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BEYOND THE BIG FOUR – STAPLE CROPS AROUND THE WORLD

By: CropLife International

A staple food is one that is eaten regularly and in such amounts that it is a main part of a population’s diet, supplying a significant amount of energy and nutrition. These crops are in such high demand that they need to be high-yielding and resistant to pests, diseases and environmental stresses.

There are more than 50,000 edible plant species on the planet, but only a few hundred contribute meaningfully to our diet. In fact, just 15 crops provide 90 percent of global energy intake and “the big four” – maize, rice, wheat and potatoes – are staples for about 5 billion people. Such reliable, widespread crops are the basis of food systems and human subsistence. Plant science technologies, such as crop protection products and biotech seeds, have helped keep these staples stable, even in the face of climate change.

The most productive staple crop in the world is maize, which yielded 1.1 billion tons in 2019 alone, followed by wheat, rice and potatoes at 765, 755 and 370 million tons, respectively.  But what about staple crops beyond these heavy hitters? Here is a look at the unsung heroes of agriculture. In different parts of the world, they help feed rural communities and entire countries, with more nutrients than the big four.

Soybeans have been grown as a crop for thousands of years. As legume plants, they fixate nitrogen, absorbing this essential nutrient from soil bacteria, which is a talent most crops lack. This means fertilizer is usually not needed when growing soybeans. Moreover, plant science technologies have led to higher and higher soybean yields. No wonder they are one of the world’s fastest expanding crops!

While low-carb soybeans are highly prized for their oil, they are considered a staple food because of their protein. They are among the best sources of plant-based protein in the world, plus contain vitamins and minerals. They are processed into milk, tofu, tempeh and other high-protein products. Japan and China are major consumers of these foods.

Global soybean production is concentrated in Brazil and the United States on sizeable farms, but the crop is also grown in many other countries by smallholder farmers.

In both developed and developing countries, the adoption of biotech soybean varieties has more than doubled yields since the 1960s. That’s why these varieties account for up to 81 percent of global production. Herbicide-resistant biotech soybeans also reduce greenhouse gas emissions by as much as 80 percent as they allow for no-till farming, which keeps carbon in the soil.

Cassava is a staple for more than 600 million people across Africa, Asia and Latin America. It is an excellent source of vitamin C and a good source of fiber and potassium. The Food and Agriculture Organization of the United Nations identified it as a vital crop in the fight against hunger and formed a partnership to bolster its genetic improvement.

Cassava is grown by many farmers in developing countries due to its ability to thrive in poor soils as it requires less water and fertilizer than alternatives and can be harvested anytime from eight to 24 months after planting, meaning it can be left in the ground as a living food store. The only caveat is that long periods in the soil makes cassava more susceptible to pests and diseases.

Cassava farmers have typically struggled with these challenges as the crop is notoriously resistant to traditional plant breeding techniques due to unreliable flowering patterns.

However, gene-edited cassava flowers more reliably, giving researchers great hope for the future of this crop. Biotech varieties could help control pests and diseases as well as enhance yields and nutrition. This crop has untapped potential; experts estimate that introducing such varieties could increase cassava production in Africa by 150 percent.

Sweet potatoes are vital in the diets of people in parts of Africa and Asia, where they are a major source of subsistence. They are a rich source of vitamin A and good source of fiber.

Drought-tolerant sweet potatoes grow incredibly well on marginal land and do not require a large degree of care. Farmers are sweet on these qualities so these potatoes have expanded faster than all other staple crops in sub-Saharan Africa in the last 20 years. They have also attracted the attention of researchers who would like to use sweet potatoes to improve the health of children.

In rural sub-Saharan Africa, around 48 percent of children have vitamin A deficiency. This can degrade immune systems, increasing the risk of diarrhea and even causing blindness. In 2009, this dire situation led to the formation of the Sweet Potato for Profit and Health Initiative, which developed varieties with greater virus resistance, drought tolerance and lower sugar levels. It led to commercial production of orange-fleshed sweet potato biofortified with beta carotene. This variety significantly raises vitamin A levels in children, further cementing the sweet potato’s status as a vital staple.

Known as an “orphan crop” due to not being widely traded, yams are a staple food for more than 100 million people in the tropics, particularly western and central Africa. They are “yam-packed” with vitamin C, potassium and fiber. 

Contrary to popular belief, yams are distinct from sweet potatoes; they are less sweet, more starchy, larger and cylindrical with bark-like skin that’s difficult to peel and flesh that’s purple or pink when mature. Yams can grow up to 1.5 meters and 60 kilograms! 

Indigenous to Africa and Asia, yams are now also commonly grown in the Caribbean and Latin America. There are more than 600 varieties! 

Farmers favor them as they can be stored for four to six months without refrigeration, giving people a vital safety net between growing seasons.  

The yam’s orphan status has led to a recent research push into biotech improvements. The genetics of yams are the least understood among major staple food crops, partly due to biological restraints. The domestication of wild yam species is ongoing in Africa, further widening the genetic base. As such, this crop has more potential for biotech innovation than any other major staple and efforts to improve the yam’s disease resistance and yield are underway.  

