The IUPAC International Congresses of Pesticide Chemistry (1963–2014) and Pest Management Science: a half‐century of progress

As we approach the 2014 San Francisco IUPAC Pesticide Chemistry Congress, we reflect on the 51 years of such congresses every 4 years since 1963. Meanwhile, our journal, Pesticide Science/Pest Management Science, has in parallel continually published relevant science for nearly as long (44 years from 1970). © 2014 Society of Chemical Industry     

Alterations in phytosterol profiles of Galium aparine following treatment with BAS 480F

The following are extended summaries based on posters presented at the 8th International Congress of Pesticide Chemistry (IUPAC), held in Washington, DC, USA 4–9 July 1994. They are entirely the responsibility of the authors, and do not necessarily reflect the views of the Editorial Board of Pesticide Science.     

Effects and possible mode of action of some nonionic surfactants on the diffusion of [14C]glyphosate and [14C]Chlorotoluron acorss isoltated plant cuticles

The following are extended summaries based on posters presented at the 8th International Congress of Pesticide Chemistry (IUPAC), held in Washington, DC, USA, 4–9 July 1994. They are entirely the responsibility of the authors, and do not necessarily reflect the views of the Editorial Board of Pesticide Science.     

Extended summaries 8th International Congress of Pesticide Chemistry (IUPAC)

The following are extended summaries based on posters presented at the 8th International Congress of Pesticide Chemistry (IUPAC), held in Washington, DC, USA 4–9 July 1994. They are entirely the responsibility of the authors, and do not necessarily reject the views of the Editorial Board of Pesticide Science.     

Von Baeyer/IUPAC names and abbreviated chemical names of metabolites and artifacts of aldrin (HHDN), dieldrin (HEOD) and endrin

The correct von Baeyer/IUPAC names of aldrin (HHDN), dieldrin (HEOD), and endrin, of 5 previously incorrectly-named compounds and of 18 other related compounds which have not hitherto been named in this way are presented in tabular form alongside their structural formulae. The von Baeyer ring systems present in some of these compounds were identified by inspection of Schlegel diagrams (planar representation of bridged hydrocarbons), a guide to the construction of which is presented. Also included in the tables (which have been indexed) are abbreviated chemical names; the suitability of the choices made is discussed. The alternative “polyhydroaromatic” names for 12 of these compounds have been abstracted from the literature and listed.     

Altered pesticide use on transgenic crops and the associated general impact from an environmental perspective

The large-scale commercial cultivation of transgenic crops has undergone a steady increase since their introduction 10 years ago. Most of these crops bear introduced traits that are of agronomic importance, such as herbicide or insect resistance. These traits are likely to impact upon the use of pesticides on these crops, as well as the pesticide market as a whole. Organizations like USDA-ERS and NCFAP monitor the changes in crop pest management associated with the adoption of transgenic crops. As part of an IUPAC project on this topic, recent data are reviewed regarding the alterations in pesticide use that have been observed in practice. Most results indicate a decrease in the amounts of active ingredients applied to transgenic crops compared with conventional crops. In addition, a generic environmental indicator -- the environmental impact quotient (EIQ) -- has been applied by these authors and others to estimate the environmental consequences of the altered pesticide use on transgenic crops. The results show that the predicted environmental impact decreases in transgenic crops. With the advent of new types of agronomic trait and crops that have been genetically modified, it is useful to take also their potential environmental impacts into account.     

Report on some Work of the Entomological Laboratory OHS,Hodonin, Czechoslovakia

Abstract

TERMITES THEIR RECOGNITION AND CONTROL. W. Victor Harris. Second edition. Longman, London, 1971. pp.186, pl. 56. Price £4.50

INTEGRATED CONTROL OF PESTS IN FARM AND GARDEN. S. P. Simmonds. Devon Trust for Nature Conservation, 1972. pp. 15. Price £0.20.

CHEMICALS CONTROLLING INSECT BEHAVIOUR. Edited by Morton Beroza. Academic Press, New York and London, 1970. pp. 170. Price £4.65.

