Tag Archives: future

Baby immunisation: One in 10 infants at risk

Almost one in 10 Australian infants are at risk of severe infections because they are not up-to-date with their immunisations.

According to new research at the University of Adelaide in South Australia, conducted in conjunction with University College London, children with socio-economically disadvantaged parents, not just parents who disagree with baby immunisation, were more likely to not be fully immunised.

The study examined barriers to childhood immunisations experienced by parents in Australia. Overall researchers found 91% of infants were up-to-date with immunisations.

Associate Professor Helen Marshall, from the University of Adelaide’s Robinson Research Institute, and Director of Vaccinology and Immunology Research Trials Unit at the Women’s and Children’s Hospital, said this is the first Australia-wide study to show that factors associated with social disadvantage impact on immunisation uptake – more than unwillingness to have children immunised.

“In this study we looked at the most current individual-level data available of more than 5000 Australian children, aged 3–19 months,” she says.

She found that 9.3% of children were found to be partially immunised or not immunised at all, and of these only one in six children had parents who disagreed with immunisations.

“So the majority of infants who were incompletely immunised had parents who do not object to immunisation – something else is getting in the way,” she says.

Marshall says the primary barriers to immunisation included minimal contact with, and access to services, being a single parent and children living in a large household.

“Socio-economic disadvantage was an important reason why parents had children who were either partially immunised or not immunised at all,” she says.

“Children with chronic medical conditions were also more likely not to be up-to-date with immunisations. This is possibly due to parents and health care providers having a lack of knowledge about additional vaccines that are recommended for children with certain medical conditions or concerns vaccines may have adverse effects in these children,” she says.

Marshall says these findings can inform programs to increase the uptake of immunisations.

“Reminders and rescheduling of cancelled appointments, and offering immunisation in different settings may help achieve better protection for children and the community,” says Marshall.

“This research found that the majority of parents with partially immunised children are in favour of vaccinations, so we need to look at how we can remove the barriers experienced by these families.”

The research was published in the journal Vaccine.

This article was first published on 6 August 2015 by The Lead Australia. Read the original article here.

Buy Vision, Give Sight

Eyewear brand Revo and U2 lead singer Bono are joining forces with the Brien Holden Vision Institute to eliminate avoidable blindness and vision impairment.

“Eye tests and eye examinations are at the front line of eye care. But for millions of people without access, the simplest problems go untreated. It’s unnecessary and avoidable,” says Kovin Naidoo, Global Director of Programs, Brien Holden Vision Institute.

When consumers purchases Revo sunglasses, $10 from the sale of every pair will be donated by Revo to the “Buy Vision, Give Sight” initiative. To execute the initiative, Revo and Bono are partnering with the Brien Holden Vision Institute to provide sustainable solutions for eye care and end avoidable blindness and vision impairment in under-resourced communities.

Bono, who has a long track record in global health, particularly as an activist in the fight against HIV/AIDS, was diagnosed with glaucoma 20 years ago. His experience with glaucoma, for which he has received excellent treatment, has made him determined to find a way to increase access to frontline eye health services for others.

bono_vision

“The ‘Buy Vision, Give Sight’ campaign is a very personal one for me,” says Bono.

“Thanks to good medical care my eyes are okay, but tens of millions of people around the world with sight problems don’t have access to glasses, or even a basic eye test. Poor eyesight may not be life-threatening, but it dramatically affects your life and your livelihood if you aren’t able to fix it.  When we met with experts, they said the number one problem is untreated poor vision, which prevents a child from learning in school, or an adult from performing their job. Sight is a human right and the ‘Buy Vision, Give Sight’ initiative will help ensure millions of people have access to the eye exams and glasses they need to see.”

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“With Brien Holden, we found a partner doing remarkable work, hand-in-hand with local communities.  It’s mind-expanding what they are achieving; we’re very excited to work in partnership with them and Revo,” says Bono.

Yehuda Shmidman, Sequential Brands Group CEO, commented, “We are very excited about this partnership. Revo’s pioneering lens technology has always put eye-health central to Revo products and we believe Revo buyers will embrace the idea that their purchase is helping someone else. We’re very proud to support Bono and the Brien Holden Vision Institute in their efforts to bring basic eye care services to millions of people around the world.”

Professor Brien Holden, CEO, Brien Holden Vision Institute says,”It is extremely helpful that Revo and Bono recognise the impact that uncorrected vision impairment has on the lives of the 625 million people globally who do not have access to a simple eye examination or pair of glasses.  Revo and Bono’s commitment to our programs will have a lasting impact on millions of lives globally.”

The funds donated by Revo will help pay for basic eye care services, particularly eye tests and prescription glasses, and also build stronger eye care services in target communities for the longer term by training local people to provide eye care and detect eye diseases.

During U2’s Innocence + Experience World Tour, Bono will exclusively wear Revo sunglasses. He has designed a capsule collection of sunglasses for the brand, available in the North American fall, which will include lenses outfitted with Revo’s LMSTM technology. As with all Revo sunglasses, $10 dollars from each pair of the Bono for Revo collection will go to the Brien Holden Vision Institute.

This article was published by the Brien Holden Vision Institute on 25 July 2015. Read the original article here.

Two microbes hold key to superior feed crops

Scientists have identified two microbes that build bigger and more resilient feed crops, potentially boosting farmers’ bottom lines by millions of dollars.

The biotechnology research conducted at Flinders University in South Australia identified two strains of microbes that dramatically increase the ability of lucerne to fix atmospheric nitrogen, boosting the feed crop’s early growth and resilience, and ultimately its yield.

Research by medical biotechnology PhD student Hoang Xuyen Le drew on the hundreds of strains of endophytic actinobacteria, which grow naturally within legume roots. His research isolated and identified two strains of microbes that in laboratory and glasshouse trials were shown to promote growth in the shoots of the legume plants.

The research was supervised by Professor Chris Franco from Flinders and Ross Ballard from South Australian Research and Development Institute (SARDI). A patent has been lodged in relation to the two strains.

Nitrogen is absorbed by the plants through the formation of external nodules by symbiotic rhizobium bacteria that grow in the nodules. Franco says that following the inoculation of the lucerne seeds with spores of the actinobacteria, the nodules grew significantly larger, fixing greater amounts of nitrogen.

“Up to 50 or even 70 per cent more nitrogen was fixed,” says Franco.

The effect was to substantially improve the establishment of the lucerne, increase its resilience in drought conditions and also boost its yield.

“We found that our two main strains gave us a crop yield increase of 40 to 50 per cent in the glasshouse, and we would look for at least a 20 per cent improvement in the field,” says Franco.