High in protein and potassium, sorghum has been a staple crop in semi-arid areas of Asia and Africa for hundreds of years and millions of people rely upon it. This crop is well-liked by subsistence farmers due to its ability to thrive in harsh environments where other crops grow poorly or fail. It is the only viable grain and plant protein for many of the world’s most food-insecure people.  

Most varieties are heat- and drought-tolerant, while higher-yielding dwarf varieties have seen increasing commercial production in countries like the United States.

Combining these varieties with modern crop protection and smart water management can see yields increase by as much as eight times.  

Sorghum’s natural qualities make it ideally suited for drought-susceptible regions, with climate change expected to further enhance its status as one of the most important cereal crops on the planet. This led to it being selected for biofortification, as natural varieties contain a compound that reduces the body’s ability to use iron and zinc, which can cause anemia. These new varieties tackled this challenge while also gaining beta-carotene, which the body converts into vitamin A. This is a great example of plant science improving nutrition for some of the world’s most vulnerable people.  

With populations and food systems across the world facing the impacts of climate change, combined with the ever-increasing need for farmers to produce more with less, safeguarding staple crops is more important than ever. While “the big four” of maize, rice, wheat and potatoes are caloric powerhouses, other staple crops offer more nutritionally like soybeans, cassava, sweet potatoes, yams and sorghum.

With populations and food systems across the world facing the impacts of climate change, combined with the ever-increasing need for farmers to produce more with less, safeguarding staple crops is more important than ever. While “the big four” of maize, rice, wheat and potatoes are caloric powerhouses, other staple crops offer more nutritionally like soybeans, cassava, sweet potatoes, yams and sorghum.

CASSAVA: HOW PLANT SCIENCE IS HELPING IMPROVE THIS STAPLE CROP

Today, PLANT SCIENCE INNOVATIONS are making staple crops more profitable, more nutritious and better protected against unpredictable weather. Cassava is no exception. Both farmers and consumers throughout the world can reap the benefits of varieties that are healthier, heartier and more abundant.

Cassava provides sustenance for over 800 million people. A perennial woody shrub native to Latin America, cassava is primarily grown as an annual crop in the humid tropics. Studies indicate it is the only staple crop that stands to benefit from climate change. As more land is rendered unusable due to changing temperature and rainfall patterns, cassava will likely gain ground as a staple around the globe.

We spoke with Chiedozie Egesi of NextGen Cassava Breeding Project, who is at the forefront of new innovations to enhance this already resilient and hearty staple crop. Read our interview with him to learn how and why cassava is a major staple crop of the developing world and what its future holds. (This interview has been formatted for brevity and clarity.)

Chiedozie Egesi – Project Leader at NextGen Cassava Breeding Project
Chiedozie Egesi, leader of the NextGen Cassava Breeding Project, tells us how he and his team are developing better cassava plants to resist challenging growing conditions, be more productive and deliver more nutrition.

Tell me about your role at NextGen Cassava. What type of research do you lead?

Our main objective is to empower African cassava farmers through innovative, sustainable cassava breeding. We have begun the process of modernizing cassava breeding institutions in Africa and use cutting-edge tools for efficient delivery of improved varieties of cassava.

My role includes project coordination, charting the course we take and ensuring that our partners are supported to deliver on the project mandate. We specialize in cassava breeding implementation—cutting-edge research technologies that make for more efficient processes and demand-led breeding.

Why is cassava a staple crop in South America, Africa, and other developing countries?

Cassava is a major calorie source for over 800 million people. It has high productivity in marginal environments, making it an invaluable asset for food security—it survives where other crops fail. It also has naturally high resilience to climatic changes. Finally, it is produced mainly by smallholders [farmers with less than 2 hectares of land] – mostly women – with simple technologies, allowing it to be easily grown across multiple countries and environments.

What challenges have cassava farmers faced in recent years?

Cassava producers face several main challenges these days. First, many pests and diseases have constrained production for cassava growers. Part of this is actually because of cassava’s long growth cycle—its long duration in the field increases its exposure to pests and viruses. Also, cassava is perishable, which leads to limited flexibility in handling. Lastly, poorly linked value chains in Africa cause frequent boom-and-bust cycles of high and low productivity. The markets have not been well developed to make for sustainable agribusiness.

How have plant science innovations helped cassava farmers?

A recent example is the timely delivery of new, “best-bet” varieties to cassava farmers. Genomic selection is an integral technology that has enabled us to get these more resilient, more productive and more nutritious varieties. We have employed innovative “citizen science” approaches to enable participatory selection of improved varieties. In addition, new technologies have helped us rapidly screen large breeding populations. Others include techniques to improve flowering in cassava, an essential step for hybridization through pollination. Application of a combination of hormones has enabled us to make cross combinations that were not very easily done due to the poor flowering of some cassava varieties.

Which plant science innovations does NextGen Cassava utilize in its work with smallholder farmers?

We predicted the performance of new varieties based on the genetic information of their parents using modeling systems. This allowed us to reduce the generational cycle time for cassava from about 10 years to five. Better varieties can now get to farmers faster, and we are still working on further improving this. We are designing research that maps preferences and links to social differences such as gender, age, education, region, poverty and food security levels.

