Category Archives: Latest News

BEECONNECTED APP PROTECTS POLLINATORS

By: CropLife International

Australia has one of the world’s healthiest honey bee populations, which pollinates roughly 65 percent of the nation’s crops. And it works hard to keep it that way using new technology, such as the BeeConnected app.

CropLife Australia – in partnership with the Australian Honey Bee Industry Council and with the support of national farming organizations – created the novel smart phone app in September 2014, which enables collaboration between farmers and beekeepers. BeeConnected is a user-driven communication and coordination tool that uses GPS capability to allow farmers to easily log the location of their properties through Google Maps. Beekeepers can also use the same functions to log the present and future locations of their beehives. When a beehive is logged near a farmer’s property, users within the area are sent automated notifications and can chat about their activities via a secure messaging service.

The great thing about the app is that farmers and agricultural service contractors can share information about the time and location of a crop protection product application. They are then connected with beekeepers in their area by the same alert and messaging system. This communication protects bees by ensuring they are not pollinating during application times.

Since its launch, all of Australia’s state farmer organizations and several key agricultural producer groups have joined the BeeConnected initiative as official supporters and promote the use of the smartphone app among their members. Following the success in Australia, the app has been licensed in Canada and India, and there are plans for it to spread even further.

This article was published and created by CropLife International. See original post here

WHATS THE BUZZ ON HONEYBEES?

By: CropLife International

Bees, butterflies, beetles and other insects are natural pollinators that play a role in agriculture but honey bees are arguably the most important. Keeping these hard-working insects healthy is essential not only to grow crops but also to ensure farmers can turn a profit and ultimately, help feed the world.

 

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This post , including all infographics, was published and created by CropLife International. See original post here

HONEY BEE HERO OF ALMOND POLLINATION

By: CropLife International

More than 80 percent of the world’s almonds come from California and they rely entirely on pollination from honey bees to deliver a successful crop; roughly 1.6 million colonies are required every bloom period to pollinate the crop. Unfortunately, honey bees are being threatened there and other geographies by several factors – perhaps the most dangerous of which is a parasitic mite called the Varroa destructor. CropLife International “Food Hero” Dick Rogers, manager of the Bayer Bee Health Research Program in Raleigh, N.C., USA, discusses his efforts to fight the mite and protect pollinators in almonds.

Dick Rogers, the manager of the Bee Care Center Bee Health Research Program in Raleigh,
North Carolina, opening bee hives to check for mites, Shafter, California.

Why does the California almond industry need so many honey bees?

The sheer size of the crop means there can’t be enough local honey bees to pollinate it. Farmers need to supplement with managed [commercial] pollinators like honey bees, which are easy to increase in number to meet that demand. In a scenario where there are no bees for pollinating almonds, there probably would not be any commercial crop.

How many bee colonies per acre are needed to pollinate almonds?

The general recommendation is to use two colonies of honey bees [roughly 40,000-100,000] for each acre of almonds. That’s true for most crops, one to two colonies per acre, but some crops like blueberries can go up to 10 colonies per acre.

Why are Varroa mites such a threat and what is being done to combat them?

If you have a Varroa mite infestation [usually after three or four years], you are 100 percent guaranteed to lose your colony. We are working on mite management tactics, including treatments. We’re developing new varroacide compounds to control mites because beekeepers need more tools.

What is a varroacide and how are you developing it?

A varroacide is a class or group of chemicals used to control Varroa mites. There are already products on the market; some work better than others and some don’t work as well as they once did, so we are trying to find new compounds to circumvent insect resistance. We’re looking at both natural and synthetic compounds. We have nine candidate compounds that may have enough potential to develop as new products.

How is the varroacide distributed?

Plastic strips with the varroacide are placed in the hives. The varroacide is transferred to mites by bees walking over the strips, picking up molecules of the active ingredient and then passing it around the hive. The strips do not break down in the hives and are effective for 42 days.

Is there concern about the mites becoming resistant to the varroacide?

The mite can become resistant if a compound is used too frequently. Some formerly effective products now show resistance in certain instances, so they are used less and less. If we’re going to find new products, we need to know which compounds the mites can tolerate and which they can’t.

A bee hive frame with the queen in the centre in an almond grove in Shafter, California.

Is it difficult to develop a varroacide that doesn’t affect honey bees?

