ライフサイエンスコーパス: insect pest

1 f microbial control organisms for the target insect pest.

2 taneum as a viable means of controlling this insect pest.

3 novel crop protection strategy against this insect pest.

4 e sustainable management of this devastating insect pest.

5 rom worldwide populations of an agricultural insect pest.

6 Myzus persicae), an agronomically important insect pest.

7 al, oomycete, and bacterial pathogens and an insect pest.

8 ential for control of commercially important insect pests.

9 control agent that is active against several insect pests.

10 s useful for controlling the reproduction of insect pests.

11 ts in helping to control Anopheles and other insect pests.

12 in developing new strategies for controlling insect pests.

13 atodes and are used around the world to kill insect pests.

14 practical significance for the management of insect pests.

15 rotein controls certain lepidopterous cotton insect pests.

16 sticide against a spectrum of stored-produce insect pests.

17 ime in their availability and suitability to insect pests.

18 rates and offer effective control of certain insect pests.

19 molecules against Coleopteran and Hemipteran insect pests.

20 on and different spectra of activity against insect pests.

21 on as potential biological control agents of insect pests.

22 be used as a general strategy for control of insect pests.

23 en widely used for the biological control of insect pests.

24 urability of Bt crops for management of some insect pests.

25 ies for selectively controlling agricultural insect pests.

26 ing a valuable gene for rice defence against insect pests.

27 hemical pesticides for control of hemipteran insect pests.

28 rimary target for pyrethroid insecticides in insect pests.

29 ing Allee effects and consequently eradicate insect pests.

30 st interactions and as biocontrol agents for insect pests.

31 t toxins used in transgenic crops against 15 insect pests.

32 portion of global food production is lost to insect pests.

33 of manipulation of the microbiota to control insect pests.

34 ed defense (immunity), and the deterrence of insect pests.

35 an uncharted territory for the agricultural insect pests.

36 e a means of engineering plant resistance to insect pests.

37 re defenses in response to olfactory cues of insect pests.

38 oassayed for resistance to five lepidopteran insect pests.

39 a plants to study its effect on lepidopteran insect pests.

40 for control of both agricultural and medical insect pests.

41 iendly options for cost-effective control of insect pests.

42 redators that attack them as well as various insect pests.

43 lay an important natural role in controlling insect pests.

44 plied on trees as protection measure against insect pests.

45 m and is deployed as a biological control of insect pests.

46 methods, could protect valuable assets from insect pests.

47 n diploid, haplodiploid, and parthenogenetic insect pests.

48 dge on the biology of a devastating tropical insect pest and suggests new pest management strategies.

49 llus thuringiensis (Bt) toxins kill some key insect pests and can reduce reliance on insecticide spra

50 o use MLEs in the germline transformation of insect pests and disease vectors.

51 otential of spider-venom peptides to control insect pests and highlight their advantages and disadvan

52 represent a major new arsenal for combating insect pests and insect-borne diseases.

53 ect the interactions between crop plants and insect pests and may promote yet another form of global

54 t an analysis of almost 1,300 known invasive insect pests and pathogens, calculating the total potent

55 rade facilitates the inadvertent movement of insect pests and subsequent establishment of populations

56 Within many agricultural systems, insect pests and their natural enemies are forced to per

57 egies involve the behavioral manipulation of insect pests and their natural enemies via the integrati

58 llus thuringiensis (Bt) toxins kill some key insect pests and thus can reduce reliance on insecticide

59 method to protect them against agricultural insect pests and to control vector mosquitoes.

60 (JH) is an attractive target for control of insect pests and vectors of disease, but the minute size

61 s could provide a novel means of controlling insect pests and vectors of human disease by impairing t

62 ingly important in the biological control of insect pests and vectors of human disease.

63 of particular importance for the control of insect pests and vectors of pathogens, while insect-born

64 include a brittle texture, susceptibility to insect pests, and inferior functional characteristics of

65 isruption of microbial symbionts required by insect pests, and manipulation of microorganisms with ma

66 each, the behavior and movement patterns of insect pests, and the agronomic and economic requirement

67 Insect pests are a major cause of damage to the world's

68 cides are being used for the control of many insect pests as an environmentally acceptable alternativ

69 ose foliage is rarely affected by disease or insect pests, but can be severely damaged by ungulate br

70 ticidal when injected into a wide variety of insect pests, but it has limited oral toxicity.

71 onstrate that resistance of plants toward an insect pest can be modulated by genetically engineering

72 While attack by closely related insect pests can result in distinctive levels of induced

73 e summarize recent progress in RNAi-mediated insect pest control and discuss factors determining its

74 Over-reliance on synthetic pesticides in insect pest control has caused widespread public and sci

75 prove advantageous for the implementation of insect pest control programs.

76 PATTEC and, more generally, other vector or insect pest control programs.

77 gical succession, use of prescribed fire for insect pest control, and effects of fire on insect diver

78 Transgenic crops have revolutionized insect pest control, but their effectiveness has been re

79 providing potential novel opportunities for insect pest control.

80 sal was achieved in an emerging agricultural insect pest, Drosophila suzukii, by creating a temperatu

81 , Ceratitis capitata, is a major destructive insect pest due to its broad host range, which includes

82 the increased susceptibility of the plant to insect pests due to the systemic absence of glands that

83 Cotton plants attacked by herbivorous insect pests emit relatively large amounts of characteri

84 een plants and other organisms, particularly insect pests, foundered because of difficulties in deliv

85 Preventing insect pests from developing resistance to Bacillus thur

86 By 2007, the presence of this insect pest had been confirmed in 20 European countries.

87 D. suzukii, a destructive insect pest, harbor a non-CI inducing Wolbachia 'wSuz' c

88 The management of insect pests has long been dominated by the use of chemi

89 thuringiensis (Bt) toxins that kill the same insect pest have been widely used to delay evolution of

90 h and the environment, especially since many insect pests have already developed resistances to conve

91 th enhanced resistance to viral diseases and insects pests, improved nutritional content, modified an

92 uld contribute to the sustainable control of insect pests in agroecosystems.

