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Strawberry farmers using billions of tiny, blind, predatory mites as successful alternative to toxic insecticides

ABC Rural

 / By Jennifer Nichols

Posted 4h ago4 hours ago

A composite image with a red bug on the left and a man in a greenhouse on the right.
James Hill oversees the breeding of billions of Phytoseiulus persimilis bugs.(Supplied: Bugs for Bugs)

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As concern over chemical use in food production grows and insect species become more resistant to poisons, farmers are turning to nature for solutions to pests that can cripple crop production.

Billions of tiny, blind, predatory mites are being bred, harvested, packed on ice, and posted to strawberry farms in the battle against destructive sap-sucking insects.

A man holds up a glass cup with red brown insects in the bottom of it.
James Hill with a cup of persimilis, from the arachnid family.(ABC Rural: Jennifer Nichols)

“We’re producing beneficial insects for farmers to use instead of insecticides,” Bugs for Bugs Donnybrook insectarium manager James Hill said.

“Ninety per cent of farmers in the strawberry industry are using our product.”

Ripe strawberries in a field.
Strawberries can now be grown with considerably fewer chemicals.(ABC Rural: Jennifer Nichols)

The battle

Australians love strawberries — 72 per cent of households bought them last financial year and on average we each ate around 2.27 kilograms of the fruit. 

One of the main insect enemies that farmers battle to produce tasty red strawberries is two-spotted mites, a sap-sucking species related to ticks, too tiny to spot with the naked eye.

A web like structure packed with tiny insects on a very sick looking bean leaf.
The two-spotted mite is bred to feed the Phytoseiulus persimilis bugs.(ABC Rural: Jennifer Nichols)

Left unchecked, you can see the damage two-spotted mites can do, sucking the life out of bean leaves in the polytunnels where they are raised as food for the predator mites that are sold to growers.

“If left unchecked the two-spotted mite would just devastate your crop, it would wipe you out,” Queensland Strawberry Growers president Adrian Schultz said.

A line of tiny insects hangs from a sick bean leaf.
A line of tiny insects hangs from a sick bean leaf.(ABC Rural: Jennifer Nichols)

The tiny warrior

An eight-legged member of the arachnid family, Phytoseiulus persimilis, is blind.

It hunts down two-spotted mites by touch and scent and can be dropped by drone to decimate populations of two-spotted mites and spider mites.

A magnified photo of a red coloured mite on a leaf.
Phytoseiulus persimilis thrives in humid conditions.(Supplied: Bugs for Bugs)

Just 0.5mm long, persimilis are voracious, specialised predators that breed twice as fast as their prey, can be carried on the wind, and are deployed to protect crops, greenhouses and commercial installations of indoor plants.

Once they have exterminated the pests they turn on their own eggs and larvae, posing no threat to other insects.

Mr Shultz said the insects have become real cost savers for big farms.

https://www.youtube.com/embed/jE8xHOTCfGA?feature=oembedYOUTUBENathan Roy’s drone dropping beneficial bugs.

“In years gone by, we had to rotate different insecticides to control the two-spotted mite and you’d get a higher percentage of pests that were resistant,” he said.

“The advent of the predator mites enabled industry to use considerably less chemicals in controlling pests, now we also have the option of introducing lady beetles into our crops to control aphids.”

An older man dressed in blue farm work gear and brown boots kneels between rows of freshly planted strawberries. He smiles
Queensland Strawberry Growers Association president Adrian Schultz says the industry has embraced beneficial insects.(ABC Rural: Melanie Groves)

Integrated pest management

Integrated pest management (IPM) is increasingly popular with farmers and uses a range of preventive measures to control pests, including natural predators, parasites, nematodes, and pheromone traps.

“It’s not set and forget, you need to monitor the situation and you’ve got to be aware of the impacts of environmental conditions,” Mr Schultz said.

A man in a field of corn or maize.
Paul Jones helped pioneer beneficial insect breeding for horticulture in Australia.(Supplied: Bugs for Bugs)

Changing attitudes

The job satisfaction of helping farmers produce higher quality products with fewer chemicals is why Bugs for Bugs director Paul Jones has been working in integrated pest management for 30 years.

“When we first went out to farmers there was a lot of fear and scepticism about reducing the use of sprays and using beneficial insects to control pests,” the agricultural scientist said.

“The change has been quite radical, what was once considered a cottage industry for small organic and family farms has now become the backbone for pest management in conventional agriculture.”

https://www.youtube.com/embed/8sEVXfjX3s8?feature=oembedYOUTUBEUsing good bugs to fight bad bugs could be the key to pesticide-free farming

Bugs for Bugs is one of only a handful of commercial suppliers of beneficial insects in Australia.

From insectaries at Donnybrook, Toowoomba and Mundubbera, it sells 12 different species including predatory mites, ladybirds, lacewings, and parasitic wasps.

Home gardeners can also order the insects online.

Rows of polytunnels
Bugs for Bugs has expanded its insectaries.(ABC Rural: Jennifer Nichols)

Worldwide, predatory bioagents are being used to target gnats, thrips, caterpillars, scale, mealybugs, aphids, heliothis larvae, loopers, whitefly, and mites in crops including strawberries, raspberries, blackberries, cotton, macadamias, almonds, avocados, citrus, maize, cut flowers and hops.

Parasitic wasps kill fly maggots for the poultry, pig, dairy and feedlot industries, and black soldier fly larvae transform organic waste into compost.

A cup with tiny little insects in it.
Bugs for Bugs Phytoseiulus persimilis ready to be posted.(ABC Rural: Jennifer Nichols)

At the Donnybrook insectary, billions of persimilis are being harvested from polytunnels for the start of the Queensland winter strawberry season.

Each insect order is weighed and packed on ice to keep the persimilis mites in hibernation during transport.

A woman at a workbench.
Deb Hill packs predatory insects on ice and posts them to farmers.(ABC Rural: Jennifer Nichols)

A vermiculite mineral is included to make it easier for farmers to evenly spread the tiny predators on their fields.

“It’s evolved, refining the craft, we’ve got better and better,” Mr Jones said.

“Mainstream chemical companies now collaborate with us to ensure products are less harmful to beneficial insects.”

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These robots provide a high-tech solution to an age-old farming problem: how to get rid of weeds

Harvest Public Media | By Celia Hack

Published April 8, 2024 at 4:00 AM CDT

LISTEN • 3:20

GreenField robots at sunset.
GreenField robots at sunset.

Greenfield Robotics, a Kansas-based company, is hoping to move agriculture away from herbicides. They’ve developed robots to take on a labor-intensive process — cutting weeds down.

