pests, most notably ants, that rely on olfaction
184 Hypothenemus hampei) is the most devastating insect pest of coffee worldwide with its infestations de
187 irgifera virgifera LeConte) (WCR) is a major insect pest of corn (Zea mays L.) in the United States (
188 era: Chrysomelidae), is the most destructive insect pest of corn (Zea mays L.) in the United States.
189 rgifera virgifera LeConte, is an established insect pest of maize (Zea mays L.) in North America.
190 ano (Coleoptera: Curculionidae), is the main insect pest of peppers (Capsicum spp.) throughout the so
192 Woodwasp, Sirex noctilio, which is the main insect pest of pine plantations in the Southern Hemisphe
193 Aphis glycines Matsumura), the most damaging insect pest of soybean (Glycine max (L.) Merr.) in North
194 , we show how irruptions in a common, cyclic insect pest of the boreal forest, the spruce budworm (Ch
195 s become the most widespread and destructive insect pest of turf, landscapes, and nursery crops in th
196 sian fly (Mayetiola destructor) is the major insect pest of wheat worldwide, and an emerging model fo
197 Hessian fly (Mayetiola destructor), a major insect pest of wheat, is based on a gene-for-gene intera
202 hropods such as honey bees and shrimp and to insect pests of medical and agricultural importance.
203 ecome intertwined such that the impact of an insect pest on forest structure and composition alters p
204 for controlling lepidopteran and coleopteran insect pests on crops depend on the expression of Bacill
206 CR12-MPED peptide effectively control target insect pests, our discovery has important implications r
210 rile insect technique is a method to control insect pest populations by sterilizing males with ionizi
211 have been created to improve the control of insect pest populations damaging to human health and agr
213 enetic control aims to reduce the ability of insect pest populations to cause harm via the release of
215 atments regarding grain damage, weight loss, insect pest populations, and grain moisture content; wit
216 degree than hay or woody habitats) increased insect pest predation rates (by 23%) and reduced pest in
217 lified landscapes may be more susceptible to insect pest pressure because of the loss of natural enem
218 ape simplification results in an increase in insect pest pressure, and thus an increased need for ins
219 les the extension of genetic techniques into insect pests previously refractory to genetic analysis.
220 and Vip3Cb1 proteins targeting lepidopteran insect pests produced by MON 89151 cotton was characteri
221 acillus thuringiensis (Bt) proteins kill key insect pests, providing economic and environmental benef
223 its toxicity to many economically important insect pests, relatively low levels of cross-resistance
224 erile Insect Technique (SIT) used to control insect pests relies on the release of large numbers of r
225 ed studies that have examined its effects on insect pest resistance and the underlying mechanisms.
226 nique (SIT), to control D. suzukii and other insect pest species of agricultural and medical importan
227 t has proven to be effective against several insect pest species of agricultural and veterinary impor
228 cially concerning for economically important insect pest species, as their introduction can potential
229 ully suppressed field populations of several insect pest species, but its effect on mosquito vector c
230 n insecticide widely used for the control of insect pest species, including Mediterranean fruit fly,
235 ock promoters from an important agricultural insect pest, Spodoptera frugiperda, is still lacking.
236 es after treatment with methyl jasmonate and insect pests, Spodoptera litura (cotton leafworm), Oxya
239 flies and fall-armyworm are one of the major insect pest that adversely affect fruit and crops, where
240 ois transitella (Walker), is an agricultural insect pest that can be controlled by disrupting male-fe
243 sibility in the squash bug Anasa tristis, an insect pest that requires bacterial symbionts in the gen
244 ation places it at risk from invasive exotic insect pests that enter from the United States, Central
246 farmers by consuming coffee's most damaging insect pest, the coffee berry borer beetle (Hypothenemus
247 overwintering range of a global agricultural insect pest, the diamondback moth (Plutella xylostella),
249 notic- and antibiotic-mediated resistance to insect pests, their role in conditioning plant tolerance
250 idoptera: Gelechiidae), is the most damaging insect pest threatening the production of tomato and oth
252 er a durable, multimechanistic resistance to insect pests through an understanding of the diversity o
254 rum resistance illustrates the potential for insect pests to develop resistance rapidly to multiple B
255 as been successfully implemented in multiple insect pests to suppress field populations by the releas
257 g the evolution of resistance by herbivorous insect pests to transgenic host plants containing insect
259 that bind a cadherin-like receptor from the insect pest Trichoplusia ni (TnCAD) that is not natively
261 idespread use of insecticides and heightened insect pest virulence under climate change continue to f
262 the potential ranges of their pathogens and insect pests, which risk spilling over and impacting nat
263 me B. vulgaris plants resistant to important insect pests, while other, susceptible plants produce di
264 nsecticides to prevent crop damage caused by insect pests, while they also rely on insect pollinators
265 ra: Noctuidae) is a devastating agricultural insect pest with broad spectrum of host range, causing m
266 he first documented case of resistance in an insect pest with high pesticide resistance potential usi
269 sed device, called Smart Trap, that attracts insect pests with pheromones and captures real-time imag
271 rmination in B. tabaci, an emerging invasive insect pest worldwide, will provide potential molecular
273 that has successfully eradicated a number of insect pests, yet the A. gambiae toolkit lacks the requi