He says as much as 25 per cent of the higher levels of nitrogen persisted in the soil, improving the growing conditions for subsequent crops.

The Flinders biotechnologists will now expand their trials on lucerne in the field, and will also look for similar effects in other legume crops, including peas, chick peas and faba and soya beans.

Further research is required to understand the underlying mechanism of the bugs: while it is likely that their natural propensity to produce bioactive compounds is partly responsible for increasing the general robustness of the inoculated lucerne by reducing disease, they may also be encouraging the growth of rhizobium bacteria in the soil.

Franco says that actinobacteria offer an environmentally friendly way of controlling disease, especially fungal root diseases such as Rhizoctonia, reducing the need for fossil-derived pesticides and fertiliser.

The potential to capture atmospheric nitrogen offers a major environmental benefit.

The legume seed crop, based in the South East of South Australia, is the basis of a national feed industry worth close to $100 million a year.

“This is very good news all round,” says Franco.

This article was first published by The Lead on 22 July 2015. Read the original article here.

Closing the gap

Romlie Mokak, CEO of the Lowitja Institute for Aboriginal and Torres Strait Islander Health Research, is a man with a vision.

“We’ve got a clear agenda for the future and it’s for just 15 years ahead: 2030. This agenda has been agreed upon by governments and Aboriginal and Torres Strait Islander leadership as part of the ‘Close the Gap’ campaign,” said Mokak.

The aim is to eliminate the difference in life expectancy between Aboriginal and Torres Strait Islander people and other Australians by 2030. It’s a big ambition that will take a lot of work.

“It’s essential that solutions in Aboriginal and Torres Strait Islander health and wellbeing come from the people themselves,” he said. A vital step is explicit recognition of Indigenous people in the Australian Constitution, supported by the Recognise Health coalition launched by the Lowitja Institute in March 2015.

“If we hit the target, then by 2040 we will have had 10 years with no gap. We will have a high quality, accessible health system that is culturally appropriate for Aboriginal and Torres Strait Islander people.”

Since 1997, the Lowitja Institute and its predecessor CRCs have led a substantial reform agenda in Aboriginal and Torres Strait Islander health research by working with communities, researchers and policymakers. In partnership with 21 participants, the CRC is poised to make a substantial contribution to the goals for 2030 and towards a 2040 that sees Aboriginal and Torres Strait Islander participation and leadership in all walks of Australian life.

— Clare Pain

lowitja.org.au

Feature image: Smoking ceremony conducted by Wurunjeri Elder Aunty Joy Wandin Murphy at the Lowitja Institute CRC launch in October 2014.

 

Multi-million-dollar deal brings UQ pain drug closer to reality

A chronic pain treatment discovered at The University of Queensland is a step closer to clinical use, with a global pharmaceutical giant acquiring the Australian-founded company developing the drug.

Spinifex Pharmaceuticals has been acquired by Novartis International AG for an upfront cash payment of $US200 million (about $A260 million), plus undisclosed clinical development and regulatory milestone payments.

Spinifex is a biopharmaceutical company founded by UQ commercialisation arm UniQuest.

UQ Vice-Chancellor and President Professor Peter Høj welcomed the acquisition and congratulated those involved.

“This is one of the largest Australian biotech deals in history, and is a stunning outcome for the company, the researchers and the investors,” Professor Høj said.

“Spinifex builds on the unprecedented commercial translation achievements of UQ, which includes the world’s first cancer vaccine, Gardasil.

“It is a shining example of UQ’s determination to take research from excellence to what I call ‘excellence plus’, developing a product that has potential to improve the lives of people around the world.”

Spinifex is developing the drug candidate EMA401, an oral treatment for chronic pain, particularly neuropathic pain (a type of nerve pain), without central nervous system side effects.

The technology is based on a discovery by UQ’s Professor Maree Smith.

Professor Smith said the acquisition brought EMA401 a step closer to the people who needed it most.

“Chronic pain can be a debilitating condition, most commonly associated with cancer chemotherapy, post-herpetic neuralgia (a painful condition that can follow shingles), diabetes, peripheral nerve injury and osteoarthritis.

“It’s wonderful to see this deal eventuate, bringing a much-needed treatment option a little closer to reality for the millions of pain sufferers around the world,” Professor Smith said.

UQ pain researcher Professor Maree Smith

UQ pain researcher Professor Maree Smith

UniQuest CEO Dr Dean Moss said Dr Smith’s work was at the cutting edge of pain research.

“Her achievements and expertise have contributed to the formation of the recently-launched Queensland Emory Drug Discovery Initiative (QEDDI),” Dr Moss said.

QEDDI, a collaboration between UQ and Emory University in the US, will see the development of drugs to combat health issues including cancer, diabetes, inflammatory disorders and infectious diseases.

EMA401 is a novel angiotensin II type 2 (AT2) receptor antagonist being developed as a potential first-in-class oral treatment.

Professor Smith and UQ’s Dr Bruce Wyse’s research identified AT2 receptor antagonists as inhibitors of neuropathic and inflammatory pain in preclinical models.

Spinifex is supported by a syndicate of investors, including UniQuest, NovoVentures (Novo A/S), Canaan Partners, GBS Venture Partners, Brandon Capital Partners and UniSeed (a venture fund operating at the Universities of Melbourne, Queensland and New South Wales).

Dragonfly eyes inspire machine vision

Mechanical Engineering PhD Student Zahra Bagheri at the University of Adelaide in South Australia says that despite having low visual acuity and brains no bigger than a grain of rice, dragonflies are remarkably good at tracking prey.

“They’re not like mammals which have developed very good brains, and they have very low resolution eyes compared to other animals, but they can catch their prey more than 97 per cent of the time while they’re moving at very high speeds in very cluttered environments,” Bagheri says.

“That means they have adopted very efficient methods for target tracking.”

Bagheri is part of a team of engineers and neuroscientists that have used those methods to develop a machine vision algorithm that can be applied in a virtual reality simulation, allowing an artificial intelligence system to ‘pursue’ an object.

Her project is a combination of neuroscience, mechanical engineering and computer science, building on years of research in to insect vision already undertaken at the University of Adelaide.

Zahra Bagheri and Benjamin Cazzolato with the robot that will use the newly developed machine vision algorithm.

Zahra Bagheri and Benjamin Cazzolato with the robot that will use the newly developed machine vision algorithm.

“Detecting and tracking small objects against complex backgrounds is a highly challenging task. Consider a cricket or baseball player trying to take a match-winning catch in the outfield,” Bagheri explains.

