Category Archives: Latest News

4,500 YEARS OF CROP PROTECTION

By: CropLife International

Like all agricultural innovations, crop protection products have evolved tremendously since their inception. From natural chemical elements to plant- and metal-based insecticides to synthetic products, formulations have drastically changed and for the better: today’s products are more sustainable, targeted, efficient and environmentally friendly than their predecessors. In honor of Earth Day on April 22, here’s a brief history of the evolution of crop protection products.

The first recorded use of an insecticide was about 4,500 years ago by the Sumarians, who used sulfur compounds to control insects and mites attacking their food sources. Then, in the first century B.C., Romans used a few techniques – a compound made from crushed olives, burnt sulfur and salt – to control ants and weeds in their crops. In 800 A.D., the Chinese used arsenic mixed with water to control insects in their field crops and citrus orchards. Other pesticides, derived from natural sources such as pyrethrum from dried Chrysanthemum flowers and nicotine extract from tobacco plants, evolved over time.

From 1750 to about 1880, farmers began using crop protection products more widely and international trade promoted the use of plant- and metal-based insecticides. Until the early 1900s, Europe and the U.S. used compounds made with sulfur, iron, copper, arsenic and sodium to control weeds in cereal crops and fungus in grapes. In the 1930s and 40s, effective and widely used fungicides were developed along with the first synthetic insecticides.

By the 1960s and 70s, farmers began to utilize Integrated Pest Management(IPM) to control pests. IPM is based on the idea that farmers can manage insect pests, using crop protection products only when needed. This practice paved the way for the development of more targeted and environmentally friendly products, such as pyrethrum-based formulations. In addition, with improved research, the plant science industry began developing more efficient products that were effective at lower rates, such as 1 ounce of active ingredient per acre rather than 2 pounds used previously. Herbicides like glyphosate, which are still commonly used today, were developed in the 1970s and have continued to improve and become more efficient over time.

In the 1990s, crop protection product development concentrated on finding active ingredients that better target pests. Through biotechnology, plant scientists also improved the IPM concept – using naturally occurring materials such as insect hormone or venom, microbes or plant material extracts like Bacillus thuringiensis (Bt) – to more accurately and selectively target pests. Finally, weed treatments, such as neonicotinoids, were developed during this time to protect emerging seedlings from pests while not impacting beneficial species like pollinators.

The plant science industry invests heavily in research to develop new products, ensuring that they do not pose unacceptable risks to humans or the environment. In fact, it now takes about $286 million USD and 11 years of research and development to bring a new crop protection product to market.

Today, crop protection products are more environmentally friendly, targeted and efficient, allowing farmers to better control target pests while allowing beneficial flora and fauna to prosper.

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

10,000 YEARS OF BIOTECHNOLOGY

The modification of crops to improve food has very early roots, starting with farmers selecting seed from top-performing plants and ending with today’s sophisticated biotech techniques such as “gene dimming.” Over time, plant breeding has gotten much more precise and efficient.

This article and photo was originally posted by CropLife International. Click to access the link here

RNAI IS CODE FOR CROP IMPROVEMENT

RNAi is Code for Crop Improvement

Plant scientists are saving food crops from near extinction by using a naturally occurring process called RNA Interference (RNAi) to combat pests and diseases, improve nutritional value, and reduce food waste. For example, RNAi was used to develop ringspot virus-resistant papayas, which saved Hawaii’s papaya industry. Orange trees that resist citrus greening, a devastating citrus disease, and maize resistant to corn rootworm are RNA-based products in the pipeline.

RNAi

Tweet This!

 

RNAi occurs in the cells of living things in which RNA molecules inhibit gene expression, thereby preventing protein production. Proteins are the building blocks of tissues and they carry out many essential biological functions. In some cases, decreasing the production of specific proteins can be beneficial. RNAi works like a “dimmer switch” to dial down the level of a protein, which can be used to modify food crops in useful ways. For example, RNAi can reduce the production of proteins responsible for the development of a disease or essential for a pest’s survival, thus protecting plants.

RNA-based technologies can also benefit crops in other ways – from the reduction of undesirable traits, to improved quality and nutrition. Already commercialized RNA-based products include non-browning apples, nicotine-free tobacco, decaffeinated coffee, and soybeans with less saturated fat. Research using RNAi methods include crops with lower levels of natural toxins, such as gossypol in cotton seeds and linamarin in cassava plants, as well as nutrient-fortified and hypo-allergenic crops.

RNA-based technologies can improve crop performance by increasing stress tolerance, inducing early flowering or delaying ripening or deterioration. These attributes help farmers increase yields or harvest crops at optimal times.

