ライフサイエンスコーパス: biological control

1 n the conceptual underpinning or practice of biological control.

2 ted pest management (IPM) tactics, including biological control.

3 deadly parasites of insects that are used in biological control.

4 ain pests at low abundances is a priority in biological control.

5 microbial antagonist, for use in optimising biological control.

6 itions, we determine criteria for successful biological control.

7 ce of gene function is obligatory to sustain biological control.

8 18 families, however, which suggests complex biological control.

9 e real costs and thus also the benefits from biological control.

10 ies, biologists can gain deeper insight into biological control.

11 methods for population reduction, preferably biological control.

12 d teaching on soil-borne plant pathogens and biological control.

13 c ecological theory and applications such as biological control.

14 conformational change is a primary means of biological control.

15 assembly of nuclear regulatory machinery for biological control.

16 tions to maximize the use of coccinellids in biological control.

17 but this factor alone is a poor predictor of biological control.

18 between approaches that affect cereal aphid biological control.

19 piration machinery as a potential target for biological control.

20 sy exists over ecological risks in classical biological control.

21 the U.S. Environmental Protection Agency for biological control.

22 cteria and the potential use of Wolbachia in biological control.

23 ergency control are expanding the demand for biological control.

24 eory to this developing area of conservation biological control.

25 are being used to develop strategies for its biological control.

26 mRNA stability may represent a new level of biological control.

27 adaptability and potential implications for biological control.

28 big gap in modelling outcomes of multi-enemy biological control.

29 ufficient levels of parasitism for effective biological control.

30 assiana, a fungal pathogen commonly used for biological control.

31 threshold-based selective insecticides, and biological control.

32 protein search is amenable to selection and biological control.

33 ests and threaten the long-term viability of biological control.

34 nes underlying traits that are important for biological control.

35 for landscape planning, invasion biology and biological control.

36 s into further functional studies and better biological control.

37 n-RNA networks are ubiquitous and central in biological control.

38 in classical, augmentative, and conservation biological control.

39 le insects and have been used extensively in biological control.

40 r of these parasitoids and how it relates to biological control.

41 s and allowed patients to serve as their own biological controls.

42 vailable to design and produce new drugs and biological controls.

43 e isolation [3] [10] [11] and as an agent of biological control [2] [12] [13].

44 efine crop-specific IPM programs and enhance biological control across invaded landscapes.

45 here environment and their role in providing biological control against pathogens.

46 t growth-promoting rhizobacteria (PGPR) as a biological control agent (BCA) to reduce the use of agro

47 owerful gene transduction tool and potential biological control agent for Anopheles mosquitoes.

48 eniles of PPN Meloidogyne incognita with the biological control agent KM2501-1 resulted in a mortalit

49 rs or to the initial amounts of pathogen and biological control agent present.

50 e success of Bacillus amyloliquefaciens as a biological control agent relies on its ability to outgro

51 he antagonistic fungus Trichoderma viride, a biological control agent that has previously been shown

52 orweed (Alternanthera philoxeroides) and its biological control agent the alligatorweed flea beetle (

53 s soil saprophyte that has been applied as a biological control agent to protect plants from fungal p

54 cialist moth, Pareuchaetes pseudoinsulata (a biological control agent).

55 The species, once used as a biological control agent, is now a worldwide invader.

56 persistence thresholds of host, pathogen and biological control agent, performing an equilibrium anal

57 get organisms; in this case, a key predatory biological control agent.

58 host-vector disease system and the vector's biological control agent.

59 s second group appear to be well suited as a biological control agent.

60 ncreased the efficacy of this classical weed biological control agent.

61 ggest that M. multispinosus could serve as a biological control agent.

62 wing the deliberate introduction of an alien biological control agent: the carnivorous snail Euglandi

63 A few have been introduced deliberately as biological control agents (Anthocoris spp., Montandoniol

64 Using biological control agents (BCAs) is an essential compone

65 actions and show their potential for use as biological control agents against fungal diseases.

66 lis and other Bacilli have long been used as biological control agents against plant bacterial diseas

67 ns a number of economically important pests, biological control agents and disease carriers.

