Isothiocyanate release from soil-incorporated Brassica tissues.

By M. Morra, J. Kirkegaard. 2002

308 citations recorded by the source corpus.

Subfields: Agronomy and Crop Science, Molecular Biology, Plant Science

View Paper: https://www.semanticscholar.org/paper/69c604a2e887c19bdd3a85032a1537b693a3c3f4

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Agronomy and Crop Science

1. M. Kropff
2. L. Bastiaans
3. M. Watt
4. H. Kruidhof
5. K. Stinson
6. Vikki L. Rodgers
7. Anne Pringle
8. B. Wolfe

In Molecular Biology

1. K. Stinson
2. Vikki L. Rodgers
3. Anne Pringle
4. B. Wolfe
5. J. Matthiessen
6. M. Watt
7. J. Kirkegaard
8. J. Passioura

In Plant Science

1. M. Watt
2. M. Kropff
3. K. Stinson
4. L. Bastiaans
5. H. Kruidhof
6. J. Kirkegaard
7. I. Zasada
8. J. Passioura

Citations in the corpus

• Biofumigation and Enhanced Biodegradation: Opportunity and Challenge in Soilborne Pest and Disease Management (2006, background): “But in laboratory studies simulating such field operations, isothiocyanate formation from incorporated fresh tissues and measured in soil, was less than 5 percent of the potential amount present in the standing biomass, assuming complete conversion of glucosinolates to isothiocyanates ( Gardiner et”
• Herbicidal activity of glucosinolate-containing seedmeals (2006, background): “Therefore the percentage limnanthin that was produced (release efficiency; Morra and Kirkegaard 2002) from intact glucolimanthin present in the seedmeal was 24.5%.”
• Rhizosphere biology and crop productivity—a review (2006, background): “Morra and Kirkegaard (2002) showed that less than 1% of the potential ITC was released in the field (0.8 nmol/g soil) following rotary cultivation of flowering canola crops into the soil, whereas full tissue maceration and irrigation could increase this to 20 nmol/g soil (Matthiessen et al. 2004).”
• Production of methyl sulfide and dimethyl disulfide from soil-incorporated plant materials and implications for controlling soilborne pathogens (2009, background): “This chemical reaction produces a number of bio-active metabolites including isothiocyanates, thiocyanates, nitriles, and other sulfur containing compounds (Cole 1976; Sang et al. 1984; Mithen 2001; Warton et al. 2001; Morra and Kirkegaard 2002 ).”
• Forage radish and cereal rye cover crop effects on mycorrhizal fungus colonization of maize roots (2010, background): “Other studies have reported that unless specific biofumigation procedures were followed, which included mechanical maceration of plant parts and thorough mixing into the soil, toxic concentrations of ITCs were not achieved (Gardiner et al. 1999; Gimsing and Kirkegaard 2006; Morra and Kirkegaard 2002”
• Nematode suppression with brassicaceous amendments: application based upon glucosinolate profiles (2004, background): “A 10% conversion of glucosinolates to ITCs (Morra and Kirkegaard, 2002) was assumed.”
• The invasive plant Alliaria petiolata (garlic mustard) inhibits ectomycorrhizal fungi in its introduced range (2008, methodology): “We used this concentration because it is within the range of measured total isothiocyanate concentrations in soils where brassicaceous crop species were grown (from 1 nmol g–1 to 90 nmol g–1 as reported in Morra & Kirkegaard 2002; Gimsing & Kirkegaard 2006).”
• Cover crop residue management for optimizing weed control (2009, background): “The effect of Brassica residue pre-treatment on subsequent isothiocyanate release (Morra and Kirkegaard 2002), as well as the isothiocyanate release pattern over time of Brassica amended soil (Gardiner et al.”