The State of New South Wales, including the Department of Regional NSW (“the Department”), does not give any warranty, guarantee or representation about the accuracy, currency or completeness of any information contained in this document (including, without limitation, any information included in the document which was provided by third parties). The State of New South Wales (including the Department) provides this document without assumption of a duty of care to any person. To the fullest extent permitted by law, the State of New South Wales (including the Department) excludes all liability in relation to the information contained in this document or for any injury, expense loss, or damage whatsoever (including without limitation liability for negligence and consequential losses) suffered or incurred by any person acting, or purporting to act in reliance upon any information contained herein. The product trade names in this publication are supplied on the understanding that no preference between equivalent products is intended and that the inclusion of a product name does not imply endorsement by the department over any equivalent product from another manufacturer.
Researcher(s) |
Scott Clark Lance Maphosa Karl Moore Aaron Preston Mark Richards Maheswaran Rohan |
---|---|
Year(s) | 2018 |
Contributor | Department of Primary Industries NSW |
Trial location(s) |
Wagga Wagga, ACT
|
Further information | View external link |
This experiment, which was part of a larger project based at Tamworth (BLG106), was conducted to determine the effect on chickpea and lentil crop development and grain yield from varying amounts of cereal surface residue (mimicking stubble load) and the resulting lower temperatures.
• Total number, severity and length of frosts increased as surface residues increased.
• Increasing the amount of surface residue delayed plant growth, lengthened growth phase duration, and overall time to maturity for both chickpea and lentil.
• For both chickpea and lentil, high surface residues, above 9 t/ha, significantly reduced biomass accumulation and grain yield.
Lead research organisation | N/A |
---|---|
Host research organisation | N/A |
Trial funding source | GRDC BLG106 |
Trial funding source | DPI NSW |
Related program | N/A |
Acknowledgments |
This experiment was part of the ‘Thermal responses of winter pulses’ project, BLG106, March 2016–June 2019, a joint investment by GRDC and NSW DPI under the Grains Agronomy and Pathology Partnership (GAPP). |
Other trial partners | Not specified |
Crop types | Grain Legume: Chickpeas Grain Legume: Lentils |
---|---|
Treatment type(s) |
|
Trial type | Experimental |
Trial design | Replicated |
Sow rate or Target density | 40 plants/m2 chickpea; 120 plants/m2 lentil. |
---|---|
Sow date | 15 May 2018 |
Harvest date | Harvest index cuts were taken as varieties reached maturity; plots were machine harvested on 19 Nove |
Plot size | Not specified |
Plot replication | Not specified |
Fertiliser |
Granulock®Z Soygran 100 kg/ha (nitrogen, [N]: 5.5, phosphorus [P]: 15.3, potassium [K]: 0.0, sulfur [S]: 7.5) |
Herbicide |
Pre-emergence • 900 g/ha Terbyne® Xtreme (875 g/kg terbuthylazine), 1.6 L/ha Avadex® Xtra (500 g/L tri-allate), 1.7 L/ha TriflurX® (480 g/L trifluralin), incorporated by sowing (IBS). Post emergence • 300 mL/ha Select® Xtra (360 g/L clethodim), 500 mL/ha Uptake™ spraying oil (582 g/L paraffinic oil). |
Insecticide |
• Astound® (100 g/L alpha-cypermethrin) 300 mL/ha – 23 May, 21 September. • Astral 250EC (250 g/L bifenthrin) 40 mL/ha – 29 September. |
Other trial notes |
This research paper is an extract from the publication Southern NSW Research Results 2020, available at |
Sow rate or Target density | Not specified |
---|---|
Sow date | Not specified |
Harvest date | Not specified |
Plot size | Not specified |
Plot replication | Not specified |
Fertiliser | Not specified |
Herbicide | Not specified |
Insecticide | Not specified |
Other trial notes |
This research paper is an extract from the publication Southern NSW Research Results 2020, available at |
SILO weather estimates sourced from https://www.longpaddock.qld.gov.au/silo/
Jeffrey, S.J., Carter, J.O., Moodie, K.B. and Beswick, A.R. (2001). Using spatial interpolation to construct a comprehensive archive of Australian climate data , Environmental Modelling and Software, Vol 16/4, pp 309-330. DOI: 10.1016/S1364-8152(01)00008-1.