68 ons are inherent in most naturally occurring biological control agents but development of recombinant

69 densities of problematic plant species using biological control agents can be quantified, but the ris

70 e performance of phenazine producers used as biological control agents for soilborne plant pathogens.

71 , host plant-R-AEF interactions and R-AEF as biological control agents have been studied independentl

72 pectin-derived oligogalacturonides (OGs) as biological control agents in agriculture, very little in

73 alysis of the efficacy of different types of biological control agents in controlling vector-borne di

74 llidae), is one of the most extensively used biological control agents in the field to manage arthrop

75 us, have been studied for their potential as biological control agents of fungi.

76 fungi are attracting attention as potential biological control agents of insect pests.

77 additional applied interest because many are biological control agents of pest insects.

78 failure and economic loss when they occur in biological control agents of pests.

79 Although parasitism by biological control agents reached 28% in some species of

80 al approaches, the mode of action of natural biological control agents related to pathogens can be sy

81 e effectiveness of entomopathogenic fungi as biological control agents require a clear understanding

82 ticularly when insect herbivores are used as biological control agents to manage invasive plants.

83 erimental work suggests that interactions of biological control agents with their own natural enemies

84 of parasitoids reared from native moths were biological control agents, 14% were accidental immigrant

85 asitoids of the vector prove to be effective biological control agents, but highly virulent pathogens

86 , the efficacy of phages, as is true of many biological control agents, depends greatly on prevailing

87 In addition to identifying new potential biological control agents, these results expand the gran

88 ry even communities of predator and pathogen biological control agents, typical of organic farms, exe

89 in international trade, and risk analysis of biological control agents.

90 e further assessed for nematode potential as biological control agents.

91 Entomopathogenic nematodes are excellent biological control agents.

92 nd Beauveria bassiana are widely used insect biological control agents.

93 ct the success of parasites and pathogens as biological control agents.

94 as a potential target for the improvement of biological control agents.

95 subsp. Kurstaki is one of the most important biological control agents.

96 ematodes (EPNs) are insect parasites used as biological control agents.

97 interactions, such as agricultural pests and biological-control agents.

98 g techniques and a near complete reliance on biological control and "soft" pesticides, including inse

99 e suggest that the alternatives of classical biological control and area-wide control with the steril

100 nt species have utility in both conservation biological control and as source of botanical insecticid

101 defence activators, assess the usefulness of biological control and categorize current approaches tow

102 ns of these results for engineering enhanced biological control and elucidating the basis for hypovir

103 ty, agent attack timing, or a combination of biological control and environmental (i.e., weather) var

104 nterest in their potential uses as tools for biological control and genetic manipulation of pests and

105 ify attributes that contribute to successful biological control and how best to manipulate augmentati

106 ent cycling and are widely used as agents in biological control and in the remediation of polluted la

107 lobal change on natural enemies suggest that biological control and other top-down effects of insect

108 elative importance of each of these types in biological control and pest management programs.

109 ssessing the degree of compatibility between biological control and plant resistance approaches to pe

110 egulators (GacA and RpoS) known to influence biological control and secondary metabolism.

111 Classical and augmentative biological control and SIT-based programs are likely to

112 y approaches have been proposed that utilize biological control and take advantage of intrinsic demog

113 e species may be particularly susceptible to biological control and that increases in resource availa

114 Although biological control and use of conventional resistant mai

115 ource have potential uses for more effective biological control and use of organic amendments to fost

116 successful past programs involving classical biological control and/or the sterile insect technique (

117 and behavior, pathogen transmission biology, biological control, and chemical control with respect to

118 seed pathology, soil-borne plant pathogens, biological control, and history of plant pathology.

119 cies' population dynamics and distributions, biological control, and threats to at-risk species) and

120 The types of research underpinning biological control approaches and challenges encountered

121 Among biological control approaches, natural enemy augmentatio

122 ood, and their impact on natural enemies and biological control are difficult to predict.

123 Applications of nutritional ecology to biological control are discussed.

124 uently, most efforts to improve and optimize biological control are in essence efforts to reduce refu

125 al implications for conservation biology and biological control are outlined.

126 cticides, plant resistance, and conservation biological control are reviewed.