To develop a treatment for mites is quite a tricky undertaking because you want it to be effective on the mites, but not against the bees. We have to come up with a dose that targets the mite only.

How would a new varroacide help almond farmers?

It would make bees more readily available. It would also help beekeepers expand their operations and increase colonies without having to deal with damage caused by the mites. If they had healthy bees because of an effective treatment, they could do a lot more, allowing for larger numbers of better quality bees with longer lives. That would indirectly help almond growers because there would be a more guaranteed supply of bees.

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This article and the images included were published and created by CropLife International. See original post here

PAN-ASIA FARMERS EXCHANGE PROGRAM: ELEVEN COUNTRIES ON ITS ELEVENTH YEAR

On March 20-24, a total of 63 participants from eleven countries, which are Australia, Bangladesh, China, India, Indonesia, Korea, Pakistan, Philippines, Taiwan, Thailand and Vietnam, joined the 11th Pan-Asia Farmers Exchange (FX) Program. The group included farmers and farmer leaders, regulators, government officers, academicians, media personnel and industry partners.

Dir. Wilfredo Roldan, FPA Director, gives a short message to the participants.

Dir. Wilfredo Roldan, Executive Director of the Philippine Fertilizer and Pesticide Authority, together with Atty. Francis Badilla, Deputy Executive Director for Fertilizer, graced the event and delivered a short message for the participants during the biotech seminar.  Attendees learned about plant biotechnology and its benefits, the importance of science-based and functional biosafety regulatory framework, and the different agricultural and biotech status and experiences of each country. Besides the seminar briefings, the participants also visited different facilities at the International Rice Research Institute (IRRI), and learned more about the Iron and Zinc fortified rice and the Golden Rice. They also learned more about seed quality assurance and packaging at the Monsanto Philippines Inc Refuge-in-Bag (RIB) Plant. 

They were able to engage with actual GM corn farmers by visiting GM commercial farms organized by Syngenta. Mrs. Julie Medina, farmer leader of Barangay San Bartolome, Concepcion, Tarlac, and two young farmers, Gerry Basilio and Floyd Torla, shared how GM corn greatly improved their livelihood.

Farmers Gerry Basilio and Floyd Torla (upper left); and Farmer-financer Julie Medina (upper center), shared how GM corn greatly improved not only their livelihood, but their community.

 

The program received good feedback from the participants, stating that they learned a lot and will continue to share, exchange and promote the knowledge and information gained from the event. The FX Program was jointly organized by CropLife Asia (CLA), CropLife Philippines (CLP) and its members, and the Biotechnology Coalition of the Philippines (BCP).

 

GENE EDITING TO REVOLUTIONIZE AGRICULTURE

By: CropLife International 

What does the future hold for plant biotechnology research and development (R&D)? Between gene editing and precision farming, Dr. Kevin Folta, professor and chair of the University of Florida’s Horticultural Sciences Department, explains why he believes we’re on the cusp of another revolution in agriculture.

Can you discuss the importance of biotechnology at large?

Modern biotechnology is the ability to produce a needed trait in a much shorter time or introduce traits that you couldn’t get otherwise in traditional plant breeding. It’s about agility, precision and speed. Agriculture cannot advance to the level we need without it.

How far have we come in biotech R&D?

Most breakthroughs have been in medicine, such as the development of antibodies and reengineered viruses against cancer. But for plants, we’ve been paralyzed in some ways due to slow market acceptance in some markets. Moreover, plant biotechnology has been focused on major agronomic crops like maize and soybean. The 1996 me says ‘it’s a travesty.’ We could be solving every crop problem with biotechnology, but we’re not due to lack of consumer acceptance, government mandates, high costs of regulation and bad public information. But we can fix this!

What’s in the plant biotech pipeline?

Without question, gene editing. This allows us to inactivate genes from plants to produce desirable traits. It’s the same process as traditional plant breeding but much faster and more efficient. Every company and university lab is doing gene editing. Improving plant disease resistance is the biggest focus, but other applications, such as the removal of negative flavors and controlling flowering (more or never), are also being pursued. Gene editing is the biggest leap forward in plant biotechnology, where we’ve been taking baby steps for decades.

What are the advantages of gene editing versus other forms of biotechnology?