How will climate change continue to impact cassava and smallholder farmers?

Cassava is one of the most climate-smart crops in the tropics and has the capacity to withstand changes in the atmosphere, which it can use to its advantage for more productivity. As climate change continues to be a challenge for smallholder growers in Africa, cassava farmers stand a better chance to make more profitable agribusiness due to the robustness of the crop. 

How will supporting plant science innovations help communities that depend on cassava?

Support for plant science innovations is needed to help communities that depend on cassava in Africa. New technologies will transform cassava production and deliver the best varieties for maximum impact on growers and their families.

For more information about cassava and its role as a staple crop in different countries around the world, please check out these resources:

Kenya Approves Disease-Resistant Biotech Cassava

In June 2021, the Kenya National Biosafety Authority approved the environmental release of genetically modified cassava, which is resistant to cassava brown streak disease. The disease-resistant cassava was developed under the Virus Resistant Cassava for Africa Plus project, a collaborative program between Kenya Agricultural and Livestock Research Organization, National Crops Resources Research Institute of Uganda and Donald Danforth Plant Science Center. Learn more about this breakthrough from the Cornell Alliance for Science and ISAAA.

Repairing the Root of the Problem

Despite the ability to turn cassava into an endless number of palatable dishes, the tuber has two major issues affecting the people who rely on it the most. First, cassava faces the threat of brown streak disease, limiting available food and second, the crop has a natural toxin that can cause severe physical and mental damage in the populations who need it most. For the millions it feeds, this important crop must be usable. That’s where plant biotechnology and gene editing come in. This video from the American Seed Trade Association and University of California at Berkeley shows the research being done to improve this staple crop for the millions who depend on it.

Save and Grow Cassava: A Guide to Sustainable Production Intensification
The Food and Agriculture Organization (FAO) of the United Nations has published a booklet about the production of cassava. It notes that cassava was first cultivated 9,000 years ago on the southern edge of the Brazilian Amazon, where it is still grown. Today, around 300 million tons of cassava are produced globally, with Nigeria as the world’s largest producer. Around 90 percent of harvested roots are destined for human consumption, while about 10 percent are semi-processed on-farm as animal feed. Read the entire 100-page PDF on the FAO website.

African Scientists Improve Cassava to Help Feed the World
2019 article in the journal Nature explains how researchers at the International Institute of Tropical Agriculture in Nigeria are using both traditional breeding and genetic modification to improve the starchy staple crop. In Africa, where consumption is highest, cassava plants bear smaller yields than their cousins in Asia and South America. But African varieties tend to be more tolerant of blights, such as the deadly cassava mosaic disease now spreading across Asia.

Source: United Nations Food and Agriculture Organization

Breeding Better Crops, From Maize to Cassava
In this video from the Gates Foundation, United States Department of Agriculture (USDA) Agriculture Research Service (ARS) and Cornell University, plant geneticist Ed Buckler explains that cassava has not been bred as effectively as other crops – such as maize – and there is tremendous potential including disease and insect resistance, by taking new, modern breeding tools and applying them to cassava.

Developing GM Super Cassava For Improved Health and Food Security: Future Challenges in Africa
The potential for GM cassava also includes biofortification. According to a study in the open access journal Agriculture & Food Security, more than 800 million people suffer from micronutrient malnutrition in developing countries with Africa accounting for almost 50 percent of the children who are clinically or sub-clinically deficient in vitamin A, particularly under five years of age. The study found that an overwhelming majority of scientists agree that GM biofortified cassava will benefit the health of millions in Africa and that GM cassava conferred with disease and pest resistance will increase cassava production as it is currently plagued by cassava mosaic diseases (CMD).

CROPLIFE ASIA ECHOES FAO CALL TO TRANSFORM OUR FOOD SYSTEMS

Highlights need for agricultural innovation in addressing Asia’s growing food security crisis / Helping reach region’s hungry, undernourished

Singapore, 13 July 2021 – With the release of the United Nations (UN) 2021 State of Food Security & Nutrition in the World (SOFI) report, CropLife Asia highlighted the need for the region’s food value chain stakeholders to work together in transforming our food systems to better enable food security, improved nutrition, and affordable healthy diets for all.

The challenge of achieving the UN’s Sustainable Development Goal (SDG) 2 of ‘zero hunger’ globally by 2030 has grown even more complicated with the broad impact of the COVID-19 pandemic. In this latest UN report, it is estimated that the number of people affected by hunger worldwide in 2020 was between 720 and 811 million people. This is a marked increase of over 100 million more people than in 2019. The prevalence of undernourishment (PoU) has also climbed up to around 9.9 percent in 2020 compared to 8.4 percent the previous year. This new report also confirms a sadly familiar refrain for Asia: our region is failing to deliver food security for far too many – particularly among the more vulnerable parts of society. Asia continues to be home to the greatest number of undernourished people with 418 million suffering from hunger in 2020.