“They have seconds or less to spot the ball, track it and predict its path as it comes down against the brightly coloured backdrop of excited fans in the crowd – all while running or even diving towards the point where they predict it will fall!”

This is known as selective attention. Dr Steve Wiederman is leading the dragonfly project, and conducted the original research recording the responses of neurons in the dragonfly brain.

“Selective attention is fundamental to humans’ ability to select and respond to one sensory stimulus in the presence of distractions,” Dr Wiederman says.

“Precisely how this works in biological brains remains poorly understood, and this has been a hot topic in neuroscience in recent years,” he says.

“The dragonfly hunts for other insects, and these might be part of a swarm – they’re all tiny moving objects. Once the dragonfly has selected a target, its neuron activity filters out all other potential prey.”

“It has diverse applications. It can be used in surveillance, wildlife monitoring, smart cars and even bionic vision.”

The team has emulated that ability with their algorithm. Rather than trying to perfectly centre the target in its field of view, Bagheri says the system locks on to the background and lets the target move against it.

“This reduces distractions from the background and gives time for underlying brain-like motion processing to work. It then makes small movements of its gaze and rotates towards the target to keep the target roughly frontal,” Bagheri says.

Because the algorithm is based on a dragonfly’s small brain and limited vision, it can rival insects’ abilities as well as those of more elaborate machine vision systems – all with relatively low complexity.

“It’s shown that we can do it with very low resolution cameras and very limited computational resources. It doesn’t need high-performance computers or anything like that.”

This bio-inspired “active vision” system has been tested in virtual reality worlds composed of various natural scenes. The Adelaide team has found that it performs just as robustly as the state-of-the-art engineering target tracking algorithms, while running up to 20 times faster.

“We are hoping to test it on a robot – we’re working on that right now. It has diverse applications. It can be used in surveillance, wildlife monitoring, smart cars and even bionic vision.”

Bagheri is lead author of the paper, titled Properties of Neuronal Facilitation that Improve Target Tracking in Natural Pursuit Simulations, which was published this week in the Journal of The Royal Society Interface.

This article was published on The Lead on the 11th June 2015. Read the original article.

Australia’s energy future

Australia’s renewable resources include wind, solar, wave and geothermal energy, and there’s significant research happening to improve generation and storage technologies to overcome the inherent disadvantage of intermittent flow.

The Australian Renewable Energy Agency (ARENA) has completed 32 projects and is managing more than 200 others, including several large-scale solar photovoltaic (PV) plants and wind farms, which are considered the most advanced technologies in terms of making a short-term impact on our renewable electricity generation.

Australia’s CRC for Renewable Energy (ACRE), which operated 1996–2004, developed a state-of-the-art facility for testing grid-connected renewable energy systems, as well as small-capacity wind turbines for remote generation.

Australian scientists at the CRC for Polymers (CRC-P) have made big strides in the development of flexible, lightweight solar cells, which CEO Dr Ian Dagley describes as the “antithesis” of rigid rooftop solar cells. These lightweight cells offer intriguing possibilities: their flexibility means they can be placed on a variety of surfaces, from walls to windows, and they can operate indoors to help charge electrical devices.

They’re also attractive because they’re considerably cheaper to manufacture than silicon solar cells. Dagley says his CRC-P team has been working on refining the manufacturing technique, which uses low-cost components and reel-to-reel printers. One of the goals is to increase the lifespan of the cells, which is about five years, whereas rigid cells last roughly 30 years.

Meanwhile, the CRC for Low Carbon Living (CRCLCL) is looking at ways to dramatically reduce greenhouse gas emissions by developing smarter, more energy efficient buildings and cities. CEO Dr Deo Prasad says lower carbon buildings can be realised by optimising design to ensure maximum energy efficiency, through integration of next-generation technologies, such as solar PV cladding and heat and electricity capture systems for on-site energy offsets, and by using more sustainable building materials that need less energy to extract, process and manufacture. At the suburb and city scale, Prasad says decentralised renewable energy generation, reliable storage and smart grids, linked with information and communications technology-based intelligence, will lower carbon impacts.

“We recognise there is not going to be a silver bullet solution to carbon reductions,” says Prasad. “The approach needs to be holistic and driven by industry and governments.”

There are challenges associated with increased renewable energy levels, but Australia’s National Electricity Market seems to be handling integration well so far, says Dr Iain MacGill, joint director of the UNSW Centre for Energy and Environmental Markets. Studies by the Australian Energy Market Operator show it’s possible to operate the national grid with 100% renewables. “It won’t be cheap – just a lot cheaper than unchecked climate change,” MacGill says.

Russell Marsh, director of policy for the Clean Energy Council, emphasises the importance of commitment. “Investors need long-term certainty to ensure a rate of return,” says Marsh. “The Federal Government needs to lock in a firm, long-term target.”

MacGill agrees that the right policies can incentivise investment, but adds that it requires leadership and social consensus. “Australia is contradictory on clean energy. We have an early history and remarkable success in renewable energy deployment, and fantastic renewable resources. But we are also among the world’s largest coal and gas exporters,” he says.

“Will we take a leadership role, or do all we can to keep our international coal and gas customers buying from us?”

energy5


Remodelling energy

While coal and gas continue to be our dominant energy sources, the once-burgeoning renewables industry has been hindered by the Federal Government’s recent review of the Renewable Energy Target (RET). The review recommended scrapping the 20% target for renewable electricity generation by 2020, resulting in political deadlock and investor uncertainty across the renewable energy sector.

Bloomberg New Energy Finance’s Australian head, Kobad Bhavnagri, says the review was especially damaging because it came “very close to making retroactive changes to a policy”.

“Whenever retroactive changes are made to policy it becomes, essentially, Ebola for investors,” he says. “When governments act unpredictably and destroy the value of existing assets, it scares people – for a long time.”

Australia generates more carbon emissions per person than any other OECD country. One-third are generated by the electricity sector, in which coal and natural gas account for roughly 85% of generating capacity. Renewables, mostly from hydropower, account for about 15%.

Reaching the 20% target during the next five years will not be cheap. At the time of the review it was estimated that another $18 billion of investment would be required to reach the target.

But the costs associated with increased generating capacity are yet to be weighed against the costs of potentially catastrophic climate change. Scientists have warned a 2°C increase in overall average temperatures from pre-industrial levels is the limit our planet can withstand before the effects of climate change become irreversible.