127 tant providers of ecosystem services such as biological control, are susceptible to landscape-level c

128 e Cu-chitosan NPs are better compatible with biological control as NPs "mimic" the natural elicitatio

129 y-led genome mining, metabolite analyses and biological control assays to define the efficacy of Burk

130 MicroRNAs are small RNA species involved in biological control at multiple levels.

131 To be successful, biological control bacteriophages must be stable when ex

132 Pseudomonas aureofaciens strain 30-84 is a biological control bacterium that utilizes a two-compone

133 hortcomings, Mexico is better set to develop biological control-based pest control programs, particul

134 rolled (ICS), immunotherapy-controlled (IT), biologicals-controlled (BIO) or uncontrolled (UC).

135 athogenic nematodes (EPNs) have been used in biological control but improvement is needed to realize

136 le parasitoid production for the purposes of biological control by manipulation of biotic and abiotic

137 in the aboveground parts of plants and that biological control can be enhanced with induced plant de

138 In a number of biological control circuits, the communication is carrie

139 ng effects of VTPs on dynamical systems in a biological control context.

140 Despite these uncertainties, biological control could play a larger role in mitigatio

141 cts and native plants, potentially affecting biological control efficacy and non-target effects on na

142 hasizing the fauna associated with classical biological control efforts against the greenbug and Russ

143 uss how these predictions can inform ongoing biological control efforts for host-vector disease syste

144 opulations in many situations, and classical biological control efforts have focused on the addition

145 Furthermore, reviews of prior biological control efforts have not led to the developme

146 red predictably from novel native orthogonal biological control elements using quantitatively in-cont

147 While biological control focused at the level of the transcrip

148 Coccinellids have been widely used in biological control for over a century, and the methods f

149 cultured cells have led to new insights into biological control, greater understanding of human patho

150 Biological control has been proposed to suppress Panama

151 In contrast, with few exceptions, biological control has failed almost completely in easte

152 As a result, biological control has gained momentum as an eco-friendl

153 establishment of coccinellids in importation biological control have not been examined for most speci

154 ss of intraguild predators used in classical biological control, have a unique biology.

155 control tactics (disease-control chemicals, biological control, host resistance, and cultural contro

156 We identify conditions for biological control (i) to prevent a pathogen entering a

157 ction, population biology and evolution, and biological control implications.

158 ealing unforeseen trophic relationships with biological control implications.

159 nse and manipulating plant traits to improve biological control in agricultural crops.

160 ed at favoring natural enemies and enhancing biological control in agricultural systems.

161 able promise for its application in food and biological control in analytical applications with high

162 of the four strains exhibiting the strongest biological control in vivo was also investigated in term

163 ached concentrations of REEs compared to non-biological controls in all gravity conditions.

164 situation is then examined with reference to biological control, including SIT programs, targeted at

165 Current management is focused on biological control, insecticide protection of high-value

166 s of crop pests, plants used in conservation biological control interventions potentially provide add

167 Biological control is a potential alternative for manage

168 Biological control is an underlying pillar of integrated

169 ation is that, since it is expected that the biological control is distributed and mutually reinforci

170 The potential of biological control is examined.

171 importance for management, conservation and biological control is how changing connectivity affects

172 Biological control is one of the strategies of pest cont

173 Impact of hyperparasitism on biological control is reviewed.

174 A major goal of biological control is the reduction and/or eradication o

175 Habitat management, a form of conservation biological control, is an ecologically based approach ai

176 Both OrNV-Palau1 and OrNV-X2B, a CRB biological control isolate released in the Pacific, were

177 onsistently ~16% of total energy, suggesting biological control mechanism(s) tightly regulate protein

178 Future studies evaluating biological control mechanisms can now focus on genes exp

179 or targeted drug delivery research that uses biological control mechanisms.

180 Chemical and biological control methods have reduced the impact of th

181 Scientifically guided biological control of 43 exotic invertebrate pests permi

182 r release in the United States for classical biological control of a complex of invasive saltcedar sp

183 nder of plant pathology in Europe, pioneered biological control of a major plant disease and introduc

184 replaced with a synthetic material under the biological control of a precisely regulated cross-linkin

185 special case is applied to a problem of the biological control of a structured pest population (e.g.

