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Guardian Ag’s Crop-Spraying Drone is Replacing Dangerous Pilot Missions

By Zach Winn

Every year during the growing season, thousands of pilots across the country climb into small planes loaded with hundreds of pounds of pesticides and fly extremely close to the ground at upward of 140 miles an hour, unloading their cargo onto rows of corn, cotton, and soybeans.

The world of agricultural aviation is as dangerous as it is vital to America’s farms. Unfortunately, fatal crashes are common. Now Guardian Ag, founded by former MIT Electronics Research Society (MITERS) makers Adam Bercu and Charles Guan ’11, is offering an alternative in the form of a large, purpose-built drone that can autonomously deliver 200-pound payloads across farms. The company’s drones feature an 18-foot spray radius, 80-inch rotors, a custom battery pack, and aerospace-grade materials designed to make crop spraying more safe, efficient, and inexpensive for farmers.

“We’re trying to bring technology to American farms that are hundreds or thousands of acres, where you’re not replacing a human with a hand pump — you’re replacing a John Deere tractor or a helicopter or an airplane,” Bercu says.

“With Guardian, the operator shows up about 30 minutes before they want to spray, they mix the product, path plan the field in our app, and it gives an estimate for how long the job will take,” he says. “With our fast charging, you recharge the aircraft while you fill the tank, and those two operations take about the same amount of time.”

Source : mit.edu

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WEBINAR: Protecting Sm1: New Research on Wheat Midge Resistance with Dr. Tyler Wist

Video: WEBINAR: Protecting Sm1: New Research on Wheat Midge Resistance with Dr. Tyler Wist

Watch Dr. Tyler Wist, Research Scientist with Agriculture and Agri-Food Canada, Saskatoon as he shared insights into his funded wheat research project under the Sustainable Canadian Agriculture Partnership. This funded research targets wheat midge and its parasitoids across the western Canadian Prairies. Funding from a previous CAP resulted in the discovery of a mechanism behind oviposition deterrence (preventing insects from laying eggs) in several wheat varieties. Through ongoing surveying, Dr. Wist and his team are determining what factors impact where wheat midge lay eggs and what varieties have better genetic response to wheat midge pressure. Dr. Wist shared how his research will dig into continued breeding initiatives, and what additional control methods are being produced beyond the Sm1 gene.

•Funding Partners:

•Sustainable Canadian Agriculture Partnership

•Government of Canada

•Alberta Grains

•Canadian Field Crop Research Alliance

•Manitoba Crop Alliance

•Saskatchewan Wheat Development Commission

•Western Grains Research Foundation