In December 2014, following the release by the International Energy Agency (IEA) of its report World Energy Outlook 2015, the agency’s chief economist and director of global energy economics, Dr Fatih Birol, told Bloomberg’s Business Week that global investment in renewable energy needs to quadruple to a yearly average of $1.6 trillion until at least 2040, to stay below that warming threshold.

Some of the world’s biggest economies have taken note. Estimates by the Climate Interactive indicate the US-China emissions deal, if implemented in full, could keep some 580 billion tonnes of CO2 out of the atmosphere between now and 2030 – more than all global fossil fuel emissions from 1990 to 2013.

In 2014 – while China spent US$64 billion on large-scale clean energy projects, increasing its 2013 total by about US$10 billion – the USA spent nearly US$13 billion on utility-scale renewables and continued to expand production of its almost carbon-neutral shale gas reserves (see here for Australia’s progress).

Research by Bloomberg New Energy Finance found Australian investment in large-scale renewable energy in 2014 was US$223 million – the lowest in more than a decade. 2014 saw Australia nose-dive from 11th largest investor in commercial clean energy projects to 39th, behind developing nations such as Honduras and Myanmar.


The 2040 outlook

If Australia is serious about boosting its capacity for renewable energy, 2040 is a good deadline, says Iain MacGill, joint director (engineering) for the Centre for Energy and Environmental Markets at UNSW Australia – by then we’ll need “a major infrastructure transition”.

Russell Marsh is Director of Policy for the Clean Energy Council, the peak body representing Australia’s clean energy sector. “With the right level of support we could see the deployment of renewable energy at least double between 2020–2040,” he says. “But if the target is not extended beyond 2020, it is unlikely that we will see further growth.”

This view is backed by the Australian government’s Bureau of Resources and Energy Economics (BREE). In a November 2014 report looking towards mid-century electricity production, it reported “In the absence of potential new policy initiatives, the relative shares of fossil fuels and renewables in electricity generation are not likely to change significantly”.

In fact, BREE’s projections show renewable generating capacity remaining stable, meeting 20% of Australia’s total demand from 2020–2050. In this scenario, coal-fired power would still account for 65% of electricity by mid-century.

There are concerns that the current policy uncertainty is reaching a tipping point, which could see companies exiting Australia or going into distress.

Policy uncertainty  is taking a toll on  the business end of renewable energy.

Policy uncertainty is taking a toll on the business end of renewable energy.

In July 2014, RenewEconomy reported that Recurrent Energy, a US solar power plant developer being acquired by Canadian Solar, was planning to cease its Australian operations, citing concerns over policy uncertainty. Several other large international renewable energy companies, including Spain’s Acciona and US-based First Solar, have warned of possible exits, should the Renewable Energy Target be amended.

MacGill says exits are inevitable. “Why would an internationally focused renewable energy company stay if there is no prospect for their projects to go forward?

“They can, should and will depart at some point,” he says. “And with their departure, we will lose institutional capacity – such as people, money and industrial knowhow – which will inevitably
slow our ability to deploy clean energy, and increase its costs.”

Marsh agrees the risk to the industry is significant. “Every day, week and month that goes by with a cloud hanging over support for the renewable energy industry are days, weeks and months when our international competitors are racing ahead of us – and reaping billions of dollars in investment in this global growth market.”

Dr Deo Prasad, CEO of the CRC for Low Carbon Living, says that while the effects aren’t as dramatic, policy uncertainty also impacts the research community, especially “end-user driven projects where collaboration is essential”.

“Many a research direction and focus has had to change over the years, for the worse, due to policy uncertainty,” he adds.

Myles Gough

CRC for Low Carbon Living

CRC for Polymers (CRC-P)

Transforming innovation in Australia

When it comes to fostering innovation and the commercialisation of world class research, there is something the United States has that we lack. We ought to learn from the successes of the US in this area, and emulate one program they have pioneered to give our own innovative industries a much needed kickstart.

For dozens of Australian researchers returning to the country after working in the US, the lack of an equivalent to the US’s Small Business Innovation Research (SBIR) scheme here reflects a major hole in our innovation ecosystem.

Charles Wessner, Professor at Georgetown University and Director of the Global Innovation Policy unit, says the SBIR scheme triggered a fundamental shift in attitudes in American universities when it was introduced in 1982.

According to Wessner, before SBIR, the Dean of a faculty would ask young academics how many publications were going to come out of their latest piece of research.

Thirty years on, the Dean is now asking whether the research can be converted into a product or service, and whether they should spin it out of the university to access SBIR funding. It has been a profound change of mindset, says Wessner.


Simple but effective

The SBIR scheme is a fairly simple design that hasn’t changed much since its introduction. US government agencies, which undertake more than US$100 million worth of R&D outside the agency, are required to allocate 2.8% of their R&D budget to these programs. Currently, eleven federal agencies participate in the program.

Each agency takes an active role in calling for R&D – “solicitations” is the term used in the US, and with a completely straight face – for areas of concern to them. For example, the US Department of Agriculture this year is calling for projects in 10 areas. They are unsurprising fields, like “aquaculture” and “biofuels and biobased products”, but with a bit more specificity under them.

Any small business (1–500 employees) can then bid to undertake projects against those solicitations. The US Department of Agriculture issues solicitations once a year, receives about 500 applications for “Phase 1” projects (those up to US$100,000 over up to eight months) and funds about 15–20% of them. If a project is success at Phase 1, they can apply for a Phase II award, which can be up to US$500,000 over two years. Some departments have further, larger Phase III stages, although the USDA doesn’t.

For the Department of Defense (DoD), 2.8% of its extramural R&D spend is a very large amount of money indeed. Moreover, if the Department of Defense is soliciting proposals for new work, it is very likely it’ll become the first customer of that small business if the project is successful.

The DoD already has a stake in the product, and is thinking about how it might work in its own ecosystem. Given the extreme complexity of military procurement procedures, having the DoD already staked in your product is a major advantage to a new company.

Carry on Phase II and then Phase III funding, sometimes in multiple series, are available in much larger amounts from the bigger agencies, and can run to tens of millions of dollars.

Don’t imagine that means all SBIR projects are short-term or lack scientific challenges. The US Navy uses about 1.4 billion tonnes of fuel annually, and the head of its energy program, Captain Jim Goudreau, said climate change transcends politics when you are talking about that much fuel.

He pointed out that the US military is already affected by climate change in many practical ways, like having less available live fire practice days each year in California. And as he said at the TechConnect World audience in Washington last week, the Navy is contracting for materiel to be delivered in 2040, which needs to be effective into the 2070s and 2080s. So it needs to cope with a changing climate.