“The challenge of feeding Asia and the world requires us to explore all possible solutions. This can only be achieved through greater collaboration with others, as multi-stakeholder approaches are crucial for transformation of our food systems.” said Dr. Siang Hee Tan, Executive Director, CropLife Asia. “The plant science industry champions innovation in both crop protection and plant biotech, as well as precision and digital agriculture solutions to benefit both people and the planet.”

“The innovative technologies of the plant science industry have a key role to play, but it is only one part of the solution,” Dr. Tan added. “Ensuring that an ample supply of affordable and nutritious food reaches those who need it most is a shared responsibility. Farmers’ access to innovation is an increasingly crucial component to combatting food insecurity in Asia and around the world.”

Global crop losses due to pests and disease are a major contributor to global food loss and waste. These losses would be twice as high without the use of crop protection products. Crop losses can be further reduced through more effective crop protection stewardship practices. Without innovations such as crop protection products and plant biotechnology, global pre-harvest crop losses could double(1). Meanwhile, biotech crops are developed with improved traits such as increased yield, better resistance to pests and/or improved nutrition, among others. These traits are crucial tools that enable farmers to produce more food using fewer resources to feed our growing world.

(1) http://www.croplifeamerica.org/crop-protection/benefits/increase-food-production

About CropLife Asia

CropLife Asia is a non-profit society and the regional organization of CropLife International, the voice of the global plant science industry.  We advocate a safe, secure food supply, and our vision is food security enabled by innovative agriculture.  CropLife Asia supports the work of 15 member associations across the continent and is led by eight member companies at the forefront of crop protection, seeds and/or biotechnology research and development.  For more information, visit us at www.croplifeasia.org.

For more information, please contact:

Duke Hipp
Director, Public Affairs & Strategic Partnerships
CropLife Asia
Tel: +65 6221 1615
duke.hipp@croplifeasia.org

SUDANESE YOUTH LEADER ON CLIMATE CHANGE AND AGRICULTURE

By: CropLife International

Nisreen Elsaim

Nisreen Elsaim

There is no planet B. Our earth’s environment must be both preserved and restored in order to secure a sustainable future for generations to come. The United Nations’ 13th Sustainable Development Goal states that we must take urgent action to combat climate change and its impacts. Younger generations of advocates are taking notice of this imminent concern.

To meet these goals, all industries and sectors of the world must make climate change — and the existential threat it poses — a top priority. The agricultural sector is far from an exception. But it will be a solution.

We spoke with Nisreen Elsaim, chair of the United Nations (UN) Youth Advisory Group on Climate Change and chair of the Sudan Youth Organization on Climate Change, about the effects of climate change, especially in developing countries, and the role agriculture and plant science can play in combatting it. This interview had been formatted and adapted from its original recording for brevity and clarity.

Can you tell us about the U.N. Youth Advisory Group on Climate Change and what you do?

Nisreen Elsaim: The first ever Youth Climate Summit happened in 2019 in New York, right before the Climate Action Summit. Between the two summits, there was some youth involvement with the secretary-general to expand the influence of young people and better recognize their efforts in addressing climate change. One of the recommendations was to establish an advisory board for the secretary-general with young people taking action on climate. This led to the creation of the Youth Advisory Group.

This group is very diverse both in graphical representation and background. For example, Paloma Costa from Brazil represents Latin America and she’s a lawyer. Archana Soreng is from India; she’s in research and comes from an indigenous community. Vlad Kaim is from Moldova; he represents Eastern Europe and he’s the economist of the group. And I represent Africa. My background is in physics, and I have a master’s degree in renewable energy. I’m currently focusing on climate policies.

Our mandate is very simple: we advise the secretary-general on things that young people think should happen within the UN system. We play the role of a bridge between the secretary-general and young people.

What makes developing countries the most vulnerable to climate change? And how have the impacts of climate change been felt in Sudan?

NE: I recorded a video that covers just this. We know that climate change is real and that it is human made. A third of Sudan is covered by desert and desertification is a growing problem. The country has gone through a decades-long civil war and conflict over natural resources. This has put biodiversity, fertile land, food and water security in greater danger and made the country very vulnerable in the face of climate change. Floods destroy buildings, fields and people’s livelihoods, and they will get worse as climate change gets worse.

The country cannot compensate farmers who’ve lost whole harvests to floods. There are some insurance companies, but not everyone has access to them. Many farmers don’t have other options so they stick to agriculture. It’s a risky investment, especially in the flood season, which we know already they cannot change. Some farmers skip the flood seasons and try to intensively do agriculture in different seasons, but others take the risk.

There are many misconceptions about climate change in agriculture. What do you think is the most common myth that you encounter around the two topics?

NE: Well, I think there is more misunderstanding, or misjudging, about the situation. Not only in agriculture, but also with livestock. A lot of people think that eating meat is increasing a lot of emissions in the environment. And it’s true, but in certain climate or weather conditions, it’s different. For example, a cow in Sudan does not produce the same amount of methane as a cow in Poland or in Germany. Why? Because the climate situation in Sudan is very dry and hot. And we all know that methane is actually an organic result of fermentation.