Three yellow, bug-like creatures crawl in perfectly straight lines across the dead grass of a flat, brown February field in Cheney, Kansas.

These are the namesake of GreenField Robotics. Two lights peer out from each side of the boxy machines, almost appearing like eyes. Blades whir at their base, about a half an inch from the ground – the perfect height to chop weeds, though there’s nothing to cut down on a frigid winter day.

They stick out in an otherwise rural landscape – and GreenField CEO Clint Brauer said he frequently hears from curious passersby.

“All the time,” Brauer said. “I’m always surprised, though, how little people notice.”

Brauer founded the company in 2018. The start-up has now grown large enough to attract investment from Chipotle’s $100 million venture capital fund and to secure partnerships with dog food and baking mix brands.

Brauer grew up on a family farm in Haven, Kansas, but moved to California after high school to work in the tech industry. In 2010, he returned home after his dad was diagnosed with Parkinson’s disease. He attributes the use of herbicides to his dad’s diagnosis.

“The more I learned about farm chemicals and stuff … the more I thought there’s a decent chance that this came from that,” Brauer said.

GreenField Robotics CEO and Founder Clint Brauer with two robots in Cheney, Kansas.
GreenField Robotics CEO and Founder Clint Brauer with two robots in Cheney, Kansas.

The move sucked Brauer back into the world of agriculture, where he started seeking ways to eliminate herbicides. He tried farming organically, but it was too expensive to be accessible to many buyers.

Another option was no till farming, where farmers avoid turning over the dirt to reduce erosion and improve soil health. But it’s a method that leans on herbicides.

And in 2015, Brauer was starting to notice the weeds in his fields were becoming resistant to chemicals anyway.

“There was no good way to get rid of those weeds, even though we had sprayed many times,” Brauer said.

“So, what do we do? And so that was the beginning of this idea of – what if we just cut those weeds?”

Cutting weeds by hand wasn’t exactly a 21st-century answer. So Brauer thought: What about robots? He reached out to software and machine-vision experts and started prototyping robots.

By 2021, the company had manufactured a two-and-a-half foot-tall working robot. And it pulled together different technologies, like drones, to create extremely precise maps of crop fields. The robots follow the maps, so that they’re unlikely to accidentally chop down a crop instead of a weed.

“They plant the crop, we count about 10 days, normally, the crops emerge, and we fly over it with a drone,” Brauer said. “ … That’s where AI – we have machine vision that automatically recognizes everything that’s going on in that field.”

Thirty to 40 days later, Brauer sends out the robots.

GreenFields' robots working a field.
GreenFields’ robots working a field.

In 2022, the company partnered with MKC, a major agricultural cooperative, to reach farmers who might use the product. In 2023, GreenField Robotics worked with 25 to 30 Kansas farmers, Brauer said. The company currently has a fleet of 20 robots and 15 employees

This summer, Brauer said the company is planning to work the weed-cutting robots on over 20,000 acres.

John Niemann is a farmer in Reno County. He tested GreenField Robotics for the first time last spring on 80 acres of a sorghum field, leaving 10 acres untouched to compare results. He had treated the entire crop with herbicides earlier in the season.

“We saw higher yields where we used the robots, versus the 10 acres that we did not,” Niemann said.

That’s because the weeds that didn’t get chopped down in the 10 acres competed with the crop for moisture, hampering the yield.

“The robots are part of a toolbox, is how I would look at them,” Niemann said. “There is no magic bullet in farming practices. You need to have a lot of tools in your toolbox.”

Niemann says the robots are a useful tool to reduce reliance on chemicals. Plus, he said the cost was comparable to herbicides.

Brauer said the economics is always his first pitch to farmers, and the robots are compelling because they damage less of the crop than chemicals do.

The company is also adapting the robots for other uses, like planting cover crops and soil testing.

“We are on a mission,” Brauer said. “This is not about enrichment. This is – we’re building something that can’t be undone. And so we’re going to eliminate these chemicals.”

This story was first aired and produced by KMUW. It’s being distributed by Harvest Public Media, a collaboration of public media newsrooms in the Midwest. It reports on food systems, agriculture and rural issues.

Tags

News farmingregenerative farmingrobotsagriculture

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Researchers determine groundbreaking new way to identify pesticide resistance: ‘I’m really excited about this study’

Tina Deines

Sun, April 7, 2024 at 12:00 PM CDT·2 min read

Researchers are exploring an exciting new approach that uses genomics to help monitor and identify pesticide resistance in the insects that munch on our crops.

Pest management is important for farmers, but insects often become immune to pesticides, making them less effective. In the new research, published in the Proceedings of the National Academy of Science, a team of scientists from the University of Maryland (UMD) presents a new strategy that analyzes genomic changes in pests to monitor and identify emerging resistance to specific toxins early on.

They zoned in on one pest in particular: the corn earworm, a crop-destroying caterpillar that has developed widespread resistance to a number of natural toxins bred into corn. They were able to identify resistance to toxins among these caterpillars after just a single generation of exposure. They also identified how common strategies for avoiding resistance could actually be doing the opposite.

“As it currently stands, the evolution of resistance across many pests of agricultural and public health importance is outpacing the rate at which we can discover new technologies to manage them,” said senior author Megan Fritz, an associate professor of entomology at UMD, per Phys.org. “I’m really excited about this study, because we’re developing the framework for use of genomic approaches to monitor and manage resistance in any system.”

The new research is one of many that is helping farmers to produce more successful harvests.

For instance, a team of American and Chinese researchers found a way to genetically engineer plants that can survive heat waves. University of Minnesota scientists are on their way to developing a “Super Grape” that could stave off powdery mildew and reduce the need for fungicide.

Watch now: What’s the true environmental impact of renewable energy?

These developments in agriculture come at a critically important time — as our planet continues to warm, there are frequent heat waves and droughts, which threaten our food security. Plus, climate change scientists predict that a warming world will drive a surge in certain insect pests that attack our crops, further threatening food security and causing economic losses for those in the agricultural sector.

Join our free newsletter for weekly updates on the coolest innovations improving our lives and saving our planet.

