Chemical plant protection. Past. Present. Future?
Journal Title: Ecocycles - Year 2016, Vol 2, Issue 2
Abstract
After the discovery (1938) and huge commercial and popular success of the insecticide DDT (Figure 1, Nobel Prize for its discoverer Paul Müller in 1948) a number of chemical companies started to develop new pesticide active ingredients. The demand for such chemicals was high: they were inexpensive and highly efficient replacements for earlier labor-intensive crop protection practices. As a result, the number of newly developed pesticides increased continuously and their use spread out to almost all areas of human activities from household crop production to households, forestry, food storage, etc.
Authors and Affiliations
Tamas Komives
Food counterfeiting in general; counterfeiting of milk and dairy products
After giving a general description and historic perspective of food counterfeiting, the questions regarding food counterfeiting today, the nature of food counterfeiting, detection and combating food counterfeiting, and p...
Community-based solutions to locally-sourced food production systems featuring the revival of indigenous knowledge
Gaia Education (GE) - an international NGO with headquarters in Scotland - has been pioneering community-based educational approaches to sustainable design and development. Founded concurrently with the launching of the...
Chemical plant protection. Past. Present. Future?
After the discovery (1938) and huge commercial and popular success of the insecticide DDT (Figure 1, Nobel Prize for its discoverer Paul Müller in 1948) a number of chemical companies started to develop new pesticide act...
Recent advances and future trends in zebrafish bioassays for aquatic ecotoxicology
Zebrafish (Danio rerio), a cyprinid teleost, has become an ideal model species for aquatic ecotoxicology due to the broad spectra of methodologies that have been developed since the 1980s. The zebrafish has many advantag...
Novel fungal consortium pretreatment of waste oat straw to enhance economical and efficient biohydrogen production
Bio-pretreatment using a fungal consortium to enhance the efficiency of lignocellulosic biohydrogen production was explored. A fungal consortium comprised of T. viride and P. chrysosporium as microbial inoculum was comp...