Insect Pheromones and their Use in Pest Management

Author(s):  
P. E. Howse ◽  
I. D. R. Stevens ◽  
O. T. Jones
Insects ◽  
2021 ◽  
Vol 12 (6) ◽  
pp. 484
Author(s):  
Syed Arif Hussain Rizvi ◽  
Justin George ◽  
Gadi V. P. Reddy ◽  
Xinnian Zeng ◽  
Angel Guerrero

Since the first identification of the silkworm moth sex pheromone in 1959, significant research has been reported on identifying and unravelling the sex pheromone mechanisms of hundreds of insect species. In the past two decades, the number of research studies on new insect pheromones, pheromone biosynthesis, mode of action, peripheral olfactory and neural mechanisms, and their practical applications in Integrated Pest Management has increased dramatically. An interdisciplinary approach that uses the advances and new techniques in analytical chemistry, chemical ecology, neurophysiology, genetics, and evolutionary and molecular biology has helped us to better understand the pheromone perception mechanisms and its practical application in agricultural pest management. In this review, we present the most recent developments in pheromone research and its application in the past two decades.


2018 ◽  
Vol 71 ◽  
pp. 358-359
Author(s):  
David Maxwell Suckling

This medal is awarded by the New Zealand Plant Protection Society to honour those who have made exceptional contributions to plant protection in New Zealand in the widest sense. The medal is awarded for outstanding services to plant protection, whether through research, education, implementation or leadership. In 2017, the New Zealand Plant Protection Medal was awarded Prof David Maxwell (Max) Suckling. In his 35+ years of research, Max has been pivotal in bringing odour-based technologies to New Zealand. In particular, his research on insect pheromones has enabled integrated pest management to be realised in this country. As a result, New Zealand plant-based industries can access premium overseas markets due to the low pest prevalence and low pesticide residue on primary produce. It has also reduced grower exposure to pesticides. The acknowledgement of his broad knowledge of risks and benefits that new organisms and substances can pose to New Zealand has been exemplified by his position of Chair of the Environmental Risk Management Authority Hazardous Substances and New Organisms Committee where he presided over decisions from determining which organisms are new to New Zealand through to whether the benefits of the release of new organisms outweighed the risks. His unique knowledge and ability to make sound judgements based on the evidence presented also led to two invitations back to the Environmental Protection Authority after he had finished as a special member on the Committee so that New Zealand could safely continue to assess the use of biological control agents. Since 2004, in his role as Science Group Leader of the Biosecurity group at The New Zealand Institute for Plant and Food Research Ltd (PFR), Max has been instrumental in developing tools to improve detection sensitivity and socially acceptable eradication options for new pests that threaten New Zealand, such as the Queensland fruit fly and the painted apple moth. Max has been a member of the New Zealand Plant Protection Society for many years and served as President from 1999 to 2001. He was nominated for the Medal because of the passion he has displayed towards developing and making available socially acceptable pest eradication and management tools in New Zealand. The work that he and the chemical ecology team he has built and led, has had a large impact in many sectors from horticulture to biosecurity. This use of socially acceptable tools for the productive sectors naturally led to Max’s involvement in the pest surveillance and eradication space. He led the Eradication and Response Theme in the Better Border Biosecurity collaboration for over ten years, co-ordinating research among Crown Research Institutes to achieve their goals and the goals of New Zealand’s biosecurity practitioners. He has gone beyond odour-based technologies and branched into sound, vision and sterile-insect technologies for managing pests, sticking with the social acceptance theme. Max is an innovative thinker, testing novel approaches for pest management, and can bring quite separate groups together to achieve a goal. For example, he combined an irradiator used to sterilise medical equipment and insect rearing to achieve a boutique insect-sterilisation programme against the painted apple moth. By pushing the envelope, he is seen as a world leader in his field of using socially acceptable tools, with numerous invitations as a keynote speaker at international meetings, which has allowed him to return to New Zealand with some of the latest scientific ideas. He has served on working groups of the sterile-insect technique for the joint division of the Food and Agriculture Organization/International Atomic Energy Agency. He was recently made a professor when he was made a joint appointment at PFR and the University of Auckland, and has supervised and co-supervised a number of PhD and MSc students. His outstanding collaboration and mentoring skills enable him to work across different fields, secure new knowledge and tools for novel pest-management approaches, bring together people from different organisations, and mentor ‘thinking-out-of-the-square’ scientists for the future. His desire to protect New Zealand’s flora, fauna and people, make him a worthy recipient of the New Zealand Plant Protection Medal.   NZPP Medal recipients for the previous five years: 2016: Rob Beresford 2015: Gary Barker 2014: - 2013: Andrew Hodson 2012: Margaret Dick


Author(s):  
R. Srinivasan ◽  
M-Y Lin ◽  
F-C Su ◽  
Sopana Yule ◽  
Chuanpit Khumsuwan ◽  
...  