Pull and push

At the TechConnect meeting in Washington last week, there were literally dozens of US federal groups talking to the science and business community about their innovation needs. Big departments, like defence and energy, are represented by many specialised teams seeking out companies to work for them.

It is “customer pull” in its rawest form. The science community is here in big numbers offering new technologies to the market. When “science push” and “customer pull” mix, then the chances of successful innovation rise to a new level.

At the same time in Philadelphia, the gigantic annual biotechnology conference, BIO, was underway with more than 15,000 participants from across the globe. The two big US science funding agencies – the National Science Foundation (NSF) and the National Institutes of Health (NIH) were there in force helping their SBIR companies meet up with big pharma and other collaborators to bring technologies to market.

It’s like a science festival writ large, but also in extreme detail, as companies search for new opportunities from the vast American research community.


Could it work in Australia?

The recent joint paper from Ian Macfarlane and Christopher Pyne, “Boosting Commercialisation of Research”, floated the idea that Australia needs an “SBIR-like” scheme. The Academy of Technological Sciences and Engineering (ATSE) has often pointed out that the lack of such a scheme is a gaping hole in the Australian innovation ecosystem.

We do have some “customer pull” oriented schemes, though. The Rural R&D Corporations definitely fall into this category, as do many of the Cooperative Research Centres (CRCs).

The government’s response to the recent “Miles Review” of the CRC program was to push CRCs to be even more industry-led.

Industry leadership is the mantra for the new Industry Growth Centres, but they are not going to be funding very much research. The ARC’s Linkage Projects and the newer Industrial Transformation Training Centres as well as the NHMRC’s Partnership Centres are each attempts to have push more of the nation’s R&D investment into more market-facing efforts.

But none of these schemes are aimed at boosting innovation from small businesses. Or at least, not exclusively so. They are often encouraged to do so, and make sporadic attempts to improve their small business engagement, but it is clearly a weak spot in the Australian innovation context.

Small businesses that are trying to expand with innovative technologies constantly struggle to raise funds at early stages of development.


Bridging the gap

SBIR is not of itself a scheme for collaboration; the small businesses involved can undertake all the R&D themselves. But the experience in the US is that SBIR fosters collaboration as high technology start-ups seek to source expertise from universities and other research agencies.

Universities immediately increased their rate of spinning out companies on implementation of the scheme in 1982. The SBIR funding attracts further seed and venture capital funding, bridging that “valley of death” between early research funding and the business becoming self-sustaining.

Ultimately, many of the small businesses get bought out by large companies, particularly in the defense and pharmaceutical areas, where massive ongoing investment is needed to introduce new products.

There’s no doubt that an SBIR scheme would fill a major innovation gap in Australia, and no doubt we could make the necessary administrative arrangements. But for an SBIR scheme to truly succeed in Australia, there would be a few hurdles that I’d suggest must be overcome before we spent the first dollar. I call these the “Fair Dinkumness” tests to ensure an Australian flavour.


Fair Dinkumness test 1

Would there be true political support?

Unless a scheme enjoyed bipartisan support, there would be no point in introducing one. With one of the shortest electoral cycles in the world, Australia is at a major disadvantage in terms of stable policy in relation to innovation.

If the political support is there, then an SBIR scheme would need a significant investment of new money. Scrounging money off another under-funded program would simply be setting both up to fail. It takes some time for industry to become confident with new schemes and start to invest in a meaningful way. We’d need a real commitment.


Fair Dinkumness test 2

Would there be true bureaucratic support?

SBIR in the US works because it is a procurement scheme as well as an R&D scheme. The bureaucracy would need to seriously commit to using the scheme to improve its own departmental knowledge or services.

That means a solicited report to the Department of Environment on management of an endangered species would need to be implemented, not just sent to the library. That means the Army would need to buy the better boots from an Australian small business.

This is perhaps a bigger mindset change than either the politicians or the business community, and would need to be monitored closely, even if there was initial high level support.

For a small country such as Australia, it is often easiest to take the pathway of least risk – so Senate Estimates would need to cut bureaucrats some slack for backing Australian inventiveness too.


Fair Dinkumness test 3

Would Australian business truly back it?

If small businesses are formed just to access SBIR money, and want to survive on providing some research to government, then we are no better off. If peak industry bodies view the money as simply an entitlement for their members, then nothing new will happen.

The whole point of giving a big innovative boost to small businesses is to turn them into high-growth businesses. Existing bigger businesses would need to accept that they won’t be able to access the scheme, and they might even be faced with competition from those that do become successful innovators. An SBIR scheme by its very nature involves giving a leg-up to the new players in town, and the incumbent players need to accept that situation.

If the federal government did undertake to create an SBIR-like scheme in Australia, it would easily be the biggest reform of the innovation ecosystem in the country since the Hawke government’s raft of “Clever Country” policies.

It may not be the size of the Medical Research Future Fund as that scheme grows, but it is significantly more complex to implement. There is no doubt the government wants business and research agencies to come together much more closely. An SBIR scheme would be a massive step in that direction.

Tony Peacock

This article was first published by The Conversation on 25 June, 2015. Read the original article here.

Exploring carbon capture and storage futures

The Great Ocean Road, about 200 km southwest of Melbourne, draws millions of tourists to view the spectacular cliffs and limestone stacks known as the Twelve Apostles, carved by relentless Bass Strait waves and winds. But this region is as rich in fossil fuels as it is in scenic beauty, and several commercial gas fields have been opened in the Otway Basin along the continent’s southern margin.

There is also the CRC for Greenhouse Gas Technologies’ (CO2CRC) flagship carbon capture and storage (CCS) trial: the CO2CRC Otway Project – the world’s largest demonstration of its kind.

Since the project started in 2008, the Australian government, US Department of Energy and CRC partners have funded the injection of more than 65,000 tonnes of CO2 into the Otway Basin’s depleted gas fields, without leakage or measurable effect on soil, groundwater or atmosphere.

The project was further boosted by $25 million in Australian government funding in February this year. “The wide-scale deployment of CCS is critical to reduce carbon emissions as quickly and cost-effectively as possible,” says CO2CRC chief executive Tania Constable. “This funding will enable CO2CRC to embark on a new program of research to improve CCS technologies.”


Australia is well-endowed with natural resources. Its known uranium reserves are the world’s largest, and it is rich in natural gas. Traditionally, the most important resource has been coal: Australia has the fourth largest coal reserves globally and is the world’s second biggest coal exporter behind Indonesia. Coal exports – which have grown 5% annually over the past decade – will earn $36 billion in 2014–2015.