PHYTOTOXINS IN PLANT DISEASES. Edited by R. K. S. Wood, A. Ballio, and A. Graniti. Academic Press, London and New York, 1972. pp. xiii + 530. Price £8.50

HOT-WATER TREATMENT OF PLANT MATERIAL. Second Edition. Bulletin 201. Ministry of Agriculture, Fisheries and Food. HMSO, London, 1972. pp. iv + 46, pl. 4. Price £0.42.

KENYA BUSH CONTROL. Prepared by E. C. S. Little for the Government of Kenya. Funded by UNDP, FAO. Nairobi, 1972. pp. 88.

PROCEEDINGS OF THE FIRST INDONESIAN WEED SCIENCE CONFERENCE. Edited by M. Soerjani. Contribution No. 1, Weed Science Society of Indonesia, 1971. pp. 215. Price for student members of WSSI US$ 1.25; for members US$ 2.50; for non-members US$ 3.50.

PESTICIDES IN THE ENVIRONMENT. VOLUME 1, PARTS I AND II. Edited by R. White-Stevens. Marcel Dekker, Inc., New York, 1971. Part I: pp. 270, refs 655. Price £9.50. Part II: pp. 629, refs 1378. Price £13.60.

THE PROBLEMS OF PERSISTENT CHEMICALS. IMPLICATIONS OF PESTICIDES AND OTHER CHEMICALS IN THE ENVIRONMENT. Organisation for Economic Cooperation and Development, Paris, 1971. pp. 113. Price £0.92.

PESTICIDE CHEMISTRY. VOLUMES I-VI.* Proceedings of the Second International IUPAC Congress of Pesticide Chemistry, Tel-Aviv, February 1971. Edited by A. S. Tahori. Gordon and Breach Scientific Publishers Inc., London, 1972. Price for six-volume set £41.65. VOLUME I. INSECTICIDES. pp. 496. Price £8.35.

VOLUME III. CHEMICAL RELEASERS IN INSECTS. pp. viii + 227. Price £5.20.

VOLUME IV. METHODS IN RESIDUE ANALYSIS. pp. xi + 605. Price £10.40.     

Recommendations for the Use of Herbicides

Management of Pests and pesticides: Farmers’ Perceptions and Practices. Editors Joyce Tait and Banpot Napompeth, Boulder, Col.: Westview Press 1987. ISBN 0–8133–7174–0, £33 paperback.

Termites in Buildings. Their Biology and Control. R. Edwards and A. Mill. Rentokil Library, 1987, ISBN 0906 5640 69 £24–50.

Pesticide Science and Biotechnology. Proceedings of the Sixth International Congress of Pesticide Chemistry. Ottawa, Canada, 10–15 August 1986. Edited by R. Greenhalgh and T. R. Roberts. IUPAC/Blackwell Scientific Publications, 1987 (602 pp + xiii).

Breeding for Resistance to Diseases and Insect Pests. By D. P. Singh. 222 pp + xi. ISBN 0 387 16970 9. Springer Verlag. 1986. Price $7900.

Pest Control Safe for Bees: A Manual and Directory for the Tropics and Subtropics. By M. Adey, P. Walker and P. T. Walker, 1986. International Bee Research Association, London. Price £12–20.

The Cocoa Pod Borer: An Introduction and Abstracts. Compiled by Lim Guan Soon et al. Malaysian Plant Protection Society, Box 12351 Kuala Lumpur. 1987. 103 pp. ISBN 967–9942–07–4.

Pentachlorophenol. Environmental Health Criteria, No. 71, World Health Organization, Geneva, 1987. 236 pages, ISBN 92 4 154271 3. Price: Sw.fr. 18—/US$1080.

Ecology and Control of Perennial Weeds in Latin America. FAO Plant Production and Protection Paper No. 4. Food and Agriculture Organization, Rome. 1986, 339 pp. ISBN 92–5–102446–4.