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United Kingdom – Plant breeders to benefit from online research toolsSelect
April 3, 2024
 An exciting new project will look to put cutting-edge research tools in the hands of plant breeders, providing access to genomic resources to accelerate the development of more resilient and climate-resistant crops.The collaboration brings together the collective expertise of the Earlham Institute, IBM Research, the Science and Technology Facilities Council (STFC) Hartree Centre, and RAGT Seeds UK with the aim of simplifying and speeding up the transition of cutting-edge genome research tools, workflows, and software into industrial applications.The one-year Excelerate project is part of the Hartree National Centre for Digital Innovation (HNCDI) programme from STFC designed to close the gap between academic and industrial applications of digital technologies – such as artificial intelligence (AI) and quantum computing.The UK is home to some of the most exciting and innovative life science research. Institutions are pioneering the use of new technologies to overcome issues of scale and complexity in data-intensive bioscience, such as developing approaches that could be used to accelerate crop breeding in line with EU safety and ethical regulations.At the Earlham Institute, this includes crop pangenomes and the tools required to analyse them, developed through its Decoding Biodiversity strategic programme – funded by the Biotechnology and Biological Sciences Research Council (BBSRC), part of UKRI.But the transition of this knowledge into usable technology – and its uptake by industry – remains a significant challenge.“Modern plant breeding practices are based on understanding and then using genetic resources – made possible by digital innovations – that breeders can incorporate into their programmes,” Professor Anthony Hall, project lead and Head of Plant Genomics at the Earlham Institute explained.“Bioinformatics and machine learning techniques are playing an increasingly important role in deciphering genetic diversity. But they bring significant overheads in terms of the bioinformatics skills and computing power required to develop and implement new workflows.”The plant breeding industry has a crucial role to play in addressing the global challenges of food security, water conservation, and net zero. To realise the enormous potential of UK science and innovation, initiatives are needed to bridge the gap between research and industry.This new project brings together leaders from academia and industry to provide cloud-based tools that can be easily adopted by the plant breeding companies to support the development of next-generation crops with greater climate resilience and improved nutritional properties.The Earlham Institute is working with IBM Research and STFC to develop new cloud-based tools – including those optimised for exploring plant pangenomes – which RAGT Seeds UK will be road testing.“The Earlham Institute is home to some amazing research infrastructure, innovation, and expertise,” says Professor Hall. “This helps us to develop the technology needed to answer the big questions that will be critical in addressing urgent global challenges, such as how we find new sources of diversity for breeding more resilient crops.”
 The project team photographed with the London skyline behind them.
The project team from left to right: Robin Kennedy Reid, STFC, Rachel Rusholme-Pilcher, Earlham Institute, Laura Jayne-Gardiner, IBM Research, Will Davies, STFC, Anthony Hall, Earlham Institute, Chris Burt, Heidi Town, and John Baison, RAGT Seeds UK.
 Dr Rachel Rusholme-Pilcher is a Senior Postdoctoral Researcher at the Earlham Institute, and has played a central role in developing the workflows that will be used in this partnership.“The tools we’re developing and optimising will allow plant breeders to interact with their complex datasets in a way they simply couldn’t before,” explained Dr Rusholme-Pilcher. “It should provide new information they can rapidly incorporate into their existing breeding programmes.“We’ll also be using this project to look at how we can embed the adoption of FAIR approaches – the movement to make all research data Findable, Accessible, Interoperable, and Reusable. Making this kind of research FAIR can be a challenge but these collaborations will hopefully change that – transforming the impact of emerging technologies.”Excelerate is one strand of a number of projects from HNCDI embedding AI solutions across UK industry. To both accelerate and simplify the adoption of compute intensive bioinformatics workflows in the plant breeding industry, this project will use an on-demand, scalable, Hybrid Cloud delivery model.Dr Laura-Jayne Gardiner, Senior Research Scientist at IBM Research, said: “Our HNCDI Excelerate projects are enabling businesses to adopt new technologies – including artificial intelligence and hybrid cloud – to overcome industrial challenges, such as allowing complex biological data analytics at increased scale and speed.”Robin Kennedy-Reid, Senior Research Software Engineer at the STFC Hartree Centre, said: “At the Hartree Centre, we use applied research and innovation to turn good ideas into industry-ready solutions for long-term societal and economic impact. This is made possible by working with a network of partners, both industry and academic leaders, as well as drawing on the work of open source communities like nf-core.“In this project, this will deliver new bioinformatics and machine learning capability to the plant breeding industry; with a view to assisting the search for more sustainable wheat varieties.”Dr John Baison, Cereals Research and Genomics Manager at RAGT Seeds UK, said: “Genome-based breeding holds promise for expediting wheat breeding, aiming to ensure sustainable wheat production by creating high-yielding, climate-resilient cultivars with superior nutritional quality.“The plant-breeding sector is positioning to confront these targets by leveraging the dynamic UK research community. However, bridging the gap between research and industry is crucial for optimising the potential of UK science and innovation.“As RAGT delves deeper into genomics activities, it has become increasingly evident that we must harness advanced computing tools to navigate the vast amounts of data generated from genetics and genomics projects. RAGT is excited to be at the forefront of this collaborative effort, which could revolutionise the application of genomics to plant breeding.” 