93 ve control of several different lepidopteran insect pests in genetically modified tobacco and other p

94 t is a key defensive protein against chewing insect pests in maize (Zea mays).

95 d for development, thus preventing damage by insect pests in stored grain.

96 icity against various stages of a variety of insect pests, including the brown marmorated stinkbug, H

97 The emergence of insecticide resistant insect pests is of significant concern worldwide.

98 Rhopalosiphum maidis), a phloem sap-sucking insect pest, is independent of JA but regulated by the E

99 t resistance may slow the adaptation of some insect pests, it may speed up adaptations of others.

100 wn B. thuringiensis toxin against the forest insect pest Lymantria dispar (gypsy moth), unfortunately

101 e extensive use of chemical insecticides for insect pest management has resulted in insecticide resis

102 alternative tool to synthetic pesticide for insect pest management in crop production, thereby, redu

103 the anticipated heightened demand for novel insect pest management strategies created by growing hum

104 giensis (Bt) have been successfully used for insect pest management, a diverse range of insect-specif

105 velopment of alternative control methods for insect pest management.

106 ion to plant quarantine, but also for use in insect pest monitoring.

107 a lugens) is the main non-target sap-sucking insect pest of Bt transgenic rice.

108 Hypothenemus hampei) is the most devastating insect pest of coffee worldwide with its infestations de

109 s hampei, is the most economically important insect pest of coffee worldwide.

110 era: Chrysomelidae), is the most destructive insect pest of corn (Zea mays L.) in the United States.

111 rgifera virgifera LeConte, is an established insect pest of maize (Zea mays L.) in North America.

112 e pine weevil, a major North American forest insect pest of pine and spruce.

113 Aphis glycines Matsumura), the most damaging insect pest of soybean (Glycine max (L.) Merr.) in North

114 s become the most widespread and destructive insect pest of turf, landscapes, and nursery crops in th

115 sian fly (Mayetiola destructor) is the major insect pest of wheat worldwide, and an emerging model fo

116 Hessian fly (Mayetiola destructor), a major insect pest of wheat, is based on a gene-for-gene intera

117 chome coverage and strong resistance to many insect pests of Brassica oilseeds and vegetables.

118 miptera: Miridae) are economically important insect pests of many crops worldwide.

119 hropods such as honey bees and shrimp and to insect pests of medical and agricultural importance.

120 for controlling lepidopteran and coleopteran insect pests on crops depend on the expression of Bacill

121 sed as a crop protection measure to suppress insect pests on trees.

122 CR12-MPED peptide effectively control target insect pests, our discovery has important implications r

123 nts had increased resistance to a major rice insect pest, pink stem borer (Sesamia inferens).

124 pair of NCR toxins to control a hypothetical insect pest population.

125 enetic control aims to reduce the ability of insect pest populations to cause harm via the release of

126 Allee effects successfully interact to drive insect pest populations towards extinction.

127 lified landscapes may be more susceptible to insect pest pressure because of the loss of natural enem

128 ape simplification results in an increase in insect pest pressure, and thus an increased need for ins

129 acillus thuringiensis (Bt) proteins kill key insect pests, providing economic and environmental benef

130 its toxicity to many economically important insect pests, relatively low levels of cross-resistance

131 erile Insect Technique (SIT) used to control insect pests relies on the release of large numbers of r

132 nique (SIT), to control D. suzukii and other insect pest species of agricultural and medical importan

133 hality strains that may be extended to other insect pest species.

134 Pseudomonas syringae pv tomato (Pst) and the insect pest Spodoptera exigua.

135 Insect pests such as termites cause damages to crops and

136 is crucial to the control of mobile swarming insect pests such as the desert locust.

137 ois transitella (Walker), is an agricultural insect pest that can be controlled by disrupting male-fe

138 borer, Chilo suppressalis, an important rice insect pest that causes huge yield loss.

139 ation places it at risk from invasive exotic insect pests that enter from the United States, Central

140 ly worldwide to control diploid agricultural insect pests that reproduce sexually.

141 farmers by consuming coffee's most damaging insect pest, the coffee berry borer beetle (Hypothenemus

142 Evolution of resistance by insect pests threatens the continued effectiveness of Ba

143 er a durable, multimechanistic resistance to insect pests through an understanding of the diversity o

144 c good,' specifically, the susceptibility of insect pests to Bt proteins.

145 rum resistance illustrates the potential for insect pests to develop resistance rapidly to multiple B

146 Such agents could affect the responses of insect pests to the humans they seek.

147 g the evolution of resistance by herbivorous insect pests to transgenic host plants containing insect

148 of facultative microorganisms that influence insect pest traits.

149 that bind a cadherin-like receptor from the insect pest Trichoplusia ni (TnCAD) that is not natively

150 the RNAi pathway can be exploited to control insect pests via in planta expression of a dsRNA.

151 me B. vulgaris plants resistant to important insect pests, while other, susceptible plants produce di

152 ra: Noctuidae) is a devastating agricultural insect pest with broad spectrum of host range, causing m

153 uringiensis (Bt) are broadly used to control insect pests with agricultural importance.

154 for developing transgenic crops resistant to insect pests with high economic value.

155 sodium channel insecticides that target key insect pests without harming beneficial species.

156 rmination in B. tabaci, an emerging invasive insect pest worldwide, will provide potential molecular

157 have had a centuries-long role as major soil insect pests worldwide.