Figures like these have led Prime Minister Tony Abbott to declare coal “an essential part of our economic future”. Professor Chris Greig, Director of the University of Queensland’s Energy Initiative, a cohort of research expertise across all energy platforms, anticipates the country will continue to be reliant on fossil fuels, including coal, until at least mid-century. But just how far beyond that depends on how the world – particularly China, one of Australia’s biggest coal customers – addresses future climate change.

In 2014, the US-China emissions deal set China a goal to source 20% of its energy from zero-emissions sources and peak its CO2 emissions by 2030. In August 2014, amid worsening public sentiment over air pollution, the Beijing Municipal Environmental Protection Bureau announced that it would be phasing out coal-fired power in the capital’s six main districts by 2020.

China has been pouring money into the development of renewable energy technologies, spending an estimated US$64 billion on large-scale clean energy projects in 2014 alone. This was five times more than the next biggest spender, according to market analyst Bloomberg New Energy Finance. China is also investing heavily in CCS technologies, with at least 12 projects currently underway.

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There are several pathways toward reducing emissions from the electricity sector – from the adoption of nuclear energy and greater uptake of renewable sources and natural gas, to more efficient power plants and modified diesel engines that can burn liquefied coal. CCS, however, is one of the most promising methods for reducing emissions from coal-fired power stations. Capture technologies isolate and pump CO2 underground to be stored in the pores of rocks (see graphic page 29).

Rajendra Pachauri, who until early 2015 was Chair of the Intergovernmental Panel on Climate Change, told the UN 2014 Climate Summit in New York, in September 2014: “With CCS it is entirely possible for fossil fuels to continue to be used on a large scale”.

Dianne Wiley, CO2CRC’s program manager for CCS, says CO2 capture technologies are already available to install. Their deployment is limited by high costs, but there have been strong successes. Wiley points to the commercial scale Boundary Dam Integrated Carbon Capture and Sequestration Demonstration Project in Saskatchewan, Canada – the world’s first large-scale power plant to capture and store its carbon emissions – as a good example of what’s possible with CCS technology. It became operational in October 2014 and, its operators say, is already “exceeding performance expectations”. The CAN$1.3 billion cost of the system should drop by around 30% in subsequent commercial plants, says Brad Page, CEO of the Global CCS Institute.


Greig says that investment decisions in favour of CCS in Australia won’t happen until more work is done to find high-capacity storage basins around the continent that can safely and reliably store CO2 emissions for several decades.

Constable says the recent injection of capital from the Federal Government to the Otway Project will help the CRC take the necessary steps to meet this challenge. She says it will “lower the costs of developing and monitoring CO2 storage sites, enhance regulatory capability and build community confidence in geological storage of CO2 as a safe, permanent option for cutting emissions from fossil fuels”.

Retrofitting CCS technology to existing plants isn’t an option: Greig likens that to “building a brand new garage onto the side of a house that’s falling down – you just don’t do it”. CCS would therefore require investment in new coal-fired power stations.

“A well-conceived energy policy for the electricity generation sector would see ageing, low-efficient plants replaced with high-efficiency ultra-supercritical [coal] plants,” says Greig, adding that these plants have lower emissions simply by virtue of their efficiency and could achieve emissions reductions of 25% compared to existing plants.


How CCS works

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The first step of carbon capture and storage (CCS) is capture. It involves separating CO2 from other gases in the exhaust stream from a fossil fuel power plant or some other industrial facility. This can be done with solvents that absorb CO2 or with ceramic and polymer membranes that act as filters. Once isolated, CO2 is compressed into a state in which the difference between liquid and gas can no longer be distinguished. It is then transported via pipeline to a prospective storage site. Here, the CO2 is injected into an underground reservoir, such as a geologic formation or depleted oil field. The CO2 has to enter the rocks without fracturing them, and can then be stored underground for thousands of years.

Myles Gough

CO2CRC

Armour forged through collaboration

Forged from plough parts, heated in a makeshift iron forge and moulded into shape over a Stringybark log, the homemade armour worn by Ned Kelly and his gang is almost as famous as the man himself. Although the suit of armour deflected many bullets, it weighed in at just over 44kg, and left his hands and legs unprotected.

Now, the winner of the Cooperative Research Centres Association (CRC) Award for Excellence in Innovation 2015, the Defence Materials Technology Centre (DMTC), have developed a unique manufacturing process that produces armour with the same level of protection as traditional combat body armour, but is far lighter.

The DMTC developed a cutting edge manufacturing process for shaping ceramic boron carbide armour. Very difficult to manufacture, one of the key issues for the team was maintaining quality control as the material expanded and compressed in response to the heat of the production process.

“Up until recently, body armour design has been relatively simple, durable but so heavy you can’t move quickly…Think: the Ned Kelly suit,” says DMTC CEO Dr Mark Hodge. “Having optimal equipment enhances survivability. Mobility is a significant contributor to personnel protection and with less weight and more mobility, soldiers are able to get out of trouble more quickly,” he says.

Body armour designs trade off protection against weight and bulk reduction with highly protective systems often proving heavy and restrictive. Successive models have been designed to offer more comprehensive levels of protection, with vests made from industrial strength fibres to deform bullets upon impact, and plated metal inserts to provide extra protection to vital areas. Although significantly lighter than Kelly’s original armour, today’s combat body armour remains heavy and unwieldy, a troubling fact as soldiers carry up to 58kg of gear in certain situations.

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As one of the hardest substances known to man, boron carbide is frequently used in the manufacturing of body armour. However up until now it was very difficult to bend boron carbide into a variety of different forms to be used for specific body shapes. As a result, heavier materials had to be used.

With this new near-net shaping technology developed by the DMTC, body armour made purely from boron carbide will allow for manufacturing of lighter armour panels such as helmet inserts and customised ballistic panels for combat vehicles.

The development of the specialised process will yield many benefits for the Australian defence industry, says Hodge. Rather than having to outsource research and development from another country, it is being done right at home. Allowing the defence industry to make adjustments and improvements at any time to accommodate the needs of defence personnel.

Contributions included academic support from The University of Melbourne and Swinburne University of Technology, advice from the DSTO, the Army’s Diggerworks Program, Australian Defence Apparel, and research and manufacturing expertise from BMT, CSIRO, and VCAMM. The collaboration allowed for strides in industrial design capability as well as guidance from the defence department as to what threats the armour should be designed to withstand.

“It would have been impossible to find all the expertise needed for the project under one roof,” Hodge says. “In order to source the appropriate equipment and variety of expertise, we needed a collaborative team that shared a common sense of purpose,” he says.

