Category Archives: Facts


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.


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).


By: CropLife International

The amount of food lost or wasted every year presents countless problems for society, such as threatening food insecurity, and recent events have highlighted how serious this can get.

But what do we mean by ‘lost’ and ‘wasted’, how exactly can it increase the risk of food insecurity, and how can plant science help reduce food loss and waste?

Here, we explore the difference between these terms and find out what is being done to make the most of our food supply.

The difference between food loss and food waste

Food loss and food waste both refer to food supply that drops out of the ‘farm-to-table’ cycle at different stages.

  • Food loss = anything involving the growers, farmers and suppliers up to the point where it becomes available to buy.
  • Food waste = anything from this point onwards, including shops, supermarkets, restaurants and consumers.

How does this threaten food security?

Food loss is a particular problem in developing nations, where weaknesses in supply chains are more common.

A functional supply chain is crucial to ensuring food reaches the destinations that rely on it most. If a food supply chain breaks down, whether it’s from reduced harvests or insufficient storage or the inability to pack and transfer goods along the cycle, consumers might experience food shortages or fluctuations in food prices. For the most vulnerable communities, they might suffer from food insecurity. This is exacerbated during unexpected events, for example pandemics, due to a variety of factors including reduced availability of land and supply of workers.

Professor of food policy at City University in London, Tim Lang has just published a book exploring food waste and security in detail – Feeding Britain: Our Food Problems and How to Fix Them. We interviewed him at the beginning of the month and he stresses that, “Food security is a complicated issue that is about more than just quantity or tonnage of food.

“It touches on issues of food supply, to notions of self-sufficiency, security, risk and resilience – which is about the capacity of systems to bounce back when they’ve suffered shocks.”

Tackling food loss

A planted field is the first place in the supply chain where food loss can occur. Drought is a major contributor to the problem, and caused 83% percent of all global crop losses and damage between 2006 – 2016.

Looking more specifically at the developing world, up to 50% of all crops are lost to pests, crop diseases or post-harvest losses. Natural disasters can also be devastating for farmers in developing countries. Between 2005 and 2015, farmers lost around $96 billion worth of crops and livestock as a result of floods, tsunamis, and other catastrophic events.

According to the UN’s food loss index (FLI), on average, 14% of the world’s food is lost between the post-harvest and consumer stages due to issues like inadequate storage or transit facilities, or even human error. These losses vary by region – in central/southern Asia, it’s 21%, while in Australia and New Zealand, it’s just 6%.

Professor Lang also highlights the divide between food loss and food waste in the developed and developing worlds, saying, “There’s a rich-world pattern of food waste that is very different from the poor-world pattern.

“In the poor world there is large amounts of loss on or near farms because of poor storage, poor facilities, poor farmer capacity, and poor logistics to get the food off their land to urban settlements.”

Losses would be much worse if farmers couldn’t utilize innovations in plant science. Crop protection products, for example, provide the world’s crops with vital protection against insects, diseases and weeds during production and harvest. Without them, global crop losses would double each year.

Biotech crops help to prevent pre-harvest losses by protecting against threats such as plant diseases and pests like insects, which can cost farmers 60-80% of their yield in some regions.

This creates profound, life-changing opportunities in developing regions. For example, Asia is an emerging region for biotech, with eight Asian countries planting GM crops in 2018. GM crops have been shown to increase average yields by 22%, and profits by 68%, which can help farmers put food on the table, or send their children to school.

What about food waste?

Food waste contributes to about 8% of global greenhouse gas emissions, and can cause as much damage to our planet as plastic waste.

Food is often deemed unfit for sale by supermarkets for no other reason than it is the wrong shape, size or color – for example, apples not being red enough. Supermarkets occupy a large portion of the supply chain in many countries and food waste at these outlets can create a considerable impact. In the UK, where big retailers represent 85% of the market share, a reported 25% of apples, 20% of onions and 13% of potatoes are wasted for cosmetic reasons.

This is not the only source of commercial food waste. According to Winnow, a tech firm that creates food waste technology, restaurants can waste as much as 12% of their total food spend. And National Geographic says in a crisis where restaurants schools, caterers, corporate cafeterias and farmer’s markets are forced to close, farmers face a huge supply issue because there is nowhere for their highly perishable produce to go.