Fermentation requires the presence of water. It needs specific conditions which don’t really exist in a dry, hot country like Sudan, but they do in humid, wet and cold countries like Poland, the Netherlands or Germany. So, it’s not the same impact. It’s not the same effect. And definitely, it’s not the same emission of methane gas.

What tools can help farmers best address the challenges presented by climate change?

NE: Desertification is a huge issue in Sudan and it’s moving very fast, covering big areas. Many tools can help address desertification. One example is center pivot irrigation, where you actually irrigate the crops in circles which helps farmers use water efficiently.

What are the concerns associated with misinformation around climate change and agriculture and the way that our food is produced?

NE: First, farmers who have a misunderstanding of the problem will implement the wrong solution, which perpetuates the problem.

A lot of consumers care about the origin or impact of their food. So, economically it will impact the farmer, especially in countries where farmers sell directly to consumers. If the consumers stop buying from the farmers, the farmers’ livelihoods are at serious stake.

In addition, general misunderstandings create a very negative atmosphere. In a country like Sudan, this will impact the policies, legislation and laws. Policies could be passed without any scientific basis.

What role do you think agriculture can play in helping communities adapt to climate change?

NE: In order for agriculture to help the community adapt to climate change, we must first help the agriculture industry adapt to climate change.

If agriculture becomes somehow immune to — or at least less impacted by — climate change, then it directly helps and supports communities through better food security, economic prosperity and so on. It will secure farmers’ income. It will secure food security, which is very important. And if we ensure a very good agricultural cycle, then we can even have other activities to increase the income and diversity of food. Building the resilience of communities through green jobs like agriculture is key.

What major milestones in the youth movement for climate change are you looking forward to?

NE: One of the things we are looking forward to is the Youth COP that will be held in Milan in September. It will be a very good milestone for the youth movement of climate change and climate diplomacy.

Climate change poses an existential threat to all countries, sectors, industries and businesses on earth — no matter how big or small. The only way to properly tackle this challenge is to work together. The agricultural sector offers much in the way of climate change solutions. The sooner we can dispel myths surrounding agriculture and climate change, the sooner we can more effectively fight back against it.

HOW PLANT SCIENCE IS SUPPORTING THE PLANET’S POLLINATORS

By: CropLife International

Download the full infographic here.

The relationship between pollinators and agriculture is one of the most vital on the planet. Many of the crops we rely on to feed our growing populations would be impossible to produce without pollinators, making them crucial to our food systems.

As such, agricultural techniques that support pollinators and their habitats can play a critical role in ensuring the sustainability of our food production. Pollinators are facing a number of challenges, from habitat loss, to the impacts of climate change, disease and other pests.

Plant science innovations and other techniques are helping provide the answers to many of these challenges. Integrated Pest Management (IPM) takes a holistic view of crop protection that limits environmental impact and utilizes agronomic practices such as plant spacing or mulching. Innovations like, GM varieties of plants offer intrinsic pest resistance, limiting the need for control methods, while herbicide resistant crops allow for less tilling of soil, which protects the natural biodiversity of our topsoil.

By looking at some of the world’s most important crop and pollinator relationships we can explore how plant science gives farmers a variety of tools to protect their crops at the same time as supporting pollination. But first, who are the world’s pollinators and exactly how important are they to our food systems?

Farmers are acutely aware of their reliance on pollinators for the success of their crops. They also rely on plant science innovations to protect those crops from pests and ensure the highest possible yields. Luckily, both these vital parts of the agricultural process can support each other as shown by the pollinator partnerships below.

The squash bee is one of many vital species that helps pollinate the summer squash in the U.S. This crop was facing a significant threat from the zucchini yellow mosaic virus (ZYMV). Plant science again came to the rescue with a ZYMV-resistant variety of the summer squash.

ZYMV is spread by Aphid populations so before the introduction of the GM squash, farmers were tackling the virus by limiting ‘green bridges’. These connecting sections of local wild vegetation were being used by aphids to move between crops. Removal of these natural spaces, however, had the consequence of limiting squash bee ranges and habitats. The GM summer squash reduced the need for this control method, allowing squash bees to enjoy more wild spaces and to move freely between and pollinate many different fields of crops.

Cocoa is facing significant challenges. Increased problems related to pests are having impacts on yield, with 30-40% of global production affected. Climate change and habitat erosion are affecting chocolate midge populations. As one of the only species small enough to successfully pollinate cocoa, any reduction in chocolate midge populations leads to a significant pollinator gap developing.

Using IPM to reduce impacts of attempts to control pests can help support pollinator populations. Alternative control methods such as use of natural predators and sex pheromones to limit mirid populations can tackle pests without affecting pollinator partnerships.

Similarly, to its work in protecting the papaya and the summer squash, plant science may hold the long-term solution. Work is currently underway on creating new pest-resistant GM varieties that could make a big difference to cocoa production.

Strawberries can be pollinated by a diverse range of pollinators. In fact, strawberry fields that have a variety of pollinators show increased size, boosting yields. With this in mind, pest control methods must be as carefully implemented as possible to avoid disrupting these relationships.