In the next 25 years Hodge says the integration of the unique net shaping process will be applied broadly to the defence industry due to the extensive use of boron carbide in combat body armour. However, this does not mean that work stops for Hodge.

“Bullets are made to defeat body armour, so we must learn the limits of the material so that we can continue to improve and offer the next level of protection.”

Kara Norton

Defence Materials Technology Centre (DMTC)

Cooperative Research Centres Association (CRC)

Award-winning app boosts mental health help for youth

You are 16 years old and have a secret, which you’ve been carrying around for what feels like your whole life. You feel trapped so you turn to marijuana and alcohol to numb the pain. Your grades begin to slip and your parents are worried so they send you to a psychologist. During your first visit, the clinician in the waiting room starts asking questions, and all you can hear is your heartbeat ringing in your ears.

When it comes to receiving effective mental health treatment, early diagnosis and non-judgmental support are essential. In order to assess what types of treatment options are available, many clinicians start with a verbal assessment. However this verbal assessment is a barrier for many young people, preventing treatment. Psychologist and PhD candidate Sally Bradford recognised that young people between the ages of 12­­–25 could benefit from a different kind of assessment.

“They’re going into an environment where they’re expected to verbally relay everything that is going on in their lives – to tell their deepest, darkest secrets that they may have never said out loud before,” Bradford says. “It can take a long time for them to find the words – especially if the clinician doesn’t ask the right questions,” she says.

As part of her PhD focusing on the use of technology in face-to-face mental health care with young people, Bradford created the electronic psychosocial assessment app called “myAssessment” that helps clinicians evaluate young people quickly and easily. Speaking to the National Mental Health Commission’s review of Australia’s mental health system, this new screening process underscored the need to improve health services and support through innovative technologies.

“The app could be beneficial in any field where you’re needing groups of people to be truthful, and give answers in a way that they do not feel judged,” Bradford says.

Based on the strides Bradford made in youth mental health with the invention of myAssessment, she was awarded the $5000 top prize at the CRC Association Early Career Research Showcase at the CRCA’s Excellence in Innovation Awards Dinner in Canberra.
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The app was developed in close conjunction with the Young & Well CRC, youth focus groups and clinicians, and subsequently trialled at a headspace Centre in Canberra over nine months in 2014.

“The app was designed with significant input from young people and clinicians, and puts their needs and requirements first. For clinicians, it follows an evidence-based format and doesn’t require changes to the way they currently provide services. For young people, it’s interactive, engaging, and easy to use,” Bradford says.

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The way it works is a patient arrives for their appointment. Prior to seeing a clinician, patients complete myAssessment on an iPad in the waiting room. The app is a simple survey, but with a range of different response options. Topics include alcohol and drug habits, sexual preference, eating habits and anxiety and depression. Questions include screening and probing questions. Screening questions can be a yes or a no answer that prompts further questioning: Do you drink? Smoke? Have you tried or used drugs? What have you tried?

A probing question allows for a more comprehensive understanding of the issue, such as, how do you (and your friends) take them? (drugs). After answering and submitting these questions, a personalised ‘Clinician Summary’ details the patient’s risks and strengths, providing the clinician with a foundation for the first interview.

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Bradford’s trials proved to be particularly enlightening, with an 87% response rate, and ¾ of patients reporting that myAssessment provided them with an “accurate” representation of themselves. The results also showed that young people were up to 10 times more likely to open up about drug and alcohol use, sexuality, and self-harm when the application was used, in comparison to a verbal assessment with the same questions.

“There was a wealth of data generated over the course of the trial, which could be particularly useful for policy reform in the future,” Bradford says.

Kara Norton

Young & Well CRC 

Understanding athletes’ immune function to optimise performance

With the Gold Coast Commonwealth Games looming in 2018, a key concern for athletes will be how to prevent illness from interfering with their training and performance.

This is the focus of new research at Griffith University. Partnering with the Australian Institute of Sport to examine the effects of exercise on the immune system in order to help athletes compete at their best, the research team say that illness during competition can destroy years of effort and dedication.

“On average, highly trained athletes spend 8 to 12 years training to compete at their best,” says Professor David Pyne from Griffith’s Menzies Health Institute Queensland (MHIQ).

“Given the time, effort and financial considerations made by athletes, their coaches and support staff, there is a need to find ways to keep athletes healthy during heavy training, travel and competition.”

Dr Nic West

Dr Nic West

Susceptibility to illness

Professor Allan Cripps, a leading immunology researcher at MHIQ has worked with Pyne and Dr Nic West in a bid to understand why athletes seem prone to illness during heavy training and competition.

“There is evidence that endurance exercise compromises immune function and increases illness in some athletes,” says West. “Intensive exercise, particularly endurance exercise, such as triathlon, long distance swimming and ironman events, can be associated with exercise-induced immune suppression where the number and function of immune cells is decreased and their ability to respond to challenge is lowered.”

For the current study the research team is seeking highly trained male triathletes and iron men between the ages of 18-35 years who undertake 12 hours or more exercise per week.

Athletes will have their immune, gut microbiota and metabolic systems profiled and compared with non-athletes.

A significant benefit of the study is that participants will receive information regarding the status of their own immune function that can be used to tailor individual training programs.

The study is taking place at Griffith University’s Gold Coast campus.

“We hope that participation and knowledge gained from this study will help elite and non-elite athletes to attain their performance goals,” says Pyne.

This article was first published by Griffith University on 16 June, 2015.

Drone used to drop beneficial bugs on corn crop

Photograph courtesy of Ausveg and Vegetables Australia

During his Summer Science Scholarship at UQ, Mr Godfrey investigated if drones could be used to spread the beneficial Californicus mite, a predatory mite which feeds on pest leaf eating mites onto crops infected with two spotted mites.

Godfrey said two spotted mites ate chlorophyll in leaves, reducing plant vigour and crop yield.

“As corn grows, it is very difficult to walk between the crop to spread beneficial bugs,” he said.

“A drone flying over the crop and distributing the insects from above is a much more efficient and cost-effective method.”

Godfrey began his project at the Agriculture and Remote Sensing Laboratory at UQ’s Gatton Campus, learning how drones function, before spending time at Rugby Farms to gain insight into potential uses for drones.

“I built a specific drone for the project, tailoring the number of propellers, stand, and size of the motor to suit the drone’s application,” he said.

“My initial concept for the ‘Bug Drone’ came from a seed spreader, and in the end I built an attachment to the drone that can be used to spread the mites over the crop from the air.”