More news from:
    . Earlham Institute
    . RAGT Seeds Limited
Websitehttp://www.earlham.ac.ukPublished: April 3, 2024
The news item on this page is copyright by the organization where it originated
Fair use notice
United Kingdom – Plant breeders to benefit from online research toolsSelect
April 3, 2024
 An exciting new project will look to put cutting-edge research tools in the hands of plant breeders, providing access to genomic resources to accelerate the development of more resilient and climate-resistant crops.The collaboration brings together the collective expertise of the Earlham Institute, IBM Research, the Science and Technology Facilities Council (STFC) Hartree Centre, and RAGT Seeds UK with the aim of simplifying and speeding up the transition of cutting-edge genome research tools, workflows, and software into industrial applications.The one-year Excelerate project is part of the Hartree National Centre for Digital Innovation (HNCDI) programme from STFC designed to close the gap between academic and industrial applications of digital technologies – such as artificial intelligence (AI) and quantum computing.The UK is home to some of the most exciting and innovative life science research. Institutions are pioneering the use of new technologies to overcome issues of scale and complexity in data-intensive bioscience, such as developing approaches that could be used to accelerate crop breeding in line with EU safety and ethical regulations.At the Earlham Institute, this includes crop pangenomes and the tools required to analyse them, developed through its Decoding Biodiversity strategic programme – funded by the Biotechnology and Biological Sciences Research Council (BBSRC), part of UKRI.But the transition of this knowledge into usable technology – and its uptake by industry – remains a significant challenge.“Modern plant breeding practices are based on understanding and then using genetic resources – made possible by digital innovations – that breeders can incorporate into their programmes,” Professor Anthony Hall, project lead and Head of Plant Genomics at the Earlham Institute explained.“Bioinformatics and machine learning techniques are playing an increasingly important role in deciphering genetic diversity. But they bring significant overheads in terms of the bioinformatics skills and computing power required to develop and implement new workflows.”The plant breeding industry has a crucial role to play in addressing the global challenges of food security, water conservation, and net zero. To realise the enormous potential of UK science and innovation, initiatives are needed to bridge the gap between research and industry.This new project brings together leaders from academia and industry to provide cloud-based tools that can be easily adopted by the plant breeding companies to support the development of next-generation crops with greater climate resilience and improved nutritional properties.The Earlham Institute is working with IBM Research and STFC to develop new cloud-based tools – including those optimised for exploring plant pangenomes – which RAGT Seeds UK will be road testing.“The Earlham Institute is home to some amazing research infrastructure, innovation, and expertise,” says Professor Hall. “This helps us to develop the technology needed to answer the big questions that will be critical in addressing urgent global challenges, such as how we find new sources of diversity for breeding more resilient crops.”
 The project team photographed with the London skyline behind them.
The project team from left to right: Robin Kennedy Reid, STFC, Rachel Rusholme-Pilcher, Earlham Institute, Laura Jayne-Gardiner, IBM Research, Will Davies, STFC, Anthony Hall, Earlham Institute, Chris Burt, Heidi Town, and John Baison, RAGT Seeds UK.
 Dr Rachel Rusholme-Pilcher is a Senior Postdoctoral Researcher at the Earlham Institute, and has played a central role in developing the workflows that will be used in this partnership.“The tools we’re developing and optimising will allow plant breeders to interact with their complex datasets in a way they simply couldn’t before,” explained Dr Rusholme-Pilcher. “It should provide new information they can rapidly incorporate into their existing breeding programmes.“We’ll also be using this project to look at how we can embed the adoption of FAIR approaches – the movement to make all research data Findable, Accessible, Interoperable, and Reusable. Making this kind of research FAIR can be a challenge but these collaborations will hopefully change that – transforming the impact of emerging technologies.”Excelerate is one strand of a number of projects from HNCDI embedding AI solutions across UK industry. To both accelerate and simplify the adoption of compute intensive bioinformatics workflows in the plant breeding industry, this project will use an on-demand, scalable, Hybrid Cloud delivery model.Dr Laura-Jayne Gardiner, Senior Research Scientist at IBM Research, said: “Our HNCDI Excelerate projects are enabling businesses to adopt new technologies – including artificial intelligence and hybrid cloud – to overcome industrial challenges, such as allowing complex biological data analytics at increased scale and speed.”Robin Kennedy-Reid, Senior Research Software Engineer at the STFC Hartree Centre, said: “At the Hartree Centre, we use applied research and innovation to turn good ideas into industry-ready solutions for long-term societal and economic impact. This is made possible by working with a network of partners, both industry and academic leaders, as well as drawing on the work of open source communities like nf-core.“In this project, this will deliver new bioinformatics and machine learning capability to the plant breeding industry; with a view to assisting the search for more sustainable wheat varieties.”Dr John Baison, Cereals Research and Genomics Manager at RAGT Seeds UK, said: “Genome-based breeding holds promise for expediting wheat breeding, aiming to ensure sustainable wheat production by creating high-yielding, climate-resilient cultivars with superior nutritional quality.“The plant-breeding sector is positioning to confront these targets by leveraging the dynamic UK research community. However, bridging the gap between research and industry is crucial for optimising the potential of UK science and innovation.“As RAGT delves deeper into genomics activities, it has become increasingly evident that we must harness advanced computing tools to navigate the vast amounts of data generated from genetics and genomics projects. RAGT is excited to be at the forefront of this collaborative effort, which could revolutionise the application of genomics to plant breeding.” 

More news from:
    . Earlham Institute
    . RAGT Seeds Limited
Websitehttp://www.earlham.ac.ukPublished: April 3, 2024
The news item on this page is copyright by the organization where it originated
Fair use notice

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Saturday, 09 March 2024 10:37:00

Grahame Jackson posted a new submission ‘LETHAL YELLOWING, COCONUT PALM – JAMAICA’

Submission

LETHAL YELLOWING, COCONUT PALM – JAMAICA

ProMED
http://www.promedmail.org

Source: Jamaica Observer [summ. Mod.DHA, edited]
https://www.jamaicaobserver.com/2024/03/05/spread-lethal-yellowing-disease-reduced-70/

Through the work of the Coconut Industry Board (CIB), Jamaica has been able to reduce the spread of the lethal yellowing disease in the coconut industry by 70%. CIB have contributed significantly through research which has allowed the development of varieties and hybrids with optimum resistance/tolerance to lethal yellowing. In addition, increased yields are obtained from these locally developed varieties that are adapting better to the climatic conditions.

Within the region, the disease was first discovered in the Cayman Islands in 1834 and was found in Jamaica in 1884. It became a real threat to Jamaica after 1961 and became even more significant in the 1970s when some 10 million trees of the ‘Jamaican Tall’ variety were destroyed. Lethal yellowing has caused severe economic losses in Jamaica.

Communicated by:
ProMED

[Lethal yellowing (LY) diseases of coconut and other palms are caused by phytoplasmas of the palm lethal yellowing (16SrIV; _Candidatus_ Phytoplasma palmae strains) group. A number of LY strains have been described from the Caribbean, Latin America, Africa and southern Asia. LY has seriously jeopardised coconut industries in the respective areas. LY-type diseases like Cape St Paul wilt (CSPW) in Ghana, the “maladie de Kaincope” in Togo and Awka disease (lethal decline, LD) in Nigeria, previously included in the 16SrIV group, have been reclassified as the new group 16SrXXII (Nigerian coconut lethal decline group, _Ca._ P. palmicola strains; see link below).

Symptoms include premature nut drop, blackening of inflorescences, yellowing of fronds; death of the palm usually occurs within 4 to 6 months. The planthopper _Myndus crudus_ is suspected to be the vector in the Americas, but different vectors may be involved in the spread of LY strains elsewhere. Seed transmission of the pathogens cannot be excluded; some weed species may serve as pathogen reservoirs. Jumps of LY across apparently unaffected coconut populations have been observed, possibly due to aerial spread of infectious vector insects or human activities. Even with strict controls, including certification of nuts and their parent trees, excluding infectious vector insects requires large quarantine efforts.

While LY affects many palm species, at least for coconut palm susceptibility may vary between cultivars or even within cultivars, depending on the region where they grow. Symptoms can be suppressed by tetracycline treatments, usually applied as trunk injections. The antibiotic inhibits multiplication of the pathogens but does not eliminate them. Therefore, treatments need to be repeated regularly. Commercial control of the diseases mostly relies on phytosanitation followed by replanting with resistant varieties.