186 Our projections reveal that biological control of A. artemisiifolia will reduce the

187 Current evidence indicates that biological control of AC activity occurs through the cyt

188 ius ervi, an important hymenopteran agent of biological control of aphids in agriculture, using a nov

189 aches and methods available for valuation of biological control of arthropod pests by arthropod natur

190 versity has been the rationale for enhancing biological control of arthropod pests through habitat ma

191 iulus cucumeris is a predatory mite used for biological control of arthropod pests.

192 Biological control of bacteria with bacteriophages is a

193 oth healthy and SLE cells suggesting further biological control of C1q-CD33/LAIR-1 processes.

194 In addition to their use for biological control of certain insects, baculoviruses als

195 Biological control of chestnut blight caused by the fila

196 Finally, we consider how understanding the biological control of coral biomineralization is critica

197 use traditional pest control theory to guide biological control of disease vectors.

198 In the future, biological control of diseases in greenhouses could pred

199 ed for DNA in vivo, and may be exploited for biological control of genomic processes.

200 er chemical pesticides, in the same way that biological control of greenhouse insects predominates in

201 Classical biological control of HB in the BI using a rust fungus f

202 d Notch signaling interfered with the normal biological control of hemodynamics, permitting a positiv

203 eory on multiple predator effects as well as biological control of insect herbivores.

204 ensis (Bt) are increasingly important in the biological control of insect pests and vectors of human

205 y useful model organism and is deployed as a biological control of insect pests.

206 ema carpocapsae has been widely used for the biological control of insect pests.

207 Biological control of insects is an ecosystem service th

208 ange affects species interactions for future biological control of invasive species and conservation

209 nces the prospect of using Wolbachia for the biological control of malaria.

210 st widespread endosymbionts, is a target for biological control of mosquito-borne diseases (malaria a

211 There have been advances in biological control of nematodes, but field-scale exploit

212 finding potentially has implications for the biological control of other insect crop pests.

213 enuating mycoviruses that have potential for biological control of pathogenic fungi.

214 prevent its consideration as a candidate for biological control of pest organisms.

215 Biological control of pests by natural enemies is a majo

216 Strains of Bcc have been used in biological control of plant diseases and bioremediation,

217 ered fungicides offer a unique niche for the biological control of plant diseases.

218 s the potential to be an effective method of biological control of plant parasite infection.

219 ial of photosynthetic bacterial resources in biological control of plant virus diseases and sustainab

220 Biological control of postharvest diseases (BCPD) has em

221 in case versus controls and relevant to the biological control of puberty.

222 Brazil over three decades ago for classical biological control of S. frugiperda, this wasp has not b

223 can stabilize unstable conditions and rescue biological control of simpler, ineffective pest manageme

224 and consequently have a direct impact on the biological control of soft scale insects.

225 cetylphloroglucinol (DAPG) contribute to the biological control of soilborne plant diseases by some s

226 that have subsequently been applied for the biological control of soilborne plant pathogens, the ful

227 optera: Eulophidae) has been widely used for biological control of the fall webworm, Hyphantria cunea

228 Biological control of the fungus by virus infection (hyp

229 wasp Ganaspis brasiliensis, a candidate for biological control of the invasive spotted wing drosophi

230 ll pools; however, little is known about the biological control of the Numb-p53 interaction.

231 nositol 3,4,5-triphosphate, resulting in the biological control of the phosphatidylinositol 3-kinase

232 Here, we estimate the value of natural biological control of the soybean aphid, a major pest in

233 This enables discrete biological control of these central structural features.

234 Biological control of vectors using natural enemies or c

235 tive trait loci (QTL) that contribute to the biological control of voluntary exercise levels, body we

236 uction across 18 countries for the classical biological control of weeds.

237 rmosa is a parasitoid used worldwide for the biological control of whiteflies on vegetables and ornam

238 udy elucidates some of the environmental and biological controls of temporal variability of delta(15)

239 Biological control offers sustainable pest suppression,

240 Setting biological control on a firm economic foundation would h

241 ptake rates by biomass will also have strong biological control on silica cycling and export.