Proceedings of the 2nd International Workshop on Leaf hoppers and Planthoppers of Economic Importance. Edited by M. R. Wilson and L. R. Nault. CAB International Institute of Entomology. 1987. 368 pp. ISBN 0–900301–03–1.

Breeding for Durable Resistance in Perennial Crops. FAO Plant Production and Protection Paper No. 70 (1986). 130 pp.

Ascochyta Blight Resistance in Chickpea. Proceedings of a training course, PARC/ICARDA, 3–10 March, 1984, Islamabad, Pakistan. ICARDA, 1986, 123 pp.     

Variability of pesticide residues in crop units

The results of 89 new field trials and 11 supervised trials were considered, together with 91 sets of residue data evaluated earlier. The datasets consisted of 22,643 valid residue data. As all variability factors calculated from individual sample sets are affected by the uncertainties of sampling and analysis, the average of the P(0.975)/R(ave) (97.5th percentile of the residue population divided by the average residues in the lot) values gives the best estimate for the variability factor. The Harrell-Davis (H-D) method gave an average value of 2.89 for the variability factor for all samples, while the average variability factors obtained from samples derived from the new field and supervised trials were 2.8 and 2.7 with the IUPAC and H-D methods respectively. The number of residue values below the LOQ in a sample set significantly affects the observed variability factors. It was found that datasets containing over 20% non-quantifiable residues might not reflect the true variability of the residues. Mixing of treated and non-treated commodities may significantly increase the apparent variability. Consequently, only datasets of known origin and consisting of well-quantifiable residues should be used for estimation of the variability factor. Samples taken from marketed lots may not represent a single lot, and thus they have limited value in estimating the variability factor. The large number of residue data confirms the applicability of the default variability factor of 3 adopted by the FAO/WHO for deterministic estimation of the acute intake of pesticide residues.     

Status of invasive alien plants included in EPPO Lists in Turkey

Turkey is one of the richest areas in the middle latitudes in terms of plant diversity. It has approximately 12 000 plant species and a great number of new species are being added each year. However, invasive alien species have not yet been fully considered in Turkey and only two plant species are in Turkey's quarantine list (Arceuthobium spp. and Eichhornia crassipes). EPPO is an intergovernmental organization responsible for cooperation in plant protection in the European and Mediterranean region and maintains the A1 and A2 Lists of pests recommended for regulation (A1 species are absent from the EPPO region, A2 species are present but of limited distribution), the List of Invasive Alien Plants, the Observation List of invasive alien plants and the Alert List. Eichhornia crassipes, Heracleum persicum, Heracleum sosnowskyi, Ludwigia peploides, Polygonum perfoliatum and Solanum elaeagnifolium are among the species which were recorded in Turkey and are included in the EPPO A2 List. Species recorded in the EPPO List of invasive alien plants which are present in Turkey are: Acroptilon repens, Ailanthus altissima, Ambrosia artemisiifolia (= A. elatior), Carpobrotus edulis, Cortaderia selloana, Cyperus esculentus, Paspalum distichum (= P. paspalodes), Oxalis pes‐caprae and Sicyos angulatus. Azolla filiculoides and Rhododendron ponticum are listed in the EPPO Observation List of Invasive alien plants and Miscanthus sinensis, listed in the EPPO Alert List, are also recorded in the Turkish flora.     

Plant Viruses Transmitted by Whiteflies

One-hundred and fourteen virus species are transmitted by whiteflies (family Aleyrodidae). Bemisia tabaci transmits 111 of these species while Trialeurodes vaporariorum and T. abutilonia transmit three species each. B. tabaci and T. vaporariorum are present in the European–Mediterranean region, though the former is restricted in its distribution. Of the whitefly-transmitted virus species, 90% belong to the Begomovirus genus, 6% to the Crinivirus genus and the remaining 4% are in the Closterovirus, Ipomovirus or Carlavirus genera. Other named, whitefly-transmitted viruses that have not yet been ranked as species are also documented. The names, abbreviations and synonyms of the whitefly-transmitted viruses are presented in tabulated form together with details of their whitefly vectors, natural hosts and distribution. Entries are also annotated with references. Whitefly-transmitted viruses affecting plants in the European–Mediterranean region have been highlighted in the text.     