An unexplained resistance breakdown of some widely used hybrids occurred earlier in Jamaica (ProMED post 20070522.1643) and caused great concern.

Pictures
LY symptoms on coconut and other palms:
https://www.growables.org/information/TropicalFruit/images/LethalYellowingFoliarSymptoms.jpg,
https://bugwoodcloud.org/images/768×512/1504008.jpg,
https://guyanachronicle.com/wp-content/uploads/2017/04/Lethal-Yellowing.jpg (leaf) and
http://www.cphdforum.org/wp-content/uploads/2015/06/LethalYellowingCoconutSymptom.jpg (fruit)
_Myndus crudus_:
https://bugwoodcloud.org/images/768×512/0725079.jpg

Links
Story also at:
https://jis.gov.jm/spread-of-lethal-yellowing-disease-reduced-by-70/ and
https://jamaica-gleaner.com/article/news/20240304/spread-lethal-yellowing-disease-coconut-industry-reduced-70
Lethal yellowing information:
https://doi.org/10.1079/cabicompendium.38647,
https://doi.org/10.3389/fpls.2016.01521,
https://doi.org/10.1111/j.1744-7348.2011.00480.x,
https://www.cphdforum.org/index.php/2015/06/03/about-lethal-yellowing-of-coconut/,
http://edis.ifas.ufl.edu/pp146 and
https://www.apsnet.org/edcenter/disandpath/prokaryote/pdlessons/Pages/LethalYellowing.aspx
16SrIV LY phytoplasma group taxonomy and species list:
https://www.uniprot.org/taxonomy/85624
16SrXXII classification of some LY-type diseases:
https://doi.org/10.1099/ijs.0.65000-0
16SrXXII LDN phytoplasma group taxonomy:
https://www.uniprot.org/taxonomy/590462
Phytoplasma resource centre:
https://plantpathology.ba.ars.usda.gov/phytoplasma.html
Information on LY vectors via:
https://bugguide.net/node/view/63
– Mod.DHA


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Successful on-farm trials using Metarhizium rileyi in Zambia

The fall armyworm (Spodoptera frugiperda) has wreaked havoc on Zambia’s agriculture, devastating smallholder farmers with staggering losses. But amidst the struggle, a promising solution emerges.

Through activities on the PlantwisePlus programme and the Village-based biocontrol of fall armyworm in Zambia project, funded by ACIAR, CABI has delved into combating this agricultural menace with various biological control options.

Project Leads from CABI, ZARI and UNZA

Fungus to fight fall armyworm in Zambia

Metarhizium rileyi, a highly specific fungus that kills fall armyworm, stands out among these. What’s even more remarkable? Scientists from Zambia Agricultural Research Institute (ZARI), University of Zambia (UNZA), and CABI in Zambia have identified the presence of this fungus naturally occurring in certain areas when fall armyworm started devasting maize, offering a beacon of hope in the fight against this invasive pest. In 2023, the CABI-led project, funded by ACIAR, embarked on a journey alongside key partners ZARI and UNZA. Their mission? To tackle the fall armyworm crisis head-on through village-based biocontrol initiatives. The project’s official launch marked the beginning of comprehensive field trials across various sites in Zambia.

How effective is Metarhizium rileyi?

The heart of these trials lies in the application of M. rileyi.  The process involves using a mixture of a calculated amount of M. rileyi spores and local sand treatment and applying it in four maize sites infested with fall armyworm. Scientists applied the mixture every two weeks. To compare the efficacy of the fungus, the team also used other treatments: sand only, chemical, and no application. This innovative approach, coupled with meticulous monitoring, aimed to evaluate the feasibility and effectiveness of M. rileyi as a biological control agent.

Showing farmers the efficacy of M. rileyi in the field

Despite facing challenges like drought in some trial sites, the results have been promising. Visual assessments revealed stark differences between treated and untreated plots, showcasing the efficacy of M. rileyi.

Notably, the fungal and chemical-treated plots exhibited substantial control over fall armyworm populations, with numerous dead specimens discovered in the fungal treatments.  In the fungal-treated plots, there were also thriving populations of beneficial insects, which contributed to further pest suppression over time.

A sustainable approach

A dead fall armyworm showing the green fungus Metarhizium rileyi

As we reflect on these encouraging findings, it’s evident that nature holds powerful solutions to our agricultural challenges. The local presence of naturally occurring M.rileyi offers a sustainable and environmentally friendly approach to combatting fall armyworms in Zambia and beyond. Looking ahead, continued research and collaboration are paramount. By amplifying our efforts and leveraging the potential of biocontrol, we can mitigate the impact of invasive pests, safeguarding livelihoods and fostering resilience in agricultural communities.

Find out more

PlantwisePlus in Zambia

CABI Projects: Village-based biological control of fall armyworm in Zambia

Fall armyworm portal (CABI Digital Library)

How can Metarhizium be used to address pests and diseases?

Study examines potential for collective action to fight fall armyworm with biological controls in rural Zambia

Project advocates village-based biological control of fall armyworm in Zambia


Images: courtesy of the authors

PlantwisePlus gratefully acknowledges the financial support of the Directorate-General for International Cooperation (DGIS), Netherlands; European Commission Directorate General for International Partnerships (INTPA, EU); the Foreign, Commonwealth & Development Office (FCDO), United Kingdom; and the Swiss Agency for Development and Cooperation (SDC). 

Fall armywormSpodoptera frugiperdabiocontrolfungusmetarhiziumpesticide risk reductionsustainable agriculturezambia

Crop healthInvasive species

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Biopesticides to Lead the Charge in Sustainable Agriculture & Integrated Pest Management Globally

2024-03-19

Agricultural

MarketsandMarkets .

Guest Post By MarketsandMarkets .Agriculture2024-03-19

The growing awareness about the harmful effects of synthetic pesticides on human health and the environment has led to a rising demand for biopesticides.

Increasing awareness of the environmental and health concerns of synthetic pesticides is prompting farmers to seek more sustainable solutions. Biopesticides, derived from natural sources, offer a suitable alternative, promoting crop protection by fostering beneficial microorganisms in the soil while minimizing negative environmental impact.

Further, their integration into integrated pest management (IPM) strategies allows for targeted pest control, contributing to sustainable agricultural practices globally.

According to MarketsandMarkets, the biopesticides market is projected to reach USD 13.9 billion by 2028 from USD 6.7 billion by 2023, at a CAGR of 15.9% during the forecast period in terms of value. Supported by the stringent regulations on synthetic pesticides and growing demand for organic food, biopesticide usage remained prominent in North America and Europe.