With gene editing, we can create changes we need without introducing foreign DNA in the final product. Although there’s nothing wrong with adding DNA, gene editing does not do so. That contrasts with transgenic modification, where new genes are introduced (sometimes from other species) and RNA interference (RNAi), where something is added to turn off or dial down gene expression. Also, it only takes a few months to a few years to create a new plant with gene editing as opposed to the incremental changes over time with traditional plant breeding or the 5-15 years it takes to cut through regulatory barriers with transgenics.

Also, since gene editing is on par with traditional breeding, there is no need to analyze products created by it under the old regulatory framework. It’s simply a different path to the same end, like driving versus taking a train to the same destination; we eliminate certain traits in both cases. That means we can speed up the regulatory approval process for gene-edited crops. For transgenic crops, this process can take 10-15 years, which is why developers are moving more toward gene editing and RNAi.

Will consumer acceptance of biotechnology increase?

Consumers want cheap, fast and good food. Biotechnology will help supply that. It will be a game changer in the developing world. The industrialized world will benefit from solving major problems like citrus greening disease in citrus fruits and diseases in avocado and American chestnut trees that threaten the supply of these foods. Plus, there are positive things biotechnology can do that appeals to the values of all: increase the safety and accessibility of food, reduce poverty and enhance environmental sustainability. Once those boxes are checked, it will be hard for consumers to deny the efficacy of biotechnology. But we must go beyond major crops.

What’s the difference between private and public sector biotech R&D?

The private sector is on a super highway and the public on a dirt road. We all want to succeed with gene editing, but the private sector grabbed it and ran with it, whereas public resources are thin. There is a competitive edge in the private sector, which spurs innovation. American companies and foreign governments, for instance, have invested heavily in gene editing technologies. This is the next moon race and public sector science is slower getting out of the gate.

How important is plant biotech R&D?

It’s critical. Countries like China have invested billions of dollars to get going in this sector. On the other hand, places like the European Union are way behind because of policies that have restricted approvals and research on biotech crops. Agricultural leaders of the next decade will be those who adhere strictly to science, not public opinion. We want to help people and solve problems. That takes technology, not non-science-based policy.

How much more will biotechnology be utilized in agriculture?

Between gene editing and precision farming, we’ll see another revolution in agriculture in the next 10 years. It will be a very different ball game … unless we regulate things to death and stop it. If not, we’ll add tremendous amounts of technology and precision to farming.

This article and the images included were published and created by CropLife International. See original post here

INVESTMENTS IN PLANT SCIENCE

By: CropLife International

Investing in agriculture is two to four times more effective at reducing hunger and poverty than any other sector.  However getting these innovative new traits from lab to field requires a tremendous level of investment:

To bring a new crop protection product to market, it takes roughly $286 million USD and 11 years of research and development.

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To develop a new biotech crop, it takes an estimated $136 million USD and 13 years of research.

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AGRICULTURE THEN AND NOW

By: CropLife International

Thanks to plant science and other innovations, agriculture has progressed tremendously over the past 150 years, becoming more and more efficient over time. If the world’s farmers would have continued to grow crops at 1961 productivity levels, they would need almost a billion hectares of new farmland to maintain today’s food supply – which is more than the total land area of the United States!

Below are a few snapshots of U.S. and global agriculture over several decades, which highlight how far we’ve come in terms of increased crop production. Doing the math, in 1860, each U.S. farm fed an average of 15 people. In 2010, each farm could feed over 140 people! During that same time, the population increased 882 percent, but the total acreage dedicated to farmland did not increase as drastically. Farmers became more efficient, using improved seeds, crop protection products, machinery and more that resulted in more yields on cultivated land. All of this occurred while reducing the workforce involved in agriculture from nearly half of the population in 1860 to less than 1 percent now.

To keep up with the growing population, the Food and Agriculture Organization (FAO) predicts that agricultural production will need to increase by 70 percent (nearly 100 percent in developing countries) by 2050. The FAO says that 80-90 percent of this increase will come from higher yields and increased cropping intensity – the number of crop growing seasons that can occur in one year – with only the small remainder coming from converting land not currently used for farming.

The chart below shows that the total “arable land,” or land used for farming, peaked in the late 1960s and has declined or maintained until now, thanks to agricultural innovations. As countries continue to produce higher yields and use the land more efficiently, this trend is expected to continue in the future.

 

This article and the image included was published and created by CropLife International. See original post here