Title: Inorganic Pesticide - an overview | ScienceDirect Topics
Headings: Inorganic Pesticide
Inorganic Pesticide
An overview of nanopesticides in the framework of European legislation
2.2 Inorganic Nanopesticide Formulations
Diversity of Pesticides in Tea
Pesticide Dynamics
Pesticide Residues in Beverages
15.3.1 Classification Based on Chemical Nature
Integrated Pest Management
5.9.4 Pesticides
Mycorrhizal fungi and its importance in plant health amelioration
6.6 Conclusion and future prospects
Rice
6.2.3 Effective Adsorbents
Oil Palm
Objectives of Sustainable Oil Palm Breeding
General Principles
1.01.1.1.1 Pesticides/herbicides/fungicides
Nanotechnology in crop protection: Status and future trends
2.9 Future Perspectives and Challenges
Principles
8.1 PESTICIDE USE IN DOMESTIC ANIMALS
8.1.1 CATTLE
8.1.2 SHEEP AND GOATS
8.1.3 SWINE
8.1.4 HORSES
8.1.5 DOGS
8.1.6 CATS
Recommended publications

Content: In addition to dicofol and ethion ( Cranham, 1966 ), newer acaricides such as fenazaquin, fenpyroxymate, propargite, pyridaben, accquinocyle, diafenthiuron, etoxazole, spirodiclofen, and bifenzile are now widely used. These chemicals are less persistent and more environmentally acceptable, and preferably are limited to those having systemic properties. Microbial pesticides (commercialized formulations of infectious fungi, bacteria, and viruses) and plant-derived natural chemicals (botanicals) are presently playing an increasingly important role in chemical augmentation. Ongoing research efforts connected with such bio-pesticides have a significant role in future tea pest-management programs. Indiscriminate pesticide use not only contaminates the environment but also leads to higher pesticide residues in crops. Repeated use of the same chemical and the use of sub-lethal doses may lead to pest resistance ( Banerjee, 1988; Borthakur, 1993; Chakravartee? and Hazarika, 1995 ). During the last few decades, public interest regarding the environment has grown considerably ( Armstrongtome and Stiles, 1973 ).