Technological advancements in biopesticide development, the growing organic food industry, and increasing awareness about sustainable practices are anticipated to further propel market growth in developing countries such as Brazil, Argentina, China, and India.

Download PDF brochure: www.marketsandmarkets.com/pdfdown…asp?id=267

Focus on sustainable agricultural practices to support biopesticides growth

The demand for organic and sustainably produced food is growing as consumers become more conscious of the environmental impact of conventional farming practices, driving the demand for crops grown using biopesticides. Governments worldwide are encouraging the use of biopesticides by implementing supportive regulatory frameworks.

It includes incentives, subsidies, and streamlined registration processes for biopesticide products. Registration of biopesticides in the US takes around 12 to 18 months compared to approximately 36 months for conventional pesticides.

The registration fees are also comparatively lower. Ongoing research & development efforts are expanding the range and efficacy of biopesticides as part of integrated pest management (IPM).

Companies such as Bayer AG, Syngenta, and Corteva Agrisciences are investing in innovative formulations to improve biopesticide products’ shelf life and efficiency.

Biopesticides for sustainable agriculture and Integrated Pest Management (IPM)

Considered part of sustainable agriculture practices, biopesticides are derived from natural materials such as animals, microbes, plants, bacteria, and certain minerals. The use of biopesticides is becoming more popular due to their safer and environmentally friendly nature compared to traditional pesticides.

This trend aligns with the global push for sustainable agriculture, where eco-friendly solutions are key to minimizing harm to the ecosystem. Biopesticides are an essential component of Integrated Pest Management (IPM) as they help to reduce chemical inputs, promoting a balanced and resilient agroecosystem.

Advancement in microbial research to support future growth of biopesticides

Extensive research undertaken by the major players in the crop protection industry has encouraged the effective use of biological signals to trigger RNAi-specific genes, which would help in disease and pest resistance and increase yield and quality. Bayer AG (Germany) is advancing in microbial and RNA interference (RNAi) technology, allowing farmers to adopt better alternatives for applying biological products.

Companies such as Greenlight Biosciences are focusing on the invention of RNAi-based biopesticides for biological crop protection. Monsanto Company (US) got approval from the EPA in 2017 for genetic engineering technology using RNA interference to kill insect pests.

Corteva Agriscience (US) also licensed two insect traits from Monsanto Company (US), which contained an RNAi rootworm trait. Regulated under biopesticides in the US, this technology is witnessing increased adoption in the industry, as it is a novel solution available for specific pest traits in specific crops.

Technological limitations for the use of biological products

Biological products have a short or limited shelf life and a high probability of contamination. One of the significant problems with agricultural inoculation technology is the survival of microorganisms during storage.

The other issues include exposure to sunlight, culture mediums, the physiological state of microorganisms when harvested, temperature maintenance during storage, and water activity of inoculants that have an influence on their shelf life. Compatibility with other agricultural products, such as chemical fungicides and herbicides, also poses problems with using microbial inoculants in the soil.

Some of the major technological constraints with the use of biological products include the following:

  1. Use of improper and inefficient strains for production
  2. Lack of experienced, skilled, and technical personnel
  3. Unavailability of high-quality carrier materials or the use of different carrier materials by producers without ascertaining the quality of the material
  4. Short shelf life due to the influence of various abiotic and biotic stress factors

Effectiveness of foliar application to drive the demand for biopesticides

Foliar mode of application has become increasingly popular in recent years as it allows for more targeted and efficient use of inputs. This application mode improves the effectiveness of biopesticide products through direct application to the leaves.

When applied directly to the grass plant leaves, these products can be absorbed more quickly and efficiently, allowing for faster results and better overall performance.

Use of microbial-based biopesticides to boost the market growth

Microbial-based biopesticides are highly specific in their action, targeting only the pests they are designed to control while leaving beneficial insects and organisms unharmed, hence integrating sustainable approaches to farming. Microbials, including bacteria, fungi, viruses, and protozoa, can act as natural enemies of pests by directly infecting and killing them or interfering with their life cycles and behavior.

This targeted approach helps preserve the ecological balance and reduces the risk of resistance development in pests. Additionally, microbial products have a lower environmental impact, as they degrade naturally without leaving harmful residues in the soil, water, or air.

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Growth opportunities in developing regions such as Asia Pacific and South America

According to FAOSTAT, China, India, Brazil, and Argentina have emerged as major consumers of pesticides. As the demand for food has risen in these regions, the use of pesticides has increased consequently to achieve higher crop yields.

However, pollution, soil contamination, and concerns about the harmful effects of chemical pesticides on the food chain have become significant issues in these areas. To address these concerns, governments are promoting the adoption of integrated pest management practices (IPM) and sustainable crop protection practices.

Developing regions such as the Asia Pacific are poised for strong growth due to the availability of biopesticide products, the extent of organic farming, farmers’ awareness, cultivation of high-value cash crops, and effective promotion and marketing of biopesticides.

In countries such as India, China, and Brazil, where farmers typically have smaller landholdings and face economic challenges, government agencies provide subsidies and implement favorable regulatory policies to support large-scale production and encourage the use of biopesticides. The biopesticide market in these regions presents opportunities for new entrants due to a relatively small number of producers and low entry barriers.

Biopesticides market ecosystem

Prominent companies operating in the market possess a diversified product portfolio, state-of-the-art technologies, and strong global sales and marketing networks. The key players in this include BASF SE (Germany), Bayer AG (Germany), Syngenta (Switzerland), UPL Limited (India), FMC Corporation (US), Marrone Bio Innovations, Inc.

(US), Novozymes (Denmark), Nufarm (Australia), Isagro S.p.A (Italy), Certis USA L.L.C. (US), Koppert (Netherlands), Biobest Group NV (Belgium), SOM Phytopharma (India) Limited (India), Valent BioSciences LLC (US), and STK Bio-Ag Technologies (Israel).

These players in this market are focusing on increasing their presence through agreements and collaborations. These companies have a strong presence in North America, Asia Pacific, and Europe.

They also have manufacturing facilities along with strong distribution networks across these regions.