Integrated Pest Management can have positive impacts for many crops, but for fruit with complex needs like strawberries it is particularly effective. Innovations include the deployment of natural predators for pests like mites and using tractor-mounted vacuums for managing species with no useable natural predators. Light traps have also been installed to counter butterfly pest populations without impacting on insect pollinators.

A key tool for farmers is the development of innovative biological products that are derived from fungi, bacteria and plants. Able to be integrated seamlessly with traditional crop protection methods, biologicals can increase crop yields and quality. They are able to target pest species such as aphids and whitefly, while having negligible impact on pollinators such as honeybees and wasps.

The hawkmoth is a key pollinator of papaya. Back in the late 1990s, Hawaii’s papaya crops were being devastated by the papaya ringspot virus (PRSV) and the island was facing the potential end of all papaya production. PRSV is transmitted to papaya plants via insects feeding on its leaves. This meant farmers were faced with the difficult task of tackling an insect-transmitted virus on a crop that relied upon insect pollination.

Traditional attempts to prevent the spread of PRSV could have had negative long-term impacts on the native hawkmoth population. Thankfully, plant science had the solution. Identifying the gene that would make papaya plants resistant to PRSV, plant scientists created new varieties of papaya called Rainbow and SunUp. These new types of papaya, combined with pest control methods that support pollinators, had positive knock-on effects for hawkmoths. This allows the pollinator relationship to flourish and ensures the ongoing health of Hawaii’s papaya farms.

The symbiotic relationship between farmers, their crops and the world’s pollinator species, is one of the most powerful in the world. Giving farmers access to the full agricultural toolkit allows them the flexibility to combat pests, while limiting impacts on biodiversity and supporting the world’s pollinators.

THE PAN-ASIA FARMERS EXCHANGE PROGRAM HELD VIRTUALLY FOR THE FIRST TIME

On November 16 -20, 2020, about a hundred participants from Australia, China, Japan, India, Indonesia, Korea, Malaysia, Pakistan, Philippines, Taiwan, Thailand, Singapore, Vietnam and the US attended the first virtual Pan-Asia Farmers Exchange Program. In its 14th year, CropLife Asia, CropLife Philippines and the Biotechnology Coalition of the Philippines organized and held the week long event as an online two-hour webinar each day.

Farmers, scientists and the academe, government officers and policy makers and experts on industry shared their knowledge and experiences in the fields of agricultural biotechnology, regulations, communications and commercial growing of biotech crops . Companies and institutions also gave virtual tours of their facilities and showcased how their products are produced and managed while ensuring its safety and quality, and following government regulations.

Below are the recorded videos of the 14th Pan-Asia Farmers Exchange Program.

INTRODUCTION TO BIOTECHNOLOGY

Day 1

During the 1st day, Dr. Rhodora Aldemita, the Director, of ISAAA Southeast Asia Center and Director of the Global Knowledge Center on Crop Biotechnology – International Service for the Acquisition of Agri-biotech Applications (ISAAA), gave an overview of modern biotechnology.

Dr. Russell Reinke, Theme Leader of the Improving Health Through Safe and Nutritionally Enhanced Rice Program at the International Rice Research Institute (IRRI), shared the Golden Rice Experience. And Dr. Szabolcs Ruthner, Regulatory Affairs Manager of the International Seed Federation (ISF), presented a quick overview of new plant breeding innovations.

This session was opened by Dr. Sianghee Tan, Executive Director of CropLife Asia and moderated by Ms. Sonny Tababa, Biotechnology Affairs Director of CropLife Asia.

BIOSAFETY REGULATIONS

Day 2

On the 2nd day, Dr. Saturnina C. Halos, President of the Biotechnology Coalition of the Philippines (BCP), discussed biosafety regulations, including environmental risk assessment and food safety assessment.

Dr. Gabriel Romero, Executive Director of the Philippine Seed Industry Association (PSIA) and Ms. Rosemary Richards, President of the Australian Oilseeds Federation, shared the road to commercialization of each of their very own country’s cultivated GM crop. Dr. Romero discussed about Bt Corn in the Philippines, and Ms. Richards talked about GM Canola in Australia.

This session was moderated by Mr. Abraham Manalo, the Executive Secretary of the Biotechnology Coalition of the Philippines (BCP).

BIOTECH COMMUNICATION WORKSHOP

Day 3

The 3rd day was all about science communication.

Ms. Ma. Aileen Garcia, Manager, Project Coordination and Stakeholder Advocacy of the Healthier Rice Program at the International Rice Research Institute (IRRI), gave an overview on science communication.

Dr. Xiaoqing Liu, Associate Research Fellow of the Biotechnology Research Institute at Chinese Academy of Agricultural Sciences; Mr. Anil Ghanwat, President of the Shetkari Sangathan (farmer association) in India; Ms. Annalyn Lopez, Director-Coordinator of the Biotechnology Program at the Philippine Department of Agriculture; and Ms. Ta Thi Kieu Anh from the Biodiversity Conservation Agency at the Vietnam Environment Administration shared their experiences in communicating biotechnology in their respective countries.

This session was moderated by Dr. Rhodora Aldemita, Director, ISAAA Southeast Asia Center; Director, Global Knowledge Center on Crop Biotechnology, International Service for the Acquisition of Agri-biotech Applications (ISAAA).