They may also be used to develop crop protection products that only affect targeted pests. For example, an insecticide could only impact corn rootworm in maize but not other insects, animals or workers. The possibilities are endless with RNAi for improving plant genetics!

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

CHURCH LEADERS IN NIGERIA SUPPORT AGRI-BIOTECH RESEARCH

John Cardinal Onaiyekan, the Archbishop of the Catholic Archdiocese of Abuja, Nigeria, together with other church leaders have called on agricultural biotechnology experts to undertake research that is focused on the population’s agricultural challenges. The leaders met with agri-biotech researchers, regulators, and communicators at Daughters of Divine Love Retreat and Conference Centre (DRACC) Lugbe, Abuja on February 7, 2017. The Director General, National Biotechnology Development Agency (NABDA), Prof. Lucy Ogbadu who gave an overview on the global status of GM crops, explained the need to create access to this technology for farmers. “The position of the Catholic Church is to leave scientists to do their research, but we are also constantly looking at what comes out of it in the light of the will of God and what is good for human beings,” said Cardinal Onaiyekan. He further said that safe use of the technology is the church’s utmost priority.

Dr. Rufus Ebegba, the Director General of Nigeria National Biosafety Management Agency (NBMA) reassured the faith-based leaders that the Agency is diligently doing its job in ensuring GM technology is well regulated. The agency was created following the ratification of Nigeria’s Biosafety Management Act in 2015, which ensures safety application of modern biotechnology.

Prof. Mohammed Ishiyaku, the Bt cowpea project principal investigator, made a presentation on the need to develop Bt cowpea, one of the key biotech crops under research in Nigeria. The project addresses one of the most damaging pests that poses threat to millions of Nigerians who rely on the crop for food security.

This photo was taken from Crop Biotech Update published by the International Service for the Acquisition of Agri-biotech Applications (ISAAA).

Cardinal Onaiyekan was accompanied by priests, nuns, and Catholic medical professionals in the event that was organized by the Open Forum on Agricultural Biotechnology (OFAB) in Africa, Nigeria Chapter in collaboration with the Catholic Secretariat of Nigeria (CNS) and the Action Family Foundation (AFF).

For more information on the event and biotechnology developments in Nigeria, contact Dr. Rose Gidado, OFAB-Nigeria Coordinator at roxydado91@gmail.com.

-This news was published by the International Service for the Acquisition of Agri-biotech Applications (ISAAA). See the article link here

AUSTRALIAN OGTR ISSUES LICENSE FOR FIELD TRIAL OF GM INDIAN MUSTARD

Australia’s Office of the Gene Technology Regulator (OGTR) has issued a license to Nuseed Pty Ltd., allowing the field trials of Indian mustard (Juncea canola) genetically modified (GM) for altered oil content. The field trials (License Application DIR 149) will be carried out between April 2017 and May 2022, and will take place at a maximum of 4 sites of up to 2 hectares per site in 2017, 10 sites of up to 5 hectares per site in 2018, and 15 sites of up to 10 hectares per site in each subsequent year.

 

The final Risk Assessment and Risk Management Plan (RARMP) concludes that this limited and controlled release poses negligible risks to people and the environment and does not require specific risk treatment measures. The finalized RARMP, together with a summary of the RARMP, a set of Questions and Answers on this decision and a copy of the license, are available online from the DIR 149 page in the OGTR website.

 

 

This was published by the International Service for the Acquisition of Agri-Biotech Applications. See original post here

China: China’s Planting Seeds Market Continues to Grow

China is the second largest seed market in the world, annually planting 12.5 million tons of seed, with a market value at $17.2 billion. MOA reported that as of September 1, 2016, its Plant Variety Protection (PVP) Office had accepted 17,108 PVP applications and approved 7,824 applications. Increases in PVP applications indicate improving breeding capacity (more varieties) and improved awareness of plant variety protection.

China: China’s Planting Seeds Market Continues to Grow

This was published by the United States Department of Agriculture Foreign Agricultural Service. See publication here.

Korea aims for more biotech firms with W100b revenue in 2017

South Korea’s main biotechnology business body is looking to work in conjunction with the government to foster at least 10 local biotech companies with revenue of more than 100 billion won ($85.03 million) in 2017.

“Today, biotechnology is all about speed,” said Korea Biotechnology Industry Organization President Seo Jeong-sun during a New Year’s biotech industry meeting hosted by the government Friday.

“Currently, there are only 302 biotech companies which have reached the break-even point, which is only 32.6 percent of the total. Now, we must quickly move to build up 10 or more companies that generate over 100 billion won in revenue” Seo said.