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Friday, 09 February 2024 06:22:21

PestNet

Grahame Jackson posted a new submission ‘Identification of self- and pathogen-targeted miRNAs from resistant and susceptible Theobroma cacao variety to black pod disease’

Submission

Identification of self- and pathogen-targeted miRNAs from resistant and susceptible Theobroma cacao variety to black pod disease

Narute Scientific Reports

Scientific Reports volume 14, Article number: 3272 (2024) 

Cacao (Theobroma cacao) is a highly valuable crop with growing demand in the global market. However, cacao farmers often face challenges posed by black pod disease caused by Phytophthora spp., with P. palmivora being the most dominant. Regulations of various gene expressions influence plant resistance to pathogens. One mechanism involves targeting the mRNA of virulence genes in the invading pathogens, suppressing their infection. However, resistance also could be suppressed by plant-derived miRNAs that target their own defence genes. The objective of this study is to identify differentially expressed miRNAs in black pod-resistant and susceptible cacao varieties and to predict their targets in T. cacao and P. palmivora transcripts. Extracted miRNA from resistant and susceptible varieties of T. Cacao was sequenced, identified, and matched to host and pathogen mRNA. In total, 54 known miRNAs from 40 miRNA families and 67 novel miRNAs were identified. Seventeen miRNAs were differentially expressed in susceptible variety compared to resistant one, with 9 miRNAs upregulated and 8 miRNAs downregulated. In T. cacao transcripts, the upregulated miRNAs were predicted to target several genes, including defence genes. The suppression of these defense genes can lead to a reduction in plant resistance against pathogen infection. In P. palmivora transcripts, the upregulated miRNAs were predicted to target several genes, including P. palmivora effector genes. In the future, limiting expression of miRNAs that target T. cacao’s defence genes and applying miRNAs that target P. palmivora effector genes hold promise for enhancing cacao plant resistance against P. palmivora infection.

https://www.nature.com/articles/s41598-024-53685-x


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New study finds corn genome can gang up on multiple pathogens at once

Peer-Reviewed Publication

UNIVERSITY OF ILLINOIS COLLEGE OF AGRICULTURAL, CONSUMER AND ENVIRONMENTAL SCIENCES

Tiffany Jamann
IMAGE: UNIVERSITY OF ILLINOIS URBANA-CHAMPAIGN PLANT PATHOLOGIST TIFFANY JAMANN (PICTURED) AND HER TEAM IDENTIFIED GENOMIC REGIONS ASSOCIATED WITH FOUR MAJOR DISEASES OF MAIZE, PAVING THE WAY FOR FUTURE BREEDING PROGRAMS THAT COULD DEVELOP MULTIPLE-DISEASE-RESISTANT HYBRIDS. view more CREDIT: PROVIDED BY TIFFANY JAMANN, UNIVERSITY OF ILLINOIS.

URBANA, Ill. — In a changing climate, corn growers need to be ready for anything, including new and shifting disease dynamics. Because it’s impossible to predict which damaging disease will pop up in a given year, corn with resistance to multiple diseases would be a huge win for growers. Now, University of Illinois Urbana-Champaign researchers are moving the industry closer to that goal. 

Goss’s wilt, a bacterial disease, and fungal diseases gray leaf spot, northern corn leaf blight, and southern corn leaf blight are important to growers across the Midwestern U.S. and, in some cases, globally. The study, published in G3 Genes|Genomes|Genetics, reveals genomic regions associated with resistance to all four diseases.

“We not only found regions of the genome conferring resistance to each disease, but also identified a handful of experimental corn lines that were resistant to all of them. These findings should help the industry develop materials with resistance to multiple diseases at once,” said Tiffany Jamann, senior author of the new study and associate professor in the Department of Crop Sciences, part of the College of Agricultural, Consumer and Environmental Sciences (ACES) at U. of I.

The team made several strategic crosses between disease-resistant and susceptible corn lines that let them map resistance traits to specific locations in the genome. For now, those regions are fairly large, comprising hundreds of individual genes. If there are specific genes with outsized effects, they haven’t been identified yet. 

Still, identifying important regions is helpful, as disease resistance rarely comes down to a single gene. In fact, the additive or quantitative power of multiple genes working together can mean more durable resistance. There’s a backup if a pathogen finds a way around a given resistance mechanism. Interestingly, this durability may even work against different groups of pathogens. 

“We found 19 regions associated with resistance to the bacterial disease Goss’s wilt. Several of those regions are also involved with resistance to fungal pathogens,” Jamann said. “Thus, it is possible to breed for resistance to several diseases at one time using the same genetic regions.”

Fungi and bacteria are very different biologically, but both have to find ways to get into the plant, travel throughout, and reproduce. Jamann says it’s possible that resistance genes trigger changes in the plant’s vasculature to make it harder for both kinds of pathogens to move around, but she still can’t say exactly how the genes help plants protect themselves. She’s working on it, though, thanks to a 2022 grant from the National Science Foundation.  

Although the team identified three corn lines with resistance to all four diseases, it will be a while before growers can purchase seed for multiple-resistant corn as a result of this work. First, Jamann’s team will fine-map the regions highlighted in this study to find any major-effect genes, then pass that information off to breeders who can develop hardy new hybrids. Still, Jamann says, multiple resistance is on its way.  

The study, “Identification of loci conferring resistance to four foliar diseases of maize,” is published in G3 Genes|Genomes|Genetics [DOI: 10.1093/g3journal/jkad275]. Authors include Yuting Qiu, Pragya Adhikari, Peter Balint-Kurti, and Tiffany Jamann. The research was supported by USDA Hatch Project ILLU-802-985 and the National Science Foundation under award no. 2154872. Any opinions, findings, conclusions, or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.


JOURNAL

G3 Genes Genomes Genetics

DOI

10.1093/g3journal/jkad275 

Disclaimer: AAAS and EurekAlert! are not responsible for the accuracy 

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NEWS RELEASE 7-FEB-2024

EurekAlert

New study finds corn genome can gang up on multiple pathogens at once

Peer-Reviewed Publication

UNIVERSITY OF ILLINOIS COLLEGE OF AGRICULTURAL, CONSUMER AND ENVIRONMENTAL SCIENCES

Tiffany Jamann
IMAGE: UNIVERSITY OF ILLINOIS URBANA-CHAMPAIGN PLANT PATHOLOGIST TIFFANY JAMANN (PICTURED) AND HER TEAM IDENTIFIED GENOMIC REGIONS ASSOCIATED WITH FOUR MAJOR DISEASES OF MAIZE, PAVING THE WAY FOR FUTURE BREEDING PROGRAMS THAT COULD DEVELOP MULTIPLE-DISEASE-RESISTANT HYBRIDS. view more CREDIT: PROVIDED BY TIFFANY JAMANN, UNIVERSITY OF ILLINOIS.

URBANA, Ill. — In a changing climate, corn growers need to be ready for anything, including new and shifting disease dynamics. Because it’s impossible to predict which damaging disease will pop up in a given year, corn with resistance to multiple diseases would be a huge win for growers. Now, University of Illinois Urbana-Champaign researchers are moving the industry closer to that goal. 