EXPERIENCES IN COMMERCIAL GROWING OF BIOTECH CROPS

Day 4

On the 4th day, farmers from different countries shared their experiences in commercially growing GM crops.

Ms Belinda ‘Bindi’ Murray, a dryland broadacre farmer from Woodanilling in the Great Southern Western Australia talked about how they grow gm canola.

Mr. Tulus Panduwijaya, the director at Pt. Perkebunan Nusantara XI, a government-owned estate whose main business activity is the production of sugar, and Mr. Alex Suherman, the Biotech and Seeds Director of CropLife Indonesia took us on a virtual tour and learned about Indonesia’s gm sugarcane.

Mr Juanito Rama, a successful Bt corn farmer from Tarlac, Philippines, shared how Bt corn has improved and made their lives better. Moreover, Bt corn farmers from Vietnam, Mr Nguyen Thanh Phong from Nghe An Province, Mr Hoang Van Tuyen from Son La Province, and Mr Hoang Trong Ngai from Vinh Phuc Province also shared their experiences in growing Bt corn. On the other hand, Mr. Amir Hayyat Bhandara, a corn, cotton & wheat farmer in Pakpattan, Pakistan, shared his views and expressed how Pakistan farmers need to have access to this technology, to these biotech crops.

This session was moderated by Ms. Ma Emeru B. Rodriguez, Seeds Committee Vice Chairperson of CropLife Philippines.

HOW PLANT SCIENCE DEFEATED THE PAPAYA RINGSPOT VIRUS

By: CropLife International

Papayas are grown and enjoyed in many parts of the world — from Taiwan to Cuba, and from South Africa to Greece. They’re eaten on-the-go as a quick refreshing snack, and incorporated into dishes like Cambodian bok l’hong or Javanese buntil. Papayas are especially important in Hawaii, where they are grown both on big commercial farms and in families’ personal gardens. They have been a staple local fruit and principal export ever since they were first introduced to the islands over 100 years ago. But if it weren’t for the efforts of Dr. Dennis Gonsalves and his diverse team of plant scientists from the public and private sectors to save the fruit, the papaya industry may have been lost. For decades, papayas in Hawaii were plagued by the papaya ringspot virus, or PRSV, named for its iconic symptom of rings appearing on the papaya’s skin. The virus, transmitted to papaya plants via insects feeding on the leaves, spreads and kills quickly.

Jonathan Valdez is a professional dietitian nutritionist from Hawaii, whose family witnessed the effects of PRSV on papaya firsthand. Listen to his own words on the importance of papayas in Hawaii, the devastation PRSV had on farmers, and how plant science came to the rescue.

After years of spread throughout the Hawaiian Islands, the production of papayas was for a time safely relegated to a specific region in the Puna District on the Big Island. However, despite efforts to prevent its spread, by 1992 PRSV had penetrated the Puna District and its effects were instantly noticeable. By 1997, statewide papaya production fell from 55.8 million pounds to 35.7 million pounds. After failed efforts and solutions to contain the virus and stop the spread, papayas in Hawaii were facing an existential crisis. But there was one solution still in the works that showed major potential — biotechnology.

“Basically, we were following the pioneering work of Roger Beachy’s lab on transgenic tobacco and tomato for resistance to tobacco mosaic virus,” said Dr. Gonsalves. “Our team consisted of Richard Manshardt, a horticulturist at University of Hawaii; Maureen Fitch, a graduate student of Richard Manshardt focusing on papaya tissue culture and transformation; and Jerry Slightom, a molecular biologist at Upjohn Company.”

Dr. Gonsalves and his team had to identify the specific gene in the virus that, if inserted in a papaya’s genetic makeup, would make them resistant to PRSV. Once they identified that gene, they used it to create a variety of papaya seeds with DNA including said trait. Using new technology, the team inserted an isolated protein gene of the virus into the cells of papaya seeds, which then grew into resistant papaya plants.

“We made timely research progress because our team had expertise in molecular biology, virology, horticulture and tissue culture, and we were focused on the specific goal of developing a transgenic papaya to help farmers,” said Dr. Gonsalves.

The researchers and farmers planted GM papaya seeds — which produced a protein that made it resistant to PRSV — along with a set of non-GM papaya seeds in a trial. The trials were a huge success, as the GM papayas were found to be resistant to PRSV while the non-GM papayas were wiped out.

The next step was to gain regulatory approvals — not just for the export of the papayas themselves, but also the seeds for farmers throughout the world to grow. Dr. Gonsalves and his team created two varieties of the GM papaya, called SunUp papaya and Rainbow papaya.

“SunUp and Rainbow papaya were potential candidates to rescue the papaya industry from the devastation of PRSV — but transgenic papaya needed regulatory approval,” said Dr. Gonsalves. “Since our team did not have company backing and we were committed to helping the farmers, we took it upon ourselves to file for deregulation. We petitioned USDA-APHIS, the FDA and the EPA for the deregulation of GM papaya line 55-1, the transgenic parent of SunUp and Rainbow.”