242 rature concerning the physical, chemical and biological controls on the sea-air emissions of a wide r

243 introduction of specific fungi into soil for biological control or bioremediation purposes.

244 ed to examine the effects of A. inebrians on biological control organisms and levels of plant disease

245 he results indicate that a dimethyl sulphide biological control over cloud condensation nuclei probab

246 Understanding molecular mechanisms of biological control over COM crystallization is central t

247 f hierarchy suggest a possible new model for biological control over crystal growth during amelogenes

248 ctivity is strictly controlled, but when the biological control over the activity is lost, disease pr

249 Thus, we propose that qE is explained by biological control over the intrinsic dynamic disorder i

250 This condition is thought to arise from biological control over the ocean's nitrogen budget, in

251 bit consistent and distinguishable levels of biological control over their affected muscles, assessed

252 ux remains a major frontier in understanding biological controls over soil C.

253 hypothesis that efferent regulation may be a biological control parameter for tuning the hair bundle'

254 the impact of winter flower strips on aphid biological control performed by parasitoid wasps and the

255 le utility for continuing efforts to enhance biological control potential by balancing hypovirulence

256 pathogenesis, and new avenues for enhancing biological control potential.

257 rulence-attenuating mycoviruses and enhanced biological control potential.

258 rasp objects, revealing that mimicking known biological control principles results in task performanc

259 uantified, but the risks and net benefits of biological control programs are often derived from socia

260 n the design of conservative or augmentative biological control programs for this invasive pest.

261 important influences on different stages of biological control programs, including natural enemy sel

262 ns for the development of safe and efficient biological control programs.

263 mopathogenic nematode species for particular biological control programs.

264 d be considered in the use of B. bassiana in biological control programs.

265 nt and habitat manipulations on cereal aphid biological control provide significant and underexplored

266 and parasitoids, nor a detrimental impact on biological control provision.

267 Effective biological control requires careful matching of antagoni

268 We empirically demonstrate how biological control resolved invasive pest threats in mul

269 ntomophagous arthropods can provide valuable biological control services, but they need to fulfill th

270 idurans showed no difference compared to non-biological controls, showing the microbial specificity o

271 hogens have played an important role in weed biological control since the 1970s.

272 th in field and lab, to identify a potential biological control species of the common pest of commerc

273 Biological control still focuses almost exclusively on a

274 Gene expression profiles of the biological control strain Pseudomonas protegens Pf-5 inh

275 A. radiobacter K84, a commercially available biological control strain that inhibits certain pathogen

276 but taxonomic distinctions have not enabled biological control strains to be clearly distinguished f

277 ds predictions that are useful in developing biological control strategies for vector-borne diseases.

278 Successful biological control strategies will depend on a thorough

279 nitiates molecular studies of this important biological control system.

280 asized, including interactions observed from biological control systems, endosymbiotic relationships,

281 he direct and indirect costs and benefits of biological control that will allow farmers and others to

282 For producers who rely solely on biological control, the value of lost services is much g

283 Biological control thereby promoted rural growth and pro

284 hance the fitness of mass-reared insects for biological control, this study investigated the impact o

285 hnology has the potential to disrupt natural biological control through both direct and indirect side

286 and opportunities for applying economics to biological control to advance integrated pest management

287 ose this represents a shift from small-scale biological control to large-scale oceanographic control

288 major plant disease and introduced the term "biological control" to plant pathology.

289 e partitioning strategies for more effective biological control, to blend organic amendments to foste

290 of novel synthetic biology tools to achieve biological control using genome bioediting technologies

291 One such method is biological control using nematode trapping fungi such as

292 Biological control using predators of key pest species i

293 Biological control using rhizospheric bacteria metabolit

294 been explored, especially in combination of biological control using Trichoderma.

295 of insecticides, classical and augmentative biological control, utilization of resistant varieties,

296 Early experience with biological control was hampered significantly by the inh

297 ve controls to ensure that the dosimetry and biological controls were comparable, the measured oncoge

298 hasis is placed on valuation of conservation biological control, which has received little attention.

299 Postharvest, biological controls will be important to remove shellfis

300 k effects can also shape the interactions of biological control with other pest management practices.