 

Korea Biotechnology Industry Organization president Seo Jeong-sun speaks in front of biotech industry officials in Seoul on Friday. (KoreaBio) – image taken from The Korea Herald

The emergence of such high-revenue biotech companies that are publicly listed here will prove their competitive edge and innovation in the global market, said Seo, who is also the chief of Kosdaq-listed genome sequencing company Macrogen.

In addition, KoreaBio will work with the government to train and nurture more than 100,000 biotech workforce personnel over the next 10 years.

“For a country to possess more than 100,000 data scientists who can process and analyze medical information in the bio-health business holds immense meaning in the age of Industry 4.0,” Seo said.

KoreaBio, which already trains some 1,300 new biotech specialists through its own academy, will partner with the government to expand the scale of its training program.

Supporting the growth of promising biotech startups is another major agenda for 2017, Seo said, pointing to ventures such as personal genome sequencing firm GenStory, gene info platform MyGenomeBox, gene analysis service provider 3billion and Polus, a biosimilar developer.

Looking ahead, KoreaBio pledged to strengthen ties with its counterparts in Japan and China to offer more global business opportunities to Korean companies as well.

– This article is written by Sohn Ji-young (jys@heraldcorp.com) from the The Korea Herald. See original article link here

 

PHL tackles food security through UK’s Newton Fund

Rice researchers, scientists and funding partners from the Philippines and the United Kingdom, along with those from China, Thailand and Vietnam, converged early this month at the International Rice Research Institute (IRRI), Los Baños, to collaborate and share issues in sustainable rice production.

Thirteen projects funded through the Newton Fund UK-Philippines-China-Thailand-Vietnam Sustainable Rice Programme presented the current outputs of their research which address real-world problems as varied as lowering the risk of diabetes and cardiovascular diseases for rice consumers, to increasing rice plant drought tolerance.

The three-year research projects began in 2016 and will continue until 2019. The Newton Fund Sustainable Rice Programme showcases an innovative mix of regional and country approaches that aim to help solve core challenges in global food security.

About 60 researchers, joined by representatives from the UK’s Biotechnology and Biological Sciences Research Council and each of the country’s funding partners came together to explore ways to collaborate further, including sharing resources, lessons learned and data that can add value to their current projects and strengthen links with their counterparts from participating countries.

Deputy Ambassador to the Philippines Nigel Boud, in his welcome remarks to the delegates, said: “This is the first regional research program that we are running under the Newton Fund and it brings together countries to collaborate on work that is so important, like the sustainable production of rice. It demonstrates the kind of work that we want to be doing in the Newton Programme in the years ahead.”

Together with Dr. Bruce Tolentino, deputy director general of IRRI, the delegates noted the significance of rice research to the country and the region, noting the importance of rice and the regional collaboration being achieved through the projects.

Of the 13 projects, four involve scientists from the Department of Agriculture (DA)-Philippine Rice Research Institute (PhilRice). Two projects are working on improving the nutritional quality of rice and the other two focus on creating greater resilience of the rice plant to diseases and environmental stresses due to climate change.

One PhilRice researcher involved in the projects, Dr. Riza G. Abilgos-Ramos, said: “Our work will help to provide part of the solution in preventing type 2 diabetes and other chronic illnesses, such as cardiovascular diseases, by increasing dietary fiber and enhancing rice-grain properties that would help to manage or prevent spikes in blood sugar increase after meals.

“The Newton Fund gives us the chance to do this with experts from different countries and allow us to expand our network in the UK and Southeast Asia.” Ramos is a supervising science research specialist in the Rice Chemistry and Food Science Division of PhilRice. The IRRI visit was highlighted by a tour of the research facilities, group presentations, poster-sharing sessions and clinic sessions.

Representatives from partners DA-PhilRice, Department of Science and Technology (DOST)-Philippine Council for Agriculture Aquatic and Natural Resources Research and Development, Chinese Academy of Agricultural Sciences, Chinese Academy of Science, and Thailand National Science and Technology Development Agency were among the delegates.

The Newton Fund builds scientific and innovation partnerships with 16 partner-countries to support their economic development and social welfare, and to develop their research and innovation capacity for long-term sustainable growth. It has a total UK government investment of £735 million up until 2021, with matched resources from the partner countries.

In the Philippines the program is known as the Newton Agham (Science) Programme to reflect the collaboration between the UK and the Philippines in science, research and innovation.

The UK delivery partners and the UK government, through its embassy, works with Philippine science and innovation institutions and funders, such as the DOST and the Commission on Higher Education, to codevelop and implement program that strengthen science and innovation capacity and create solutions to development challenges in the Philippines and in the region.

-Published in BusinessMirror. See original article link here.