Consumers, meanwhile, often throw food away because it has reached the ‘best-before’ date, even though it is still fit for consumption, as they often confuse the ‘best before’ and ‘use by’ labels. Also, a lot of food goes to waste simply because households buy too much and then don’t have time to eat it all.

Professor Lang, however, highlights that, “In a country like Britain or the U.S., there is staggering waste at the consumer level, but that is sometimes blamed on consumers. I’m not saying consumers aren’t in some way responsible, but this problem has exposed that actually there is an avalanche of food. There is no shortage of food, in fact, there is a problem with over-production.”

He also, stresses that the worth consumers attach to food has an impact on patterns of waste, saying, “High domestic expenditure values food, but cheap food devalues it.”

Challenging the issue of waste

There are lots of ways to combat food waste, from government plans to the actions of private companies and everyone being more conscious of the amount of food they eat and store.

In Australia, where food waste costs the economy $20 billion each year, the government has introduced the National Food Waste Strategy, supporting collective action to halve food waste in the country by 2030. This will include an initial $1.3 million of funding to implement a strategy that engages Australian businesses and encourages them to commit to reducing food waste.

Tesco, the UK’s biggest supermarket chain, announced a 17% drop in food waste in 2018/19 after implementing plans to distribute surplus food to staff, charities and community groups.

Consumers are embracing technology as a way to cut down on their food surpluses. Olio, a free food-sharing app which connects neighbors and local shops to stop any surplus food being thrown away, is being used in more than 30 countries worldwide.

In the U.S., some companies – like Imperfect Foods – take surplus and ‘imperfect’ food items from farmers, growers, and food purveyors and deliver them to customers at a discount.

“These imperfections are often small quirks in appearance – too big, too small, too curvy, off color – that don’t impact the flavor or nutrition,” explains Philip Behn CEO of Imperfect Foods. “When perfectly good grocery items are close to expiration or going through packaging changes, grocers won’t purchase or stock those goods.”

Imperfect Foods is able to take this situation and turn it into a win-win for consumers and stores. This model has helped the company save 100 million pounds of food from going to waste since it was founded in 2015.

The actions of everybody in the production cycle, from farmers to consumers, will make the difference in global attempts to meet the United Nations Sustainable Development Goal 12, which includes halving global food waste by 2030.

Behn adds: “Between the environmental impact as well as inefficiencies for hardworking farm partners and food producers, we need to drive food waste down so we can build a better food system.”

These efforts have a vital ally in plant science, which is already tackling food loss and world hunger. A great example is Arctic Apples, developed in the U.S.. These apples cut food waste by browning at a much slower rate and therefore are less likely to be thrown away. It’s an ideal solution in a country where the demand for ‘perfect’ fruit and vegetables means that half of all produce is thrown away.

But this is just the beginning. If developed nations truly embrace the power of plant science, they will find a wealth of ways to contribute to global food security.

This content was taken from CropLife International website. You may check the link here


As 2019 gets underway, we want to make sure that you’re equipped with the most up to date information on plant science in sustainable agriculture. So we have created a list of the most influential reports published over the last 12 months. Take a look to make sure you didn’t miss any!


A Special Report on the Impacts of Global Warming

Global Warming of 1.5°C: Intergovernmental Panel on Climate Change (IPCC)

This United Nations report looks at the predicted impact of global warming of 1.5°C above pre-industrial levels and related global greenhouse gas emission pathways, in the context of strengthening the global response to the threat of climate change, sustainable development, and efforts to eradicate poverty. It established, among other findings, that “populations at disproportionately higher risk of adverse consequences with global warming of 1.5°C and beyond include local communities dependent on agricultural or coastal livelihoods”.

Download the report


Report of Projected Insect Pressure Increases

Increase in Crop Losses to Insect Pests in a Warming Climate: Deutsch, Tewksbury, Tigchelaar, Battisti, Merrill, Huey, and Naylor

Climate change causes erratic weather patterns, extreme temperatures, and changes in natural resources. This report adds increases in insect pressure to crops to the list of things farmers have to worry about if temperature rises by two degrees Celsius above pre-industrial levels. Under this scenario, farmers could lose 59 billion kilos of wheat –more than the entire wheat production in the US in 2017, 92 billion kilos of rice, and 62 billion kilos of maize.