Author(s):  
J. R. Adams ◽  
G. J Tompkins ◽  
A. M. Heimpel ◽  
E. Dougherty

As part of a continual search for potential pathogens of insects for use in biological control or on an integrated pest management program, two bacilliform virus-like particles (VLP) of similar morphology have been found in the Mexican bean beetle Epilachna varivestis Mulsant and the house cricket, Acheta domesticus (L. ).Tissues of diseased larvae and adults of E. varivestis and all developmental stages of A. domesticus were fixed according to procedures previously described. While the bean beetles displayed no external symptoms, the diseased crickets displayed a twitching and shaking of the metathoracic legs and a lowered rate of activity.Examinations of larvae and adult Mexican bean beetles collected in the field in 1976 and 1977 in Maryland and field collected specimens brought into the lab in the fall and reared through several generations revealed that specimens from each collection contained vesicles in the cytoplasm of the midgut filled with hundreds of these VLP's which were enveloped and measured approximately 16-25 nm x 55-110 nm, the shorter VLP's generally having the greater width (Fig. 1).


2003 ◽  
Vol 51 (2) ◽  
pp. 237
Author(s):  
G. Vida
Keyword(s):  
New York ◽  

D. Pimentel (Ed.): Encyclopedia of Pest Management. Marcel Dekker, Inc., New York, Basel, 2002. 929 pp. ISBN 0-8247-0632-0


2020 ◽  
Vol 31 (1) ◽  
pp. 24-35 ◽  
Author(s):  
Somiahnadar Rajendran

Insects are a common problem in stored produce. The author describes the extent of the problem and approaches to countering it. Stored products of agricultural and animal origin, whether edible or non-edible, are favourite food for insect pests. Durable agricultural produce comprising dry raw and processed commodities and perishables (fresh produce) are vulnerable to insect pests at various stages from production till end-use. Similarly, different animal products and museum objects are infested mainly by dermestids. Insect pests proliferate due to favourable storage conditions, temperature and humidity and availability of food in abundance. In addition to their presence in food commodities, insects occur in storages (warehouses, silos) and processing facilities (flour mills, feed mills). Insect infestation is also a serious issue in processed products and packed commodities. The extent of loss in stored products due to insects varies between countries depending on favourable climatic conditions, and pest control measures adopted. In stored food commodities, insect infestation causes loss in quantity, changes in nutritional quality, altered chemical composition, off-odours, changes in end-use products, dissemination of toxigenic microorganisms and associated health implications. The insects contribute to contaminants such as silk threads, body fragments, hastisetae, excreta and chemical secretions. Insect activity in stored products increases the moisture content favouring the growth of moulds that produce mycotoxins (e.g., aflatoxin in stored peanuts). Hide beetle, Dermestes maculatus infesting silkworm cocoons has been reported to act as a carrier of microsporidian parasite Nosema bombycis that causes pebrine disease in silkworms. In dried fish, insect infestation leads to higher bacterial count and uric acid levels. Insects cause damage in hides and skins affecting their subsequent use for making leather products. The trend in stored product insect pest management is skewing in favour of pest prevention, monitoring, housekeeping and finally control. Hermetic storage system can be supplemented with CO2 or phosphine application to achieve quicker results. Pest detection and monitoring has gained significance as an important tool in insect pest management. Pheromone traps originally intended for detection of infestations have been advanced as a mating disruption device ensuing pest suppression in storage premises and processing facilities; pheromones also have to undergo registration protocols similar to conventional insecticides in some countries. Control measures involve reduced chemical pesticide use and more non-chemical inputs such as heat, cold/freezing and desiccants. Furthermore, there is an expanding organic market where physical and biological agents play a key role. The management options for insect control depend on the necessity or severity of pest incidence. Generally, nonchemical treatments, except heat, require more treatment time or investment in expensive equipment or fail to achieve 100% insect mortality. Despite insect resistance, environmental issues and residue problems, chemical control is inevitable and continues to be the most effective and rapid control method. There are limited options with respect to alternative fumigants and the alternatives have constraints as regards environmental and health concerns, cost, and other logistics. For fumigation of fresh agricultural produce, new formulations of ethyl formate and phosphine are commercially applied replacing methyl bromide. Resistance management is now another component of stored product pest management. In recent times, fumigation techniques have improved taking into consideration possible insect resistance. Insect control deploying nanoparticles, alone or as carriers for other control agents, is an emerging area with promising results. As there is no single compound with all the desired qualities, a necessity has arisen to adopt multiple approaches. Cocktail applications or combination treatments (IGRs plus organophosphorus insecticides, diatomaceous earth plus contact insecticides, nanoparticles plus insecticides/pathogens/phytocompounds and conventional fumigants plus CO2; vacuum plus fumigant) have been proved to be more effective. The future of store product insect pest management is deployment of multiple approaches and/or combination treatments to achieve the goal quickly and effectively.


2019 ◽  
Vol 30 (1) ◽  
pp. 25-32 ◽  
Author(s):  
Elizabeth H. Beers ◽  
Adrian Marshall ◽  
Jim Hepler ◽  
Josh Milnes

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