Goss’s wilt, a bacterial disease, and fungal diseases gray leaf spot, northern corn leaf blight, and southern corn leaf blight are important to growers across the Midwestern U.S. and, in some cases, globally. The study, published in G3 Genes|Genomes|Genetics, reveals genomic regions associated with resistance to all four diseases.

“We not only found regions of the genome conferring resistance to each disease, but also identified a handful of experimental corn lines that were resistant to all of them. These findings should help the industry develop materials with resistance to multiple diseases at once,” said Tiffany Jamann, senior author of the new study and associate professor in the Department of Crop Sciences, part of the College of Agricultural, Consumer and Environmental Sciences (ACES) at U. of I.

The team made several strategic crosses between disease-resistant and susceptible corn lines that let them map resistance traits to specific locations in the genome. For now, those regions are fairly large, comprising hundreds of individual genes. If there are specific genes with outsized effects, they haven’t been identified yet. 

Still, identifying important regions is helpful, as disease resistance rarely comes down to a single gene. In fact, the additive or quantitative power of multiple genes working together can mean more durable resistance. There’s a backup if a pathogen finds a way around a given resistance mechanism. Interestingly, this durability may even work against different groups of pathogens. 

“We found 19 regions associated with resistance to the bacterial disease Goss’s wilt. Several of those regions are also involved with resistance to fungal pathogens,” Jamann said. “Thus, it is possible to breed for resistance to several diseases at one time using the same genetic regions.”

Fungi and bacteria are very different biologically, but both have to find ways to get into the plant, travel throughout, and reproduce. Jamann says it’s possible that resistance genes trigger changes in the plant’s vasculature to make it harder for both kinds of pathogens to move around, but she still can’t say exactly how the genes help plants protect themselves. She’s working on it, though, thanks to a 2022 grant from the National Science Foundation.  

Although the team identified three corn lines with resistance to all four diseases, it will be a while before growers can purchase seed for multiple-resistant corn as a result of this work. First, Jamann’s team will fine-map the regions highlighted in this study to find any major-effect genes, then pass that information off to breeders who can develop hardy new hybrids. Still, Jamann says, multiple resistance is on its way.  

The study, “Identification of loci conferring resistance to four foliar diseases of maize,” is published in G3 Genes|Genomes|Genetics [DOI: 10.1093/g3journal/jkad275]. Authors include Yuting Qiu, Pragya Adhikari, Peter Balint-Kurti, and Tiffany Jamann. The research was supported by USDA Hatch Project ILLU-802-985 and the National Science Foundation under award no. 2154872. Any opinions, findings, conclusions, or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.


JOURNAL

G3 Genes Genomes Genetics

DOI

10.1093/g3journal/jkad275 

Disclaimer: AAAS and EurekAlert! are not responsible f

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India: National speed breeding crop facility inaugurated

Union Minister of Science & Technology, Dr. Jitendra Singh today inaugurated the first-of- its-kind “National Speed Breeding Crop Facility” at the premier National Agri-Food Biotechnology Institute (NABI) in Mohali.

Speaking on the occasion as chief guest, Dr. Jitendra Singh said, “this initiative is in line with Prime Minister Narendra Modi’s priority of doubling the farmer`s Income, ensuring their economic empowerment and promoting Agri-StartUps”. He said, farmers will now have the opportunity to improve their crop qualitatively as well as quantitatively.

Dr. Jitendra Singh said, “Biotechnology speedy seeds facility will cater to all the States of India, but it will especially be useful for the North Indian States like Punjab, Himachal Pradesh, Haryana and the UT of J&K. Adding further, he said, “this facility will augment transformational changes in crop improvement programs by accelerating the development of advanced crop varieties that could sustain climate change and contribute to the food and nutritional demand of the population with implementation of speed breeding cropping methods.”

The Minister said, “DBT institute of NABI has developed technology of ‘Climate- resistant crops’, by harnessing these technologies the farmers will not be restrained to cultivate a crop in a particular season rather they will have the liberty to practise farming irrespective of climate conduciveness”.

Dr. Jitendra Singh, while highlighting the recent achievements of institutes under the Ministry of Science & Technology, said, “Our institutes have specialized technologies in fruit, flowers, and crop cultivation through modern genetic means.” He recalled the success of ‘Tulip’ Cultivation by CSIR Palampur, and he also recalled the development of ‘108-petal lotus’ by CSIR Lucknow, which won an award in the TV series KBC. He further emphasized that applying the latest technology in the farming sector will add to the country’s economic growth by supplementing modern Science and Technology tools to the traditional vocation of farming in India.

“Bio-manufacturing and Bio-foundry will drive India’s future bio-economy and promote Green Growth,” said Dr. Jitendra Singh. According to him, the Ministry is working with a synergy and integrative approach, keeping in view the emphasis of PM Modi on combining Science and Technology with traditional knowledge to supplement India’s economy.

Dr. Jitendra Singh also highlighted the fact that under PM Modi, “India’s bio-economy has grown 13 folds in the last 10 years from $10 billion in 2014 to over $130 billion in 2024”.

Addressing the inauguration, Dr. Jitendra Singh said, “In the 3rd consecutive term of Prime Minister Narendra Modi, India has been projected to emerge as the 3rd largest economy of the world and rise to be the largest in coming years. Contribution of the agriculture sector will therefore be crucial for the Indian economy”.

Dr. Jitendra Singh informed that the Modi Government is conscious of the importance of Bio-economy, and thus, the recent ‘Vote of Account-Budget’ had a provision for a special scheme for Bio-manufacturing.

According to Dr. Jitendra Singh, institutes like NABI will have an important role to enable the transformational progress and value addition in farming sector productivity.

The facility will directly help a) Scientists and Researchers from government institutions, private institutions, and leading industries in India engaged in agricultural and biotechnology research and development of improved crop varieties and products, b) Plant Breeders working for crop development, and c) Progressive farmers who are contributing to adoption of new varieties with superior yield and nutritional traits.

In his address, Prof. Ashwani Pareek, Executive Director, NABI, said the speed breeding crop facility will be used to develop new varieties such as wheat, rice, soybean, pea, tomato, etc., by using a precisely controlled environment (light, humidity, temperature) to achieve more than four generations of a crop per year.

The NABI institute has significantly contributed to ‘Atal Jai Anusandhan Biotech (UNaTI) Mission (Poshan Abhiyan) and Biotech Kisan Hubs for Jammu & Kashmir, Ladakh, Himachal Pradesh, Punjab, Haryana etc, he said.Publication date: Tue 12 Mar 2024

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