Download the report


Annual Update on Status of Biotech Crops Around the World

Global Status of Commercialized Biotech/GM Crops in 2017: ISAAA

The International Service for the Acquisition of Agri-biotech Applications (ISAAA) released its annual global biotech crop acreage report, which features data on the environmental and socio-economic benefits of plant biotech. ISAAA reported that the adoption of biotech crops has reduced CO2 emissions by 27.1 billion kg and conserved biodiversity by saving 22.5 million hectares of land from agricultural use in 2016.

Additionally, in developing countries, planting biotech crops has helped alleviate hunger by increasing the incomes for millions of smallholder farmers and their families, bringing improved financial stability to more than 65 million people.

Download the report


Pesticide Safety, Investment, Efficacy Trends Report

Evolution of the Crop Protection Industry Since 1960: Phillips McDougall

This report demonstrates how pesticides have improved since 1960. A more diverse portfolio is available for farmers to fight crop pests of all sorts and as the growth of the sector continues, the safety and efficacy have increased while toxicity of the products has decreased.

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Analysis of The Current Position of Agriculture in the EU

The Challenges Facing Agriculture and The Plant Science Industry in the EU: AgbioInvestor  

This report analyses the European agricultural sector’s productivity, policy and support, regulatory environments, and reliance on imports. It highlights the obstacles put in place by a political system that does not prioritize agricultural innovation and shows the consequences of reduced access to modern agricultural tools.

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More Land Needed to Farm Organic Food than Non-Organic

Assessing the Efficiency of Changes in Land Use for Mitigating Climate Change: Searchinger, Wirsenius, Beringer & Dumas

In this report, published by Nature International Journal of Science, it was confirmed that farming organic food can result in higher emissions and greater land use due to loss from pests and lower yields. Biodiversity and carbon sequestration are important in the fight against climate change, and preserving land while feeding a growing population can be achieved with agricultural innovation like plant biotechnology and crop protection.

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Post-Brexit Possibilities for Regulation of Plant Biotechnology

UK Plant Genetics: A Regulatory Environment to Maximize Advantage to the UK Economy Post Brexit: Brookes, 2018

This paper examines the economic value of the UK plant genetics sector and the most appropriate regulatory environment for maximizing long-term benefits to the UK economy outlined in three scenarios: continued regulatory alignment with the EU, improved implementation and some change; making the current GMO system work “as intended”, or the UK sets its own path of divergence from EU regulations on GMOs.

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Review of Genetically Engineered Crops Safety Information

Food and Feed Safety of Genetically Engineered Food Crops, by Delaney B, Goodman RE, Ladics GS

This article reviews the safety information regarding Genetically Engineered (GE) crops and foods, by evaluating over 20 years of research in genetic engineering. Like the issue statement, it is based on the premise that although new GE crops are assessed by regulatory authorities prior to approval for commercial use, there is still a public debate on the safety GE crops.

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A Review of The Benefits GMOs Have Afforded Brazilians in the 20 Years Since Adoption

20 Years of GMOs: Environmental, Economic and Social Benefits in Brazil: CIB, Agroconsult

2018 marked the 20th anniversary of the introduction of GM crops in Brazil. The country is the second largest adopter of biotech crops globally on more than 50 million hectares of farmland and agriculture is one of the most dynamic industries within the country. To quantify the benefits of GM crops in the country, a conventional crop and a GM crop were compared, year by year, to assess the technical nuances of use of pesticides, the differences in production costs, and the financial results of one system verses the other.

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A Study Quantifying Economic and Social Benefits from Timely Regulation of Ag Biotech Products

The Impact of Delays in Chinese Approvals of Biotech Crops: Informa Agribusiness Consulting Group

The 2018 study quantifies the wide-reaching social and economic benefits both importing and exporting countries could realize if timely and functional regulatory systems were in place. Delays in the regulatory process—including delays in innovations reaching the marketplace – impede global initiatives to improve food and nutrition security, advance economic prosperity, and increase the adoption of environmentally sound practices.

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Literature review Shows Benefits of Tech to Smallholder Farmers

The Role of Technology in the Future of Smallholder Agriculture: CropLife Foundation

The role of technology to improve smallholder-based food production systems has been written about extensively. CropLife International worked with the CropLife Foundation to provide a literature review to better understand how modern agricultural technologies can improve smallholder livelihoods. The review found that of a variety of factors, risk was paramount in influencing the adoption of technology relating to irrigation, genetic resources, pest management, and conservation agriculture among others.

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You can also view our top 10 studies for 20172016, and 2015.