“When we got approval in 1998, six years after PRSV invaded the papaya in Puna, a celebration was held in Hilo and initial seeds were released free to growers,” Dr. Gonsalves continued.

After a much-deserved celebration, Dr. Gonsalves still worked with international regulators to ensure that GM papaya can be exported throughout the world — including key markets like Japan, Canada and China.

Today, a vast majority of the papayas grown in Hawaii are GM, grown with resistance to the virus.

“The transgenic papaya saved the Hawaiian papaya industry, and growers began planting transgenic papaya and reclaiming PRSV-infect papaya fields,” said Dr. Gonsalves. “Rainbow became — and still is —the dominant cultivar grown in Hawaii, always present in the supermarkets and farmer’s markets alike.”

Modern genetic engineering can accomplish in just a few years what traditional plant trait breeding used to take decades to do. Thanks to the efforts of plant scientists and genetic biologists, a popular and globally enjoyed fruit was saved from possible extinction — to say nothing of the impact these innovations had on local communities and the livelihoods of farmers and papaya producers across the food value chain. This is just one example of how biotechnology works behind the scenes to improve lives.

“I believe that the transgenic papaya enabled the Hawaiian people to continue to have ready access to a fruit that has been traditionally eaten in Hawaii,” Dr. Gonsalves continued. “The transgenic papaya is nutritious, delicious and it is arguably the least expensive fruit on the supermarket shelves in Hawaii.”

“I have not seen a PRSV infected papaya tree in several years — the result of herd immunity,” said Dr. Gonsalves. “Our papaya project shows that a bunch of public sector scientists can produce a GMO product and help to get it to farmers by going the extra mile. It is my hope that more public sector GMO projects will be done to help farmers and people.”

The innovations spearheaded by Dr. Gonsalves and his team were vital to protecting this important crop and promoting local economies in Hawaii. Plant science plays a key role in protecting crops, mitigating the effects of climate change and improving nutrition globally. Watch the video below to hear dietitian Jonathan Valdez’s professional insights on GMOs and the importance of looking to science and evidence to help form your opinions.

The innovations spearheaded by Dr. Gonsalves and his team were vital to protecting this important crop and promoting local economies in Hawaii. Plant science plays a key role in protecting crops, mitigating the effects of climate change and improving nutrition globally. Watch the video to hear dietitian Jonathan Valdez’s professional insights on GMOs and the importance of looking to science and evidence to help form your opinions.

If you enjoyed this and would like to watch a video retelling of the GM papaya success story, read personal testimonials from farmers, and find answers to your questions about GMOs, visit GMOAnswers.com.

UNDER THREAT – HOW PLANT SCIENCE IS TACKLING FIVE OF THE WORLD’S MOST DESTRUCTIVE THREATS TO CROPS

By: CropLife International

Across the globe, farmers are protecting our global food supply from the world’s most destructive pests. Check out these infographics below to see how plant science is aiding farmers in their fight and providing sustainable approaches to pest management.

DESERT LOCUST

The Desert Locust is a serious threat to the food security of East Africa, and crop protection products play a key role in preventing hunger and starvation in the region.

FALL ARMYWORM

Fall Armyworm is native to the tropical and subtropical regions of the Americas and has been found in Eastern and Central North America, South America, and most recently, detected in Africa and Asia. Because its mature moths can fly almost 500km (300 miles), it could quickly migrate from Africa into southern Europe.”

Farmers in China are looking to plant science innovations to help fight the fall armyworm, like FAW–resistant biotech corn, and other IPM technologies in their agricultural toolkit.

FUSARIUM TR4

Already threatening farmer livelihoods across Asia and Africa, the TR4 fusarium fungus is now hitting South American banana plantations and has no known fungicidal treatment, but there is hope thanks to the advancement of genetic modification technologies.

Given the rapid spread and devastation of Fusarium TR4, genetic engineering tools offer an effective, safe, and viable way to develop resistant varieties. Genetic engineering, which facilitates the transfer of useful genes across species, has been shown to offer numerous advantages to circumvent the natural bottlenecks to breeding bananas for its improvement.

The example of the Gros Michel and the Cavendish banana varieties highlight the significant threat posed by a pest that has no control method and the importance of an effective and accessible agricultural toolkit, including genetic modification technologies.

BLACK POD

West Africa is a powerhouse of cocoa production, but one of the world’s most beloved crops is facing immense pressure from pests, and farmers are working harder than ever to keep the supply of cocoa going, on top of facing climate related stressors.

West Africa is also suffering under the Cacao Swollen Shoot Virus (CSSV) which can kill trees in just three years, and has no cure. It is estimated that since 1946 more than 200 million cocoa trees have been cut down due to CSSV.

Ensuring that West Africa farmers have access to the full agricultural toolkit will enable them to effectively meet the challenge of pest management on their cocoa farms. Without flexible and accessible options, the world’s supply of one of its more treasured crops could be under serious threat.

SPEARGRASS

Integrated pest management is critical in dealing with some of the toughest of pests, like speargrass, that would otherwise run rampant destroying millions of hectares of crops. It is critical for farmers to not only have access to, but be educated on the variety of plant science technologies that are available to them.