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Printable Handouts
Navigable Slide Index
- Introduction
- Need to increase annual food production
- The challenge and the opportunity
- Salinity is a widespread issue
- Some wheat can cope better than others
- A major component of salinity tolerance
- The discovery and delivery pipeline
- Steps to a salt tolerant plant (1)
- Steps to a salt tolerant plant (2)
- HvCBL4 introgressed into commercial lines
- AtCIPK16 in to cereals
- GM field trials: low salt site
- Saline field trial: T4 35S:AtAVP1 barley
- High salt field: grain yield results
- Saline GM field trial 2012: Corrigin, WA
- Minimising Na+ delivery to the shoot
- Stelar-specific AtHKT1;1 activation (1)
- Stelar-specific AtHKT1;1 activation (2)
- HKT gene and Na+ accumulation in wheat
- HKT gene ND Na+ accumulation in durum wheat
- Reduced leaf blade Na+ increases yield
- Na+ exclusion: not the only tolerance component
- Salinity tolerance per se, is complex
- Separating components of salinity tolerance
- Australian plant phenomics facility
- The Plant Accelerator
- High throughput non-destructive measurements
- Large genetic variability in barley
- Large genetic variability in bread wheat
- Very few QTL for osmotic tolerance
- Screening for tissue tolerance
- 4D modelling of cereal grasses
- GRDC salinity traits-to-yield project 2012
- GRDC salinity traits-to-yield project 2012
- Phenotypic dissection of salinity tolerance traits
- Furthermore
- Conclusions
- The Waite Campus, University of Adelaide (1)
- The Waite Campus, University of Adelaide (2)
- Acknowledgements - The ACPFG
- Acknowledgements - The Salt Group
- Acknowledgements - The Plant Accelerator team
- Acknowledgements - funders
Topics Covered
- Food security
- Salinity
- Salt tolerance
- Ion transport
- Osmotic tolerance
- Plant phenomics
- Yield
Talk Citation
Tester, M. (2013, December 1). Genetics of abiotic stress tolerance [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved November 21, 2024, from https://doi.org/10.69645/WSDK5144.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Mark Tester has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
A selection of talks on Plant & Animal Sciences
Transcript
Please wait while the transcript is being prepared...
0:00
Hello.
My name's Mark Tester, and I've been
asked to talk about the genetics
of abiotic stress tolerance.
I work primarily on
salinity tolerance,
so the focus will be on that.
However, of course, I'll try to
allow people to think more broadly
and to consider how the work that
we're doing on salinity tolerance
could be applied to studies on
drought tolerance, low temperature
tolerance, high
temperature tolerance,
and all those other abiotic
stresses that impinge
on the plant's daily life.
0:35
The context for a lot of work on
abiotic stress tolerance of plants
is the requirement to
increase food production.
This increase is
required in ways that
are much greater than previously.
In this slide, there's an analysis
of the global cereal production
over the last 50 years, in blue,
and you can see that empirically,
it is observed to be linear,
with an average increase of
about 32 million tons a year.
If we are to meet the FAO's
requirement for an increased food
production of 70% by 2050, we need
to increase this annual increase,
if you're still with me,
from 32 million tons a year
to 44 million tons sustained
over the next 40 years.
That's increasing the rate of
annual increase of food production
that's been going 50 years by 38%.
This is a very, very tall order, and
requires significant innovations.
One of the areas in
which we need to innovate
is to increase yield
stability, which
we'll discuss on the next slide.