A survey of the genera of<Emphasis Type="Italic">Microgaster</Emphasis> latreille and<Emphasis Type="Italic">Hygroplitis</Emphasis> thomson (Hymenoptera: Braconidae: Microgastrinae) from China

The genera ofMicrogaster Latreille 1804 andHygroplitis Thomson 1895 from China are presented systematically in this paper. Thirty-two species ofMicrogaster and three species ofHygroplitis are known in China. Diagnosis, character variation, distribution and host of each species among the two genera are presented, including its host and distribution. Keys to the species ofMicrogaster andHygroplitis are given. http://www.phytoparasitica.org posting Dec. 19, 2006.     

我国北方为害果树的叶螨和细须螨

本文内容是报道我国北方为害果树的叶螨和细须螨13种,其中我国新记录种7种。文内记述了各种的鉴别特征、分布、为害和主要种类的生物学。本文还澄清了我国苜蓿苔螨(苜蓿红蜘蛛)的种类,确定了为害果树和小麦是不同的种类。为便于植保人员使用,文中编有田间和显微镜下分种检索表。     

Bactra spp. in Pakistan and their Potential as Biocontrol Agents of Cyperus rotundus

Abstract

Observations on distribution, abundance, phenology, host spectrum, biology and damage of Bactra venosana and B. minima are reported. Morphological differences between larvae and pupae of the two species for field identification are given. Oviposition and larval feeding tests were carried out and showed that oviposition is indiscriminate but larvae have a strong preference for Cyperus rotundus though they also feed on some other Cyperus spp. In laboratory experiments 72% of plants damaged by B. venosana and 65% by B. minima failed to regenerate. The ecological preferences of B. venosana and B. minima are also discussed and as a result both species are recommended for simultaneous introduction for the control of C. rotundus in areas where other Cyperus spp. are not economically important.     

The potential of entomopathogens in biological control of white grubs

Abstract

White grubs are highly polyphagous and most destructive soil pests inflicting damage to a wide variety of crops. In India, more than 1000 species of white grubs are known of which over 40 species attack wide range of plants. White grubs are naturally infected by various entomopathogens which include fungi, bacteria and nematodes. Entomopathogenic fungi offer great potential and members of genera Beauveria and Metarhizium are widely used against white grubs. Several commercial products of entomopathogenic fungi like Bio Green, ORY-X, Grub X 10G, Betel, Biotrol FMA and Meta-Guard have been developed for the control of white grubs. In India, good control of white grubs in paddy, ginger and sugarcane has been achieved with different entomofungi. Among EPNs, Heterorhabditis bacteriophora is moderately effective against Popillia japonica and Rhizotrogus majalis. H. indica and H. bacteriophora are effective against potato white grubs in India. Paenibacillus popilliae cause milky disease in P. japonica grubs. The bacterium is pathogenic to Holotrichia consanguinea, H. serrata and Leucopholis lepidophora. In north-western Himalaya, B. cereus is highly toxic to the grubs of H. seticollis and Anomala dimidiata.     

Phytophthora hydropathica,a new pathogen identified from irrigation water,Rhododendron catawbiense and Kalmia latifolia

A new species of Phytophthora, previously referred to as taxon Dre II, is named Phytophthora hydropathica. It is heterothallic, but all isolates recovered to date are of the A1 compatibility type. Plerotic oospores are produced. Its sporangia are usually obpyriform and are nonpapillate and noncaducous. Isolates of P. hydropathica had nearly identical single‐strand conformation polymorphism (SSCP)‐based DNA fingerprints that are distinct from those of all existing species. Their closest relatives are P. parsiana and P. irrigata. This new species is able to grow at relatively high temperatures, with an optimum of 30°C and a maximum of 40°C. It was frequently isolated from irrigation water during warm summers. This species caused leaf necrosis and shoot blight of Rhododendron catawbiense and collar rot of Kalmia latifolia at two nurseries where irrigation reservoirs yielded P. hydropathica. Its potential impact on other horticultural crops is discussed.     