2015-04-29_1605Initial designs using a cylinder-shaped container to hold the mites weren’t practical as it couldn’t hold enough of the predatory mites to make the process efficient.

“I used corflute material to make a large enough storage device for the mites,” Mr Godfrey said.

“The seed spreader then acts as the distributer as it has a small motor powering it.”

The device is controlled remotely from the ground.

“We’ve tested the product at Rugby Farms and I’ve successfully proved the concept that drones can be used to spread beneficial bugs,” Mr Godfrey said.

“There is still a lot of work to be done, but the most difficult part is to work out how to control the volume of bugs being distributed at the one time.

“The next step is to monitor the crops and to see what happens after the bugs have been dropped.

“Remote sensing with precision agriculture is an interesting field, and it has opened my eyes to the career opportunities in this field,” he said.

Students can study precision agriculture at The University of Queensland Gatton in a course run by Associate Professor Kim Bryceson who also manages the Agriculture and Remote Sensing Laboratory.

Fields of glory

With the potential to add $250billion to Australia’s economy over the next two decades, according to a 2014 report by global consultancy Deloitte, agriculture has been deemed one of our five “super growth sectors”.

The Deloitte report, the final in its Building the Lucky Country series on future prosperity, says agriculture could be “as big as mining” for Australia, thanks to a combination of factors that include an increase in global population, rising food demand, food security issues and the changing dietary demands of Asia’s growing middle class in countries like China, India and Indonesia.

“Essentially, we have what the world wants and will increasingly need over the next 20 years,” says Rob McConnel, Deloitte’s Agribusiness National Leader.

“The global opportunity becomes obvious when you see the numbers, and the numbers are compelling. The world’s population is around 7billion and this is forecast to increase to 9billion by 2050, which is a 28% increase.”

The world will need to increase global food production by around 75% and Australian agribusiness “has the goods” to be a major player in meeting this demand, he says. But our challenges include investing more in research and development, improving tertiary education courses to produce more agribusiness and food science graduates, and “having a mature conversation” about foreign investment in agribusiness assets.

Also in 2014, economic consultants McKinsey & Company published a report on actions needed to build Australia’s international competitiveness across all sectors of the economy. The report, Compete to Prosper – Improving Australia’s Global Competitiveness, concludes that only one economic sector – agriculture – “stands out as strongly competitive”, but warns that its future contribution to the national economy should not be taken for granted.

While Australia is well-positioned, geographically and economically, to gain access to new markets in Asia, this growth is not assured, the McKinsey report says. Australia faces a “pervasive competitiveness problem” and many sectors of its economy lag behind international benchmarks.

The report argues that disruptive technologies such as robotics and digital communications are redefining economies and global trade, with supply chains fragmenting and becoming more specialised. The report uses Apple’s iPod as an example of a high-demand product that contains 451 distinct components sourced from around the world.

This means the global flows of those components, or “intermediate goods”, are more than three times greater than for the final product, and competition is moving from the level of industry sectors like manufacturing or retail to areas like design and logistics.

“Tools for file sharing and collaboration allow engineering plans to be drafted by teams in multiple countries; more sophisticated logistics allow construction firms to prefabricate everything from bathrooms in multi-storey dwellings to steel structures for liquefied natural gas processing plants,” the McKinsey report points out.

WHAT DOES THIS mean for Australian agriculture? Future farm research teams will include data analysts, software programmers, agronomists, statisticians, engineers, geneticists, cell biologists, hydrologists and atmospheric physicists. Farmers will use geo-location data to analyse climate, water tables and soils, and calculate inputs such as fertilisers and chemicals for weed and disease control. Farm robotics, from drone surveillance of livestock and crops to sophisticated digital systems that track soil moisture and farm water management, will be a major growth area.

The Australian Government has announced $100million in new grants for rural industries research. At the Australasian Research Managers Society conference in Canberra in September 2014,
the Department of Agriculture Senior Executive Richard Webb said “non-traditional areas” such as farm robotics will be funded by grants offered through Australia’s 15 Rural Research and Development Corporations. Australia is already a world leader in this area, Webb emphasised, adding that there was “plenty of scope” to work across industries and to adapt mining and defence robotic systems to farming.

Precision agriculture research, which involves the use of satellite mapping and remote sensors, is another area where Australia can lead. The Australian Centre for Field Robotics at the University of Sydney has developed a world-first robot sensor for vegetable farming – a solar-powered robot called Ladybird that will help farmers collect crop data, detect pests and control weeds.

The Plant Biosecurity CRC is working with researchers at the Queensland University of Technology (QUT) on the use of drones to detect diseases in wheat and other crops, as well as the spread of the myrtle rust fungus in Australia’s national parks.

Sustainable grazing systems also have the potential to improve farm productivity and profitability, while making Australia’s farms more resilient to climate variability. The Future Farm Industries CRC recently ended its seven-year research program with a string of successes, including two Eureka national science awards for its use of native perennials and shrubs to create drought resistant pasture systems. These new pastures can improve nutrition for livestock and help control intestinal parasites in sheep, reducing drenching and chemical costs. Following trials by the CRC with farmers in WA and NSW, these systems are in use across more than 1million hectares of farmland, and estimates suggest they could increase farm profitability by around $1.6billion by 2030.

The Future Farm Industries CRC also explored the possibility of planting woody crops, such as oil mallees, to diversify farm income from new industries such as aviation biofuels. In 2013, it won a CRC Association national award for innovation excellence for a low-emissions mallee harvester (capable of continuous harvesting) developed with Richard Sulman, Principal Engineer in Australian consultancy Biosystems Engineering.

160115_agricultureSMAUSTRALIA’S GLOBALLY competitive agronomists will also make greater use of genetics to improve crops and livestock. The Sheep CRC is using full genomic sequencing to improve the effectiveness of DNA tests used by wool and sheep meat producers when selecting breeding stock. The Dairy Futures CRC is involved in a global collaboration of more than 20 international participants led by Australian scientists to collect more than 1000 DNA sequences of bulls to identify gene mutations that cause embryonic death in dairy cattle (see page 20).

Four years ago, Australia’s Chief Scientist Professor Ian Chubb led a review of Australia’s international agricultural research programs and found that when national investments in agricultural science, technology and training were taken into account, the number of people benefiting from Australian agricultural expertise was around 400million a year.

“We are good at this,” he wrote in an introduction to the report. “Australia has a longstanding worldwide reputation for excellence in science related to food and agriculture. This is an area where Australia can show leadership.”

www.pbcrc.com.au

www.sheepcrc.org.au

www.dairyfuturescrc.com.au

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