Cropping systems for the management of phytonematodes

Damage caused by nematodes is one of the limiting factors in crop production. Traditional nematode management is based on the use of crop rotations, resistant cultivars, nematicides, or combinations of these methods. For a crop like peanut (Arachis hypogaea), cultivars resistant to root-knot nematodes are not available. There are soybean (Glycine max) cultivars resistant to some of the species of root-knot nematodes (Meloidogyne spp.); however, most fields have nematode infestations composed of mixtures of species. Research at Auburn has shown that tropical crops can be used effectively in rotation to manage nematode problems. Rotations with American jointvetch (Aeschynomene americana), castor (Ricinus communis), hairy indigo (Indigofera hirsuta), partridge pea (Cassia fasciculata), sesame (Sesamum indicum), and velvetbean (Mucuna deeringiana) have resulted in good nematode control and increased yields of peanut and soybean. Some crops (castor, sesame) are considered ‘active’ in that they produce compounds that are nematicidal, whereas others (e.g. corn, sorghum) are simply non-host, that is, ‘passive’.     

Genetics of Heliothis and Helicoverpa resistance to chemical insecticides and to Bacillus thuringiensis

Genetic linkage maps of Heliothis virescens and Helicoverpa armigera are being used to identify and characterize resistance-conferring genes. The insensitive acetylcholinesterase conferring resistance to organophosphorus insecticides and the insensitive sodium channel conferring resistance to pyrethroids have both been mapped in H. virescens. The linkage mapping approach permits a genetic dissection of resistance, even when the mode of action and lethal target are not precisely known, such as for the insecticidal toxins from the bacterium Bacillus thuringiensis (Bt). We have identified and mapped a major Bt-resistance locus in a strain of H. virescens exhibiting up to 10000-fold resistance to Cry1Ac toxin and are currently developing a linkage map for H. armigera with a set of ‘anchor’ loci to facilitate comparison with H. virescens. Both species are currently experiencing their first significant selective pressure in the field by transgenic cotton expressing Cry1Ac, and timely identification of resistance mechanisms and their underlying genetic basis will be essential in successfully managing the Bt resistance that will eventually appear. ©1997 SCI     

Usefulness of single copy genes containing introns in Phytophthora for the development of detection tools for the regulated species P. ramorum and P. fragariae

Introns are generally highly polymorphic regions within genes and were proven to be of great interest for discriminating among phylogenetically-close Phytophthora species. Phytophthora ramorum and P. fragariae are considered as quarantine pathogens by the European Union and accurate detection tools are therefore necessary for their monitoring. From introns located in different single copy genes (GPA1, RAS-like, and TRP1), we developed a series of PCR primers specific to P. ramorum and P. fragariae. The specificity of these primers was successfully checked with a wide collection of Phytophthora isolates and a protocol was developed to detect both pathogens directly in infected plant tissues. These genes should be of particular interest for the development of additional species-specific detection tools within the Phytophthora genus.     

Progress in understanding Pseudocercospora banana pathogens and the development of resistant Musa germplasm

Banana and plantain (Musa spp.) are important food crops in tropical and subtropical regions of the world where they generate millions of dollars annually to both subsistence farmers and exporters. Since 1902, Pseudocercospora banana pathogens, Pseudocercospora fijiensis, P. musae and P. eumusae, have emerged as major production constraints to banana and plantain. Despite concerted efforts to counter these pathogens, they have continued to negatively impact banana yield. In this review, the economic importance, distribution and the interactions between Pseudocercospora banana pathogens and Musa species are discussed. Interactions are further scrutinized in the light of an emerging climate change scenario and efforts towards the development of resistant banana germplasm are discussed. Finally, some of the opportunities and gaps in knowledge that could be exploited to further understanding of this ubiquitous pathosystem are highlighted.