The successful candidate will work with the Agriculture & Environmental Technologies Innovation Centre team at the Welland Campus. The work includes programming, testing and troubleshooting of agricultural data management and mapping web software. The position could involve development of web/cloud/IoT services, and helping to develop robotics technology. You will work with senior team members in Computer Programming and Geographic Information Systems (GIS), and the Industrial Research Chair for Colleges in Precision Agriculture & Environmental Technologies.
Click HERE to see the full job posting. The deadline to apply is Friday, September 27th, 2019 at 4pm.
To apply, please email your resume, cover letter, transcript and class schedule to firstname.lastname@example.org and reference job posting ‘AETIC COMPUTER PROGRAMMER RESEARCH ASSISTANT’.
We thank all applicants; however, only those qualifying for an interview will be contacted.
The individuals will work with the Faculty Leads to oversee plant growth, apply fertilizers/irrigation, etc., and assess and measure growth. The successful candidates will collect data from the growing trials and help to prepare update reports and a final report summarizing the final results.
Click HERE to see the full job posting. The deadline to apply is Friday, August 30th , 2019 at 12PM.
To apply, please email your resume, cover letter, transcript and class schedule to email@example.com and reference job posting ‘Greenhouse/Horticulture Research Assistant’ in the subject line.
We thank all applicants; however, only those qualifying for an interview will be contacted.
On July 19th, a group of farmers from Northern Germany made their way to Niagara College’s Niagara-on-the-Lake campus to discover the school’s agricultural and horticultural technologies and capabilities. The group – mainly cabbage growers – are all independent farmers, but are part of an association called “Maschinenring Dithmarschen,” a machinery/professional pool with access to affiliated companies to help agricultural farmers.
The Research & Innovation division presented research projects and capabilities from the Agriculture & Environmental Technologies Innovation Centre (AETIC) and then provided a tour of the Niagara College greenhouse facilities.
The AETIC team offered an overview of R&I’s agriculture and environmental technologies, such as meteorology, geomorphology, sustainability, artificial intelligence, big data, data mapping & visualization, data analysis, rovers, UAVs, and software. The team of students, graduates and staff also described research into variety trials, IPM, lighting, fertilization, irrigation, photovoltaics, production practices, nursery, cannabis, and hydroponics.
The farming delegation were able to learn how NC, through precision agriculture technologies, is helping farmers here make more informed decisions about crop planting and yields while empowering growers to mitigate problem areas, opening new doors for revenue.
Sarah Lepp, Senior Research Associate with AETIC, discussed the benefits of NC’s crop portal, an interactive web software that houses and processes farm data, such as yield and topography, into visual digitized 3D maps, giving farmers and crop consultants detailed insight into their fields’ productivity variability.
The Agriculture & Environmental Technologies Innovation Centre (AETIC) is getting equipped to enter into cannabis applied research, thanks to a recent grant for dedicated space and specialized equipment to complete trials for the cannabis industry.
The $149,918 grant to Niagara College (NC) through the Natural Sciences and Engineering Research Council of Canada (NSERC) from the Applied Research Tools and Instruments Grants (ARTI) program will cover the purchase and outfitting of a 40-ft segregated container. The AETIC Cannabis Production Research Chamber will enable the testing and utilization of sensors, unique lighting arrays, and other innovative concepts that require applied research work prior to use in licensed producers’ spaces, and commercial adoption.
Michelle Smith, who is a research lead for AETIC and a technologist for NC’s Commercial Cannabis Production (CCP) program – the first post-secondary credential of its kind in Canada, which launched in September 2018 – says the recent funding announcement will expand the College’s research capacity in cannabis.
Canada has a unique opportunity to be a world leader in cannabis production and NC holds a strategic position to support Canada’s cannabis producers and supporting industries. “Leading in cannabis production will include innovating and executing applied research in production technologies, crop management, support crop inputs, pest and disease management, sensors, and a combination of these elements,” notes Smith.
The objectives of the Research & Innovation applied research projects will be to help improve and maintain cannabis quality; prevent and reduce crop losses; provide commercialization support for cannabis production technologies and techniques; and integrated pest management (IPM) techniques.
The new units will be installed next to the academic growing areas of the College’s Commercial Cannabis Program, which includes five 20-ft secure shipping containers, on the Niagara-on-the-Lake campus. The AETIC Cannabis Production Research Chamber will include growing space that is controlled and isolated in order to perform safe, secure, and dependable research projects that will not negatively impact the academic crops.
“The equipment will help train students on controlled growing trials, cannabis production innovations, and for some students, there will be longer term paid project opportunities to be part of applied research work,” adds Smith.
The equipment and associated research will also help to support the more than two million square-feet of cannabis growing space in Niagara – and 8.7 million across Canada – in an industry that is anticipated to have legal recreational sales as much as $4.34 billion in 2019, and medical cannabis that is expected to generate an additional $0.77 to $1.79 billion in sales.
Niagara College is at the forefront of agricultural robotics technology, with its complement of aerial drones and enterprise-level software systems. Now a 400-lb remotely operated rover, named RoamIO Jumbo, is undergoing field testing to refine high-precision engineering onboard that will help accurately predict vineyard yield estimates for grape growers.
These field trials are taking place at the Niagara-on-the-Lake campus vineyards by members of the Agriculture & Environmental Technologies Innovation Centre (AETIC) research team, after months of in-lab engineering. The technical advancement project, which also includes optimizing autonomous navigation capabilities, is in collaboration with industry partner Korechi Innovations, the creators of the RoamIO robot.
RoamIO is outfitted with various sensors, including traditional image capturing cameras, LiDARs, SONARS, temperature probes, soil moisture probes and more. All these sensors will help grape farmers increase profitability or even help save their crops by better understanding the total expected yield and the variability across the vineyard.
Thanks to a federal grant from the Natural Sciences and Engineering Research Council of Canada (NSERC), the College was able to purchase RoamIO last year, and is now working with Korechi to optimize the robot’s autonomous navigation and spatial awareness capabilities and enable it with computer vision to obtain accurate and variable yield estimates.
The first phase of the agricultural robot project involved the AETIC team working with Korechi’s original onboard software to refine the auto-navigation programming using waypoint GPS technology to improve the rover speed, rather than having it stop to recalibrate for position for a fraction of a second every 10 metres.
“The College team implemented 2D LiDAR because it has a higher degree of precision for obstacle detection and collision avoidance,” says Sougata Pahari, Founder & CEO of Korechi. “Niagara College has been instrumental in solving these problems and others are in progress.”
For the navigation system, the research team works collaboratively with Korechi’s engineers – including two full-time software coders – who also provide rigorous testing on the work carried out by NC for validation.
Pahari is already bringing this auto-navigation capability to the market, giving demonstrations using other land rovers his team has built. His target market is 20- to 200-acre vineyards, with a secondary market of golf courses, as the enhanced platform allows better performance in open fields. He’s also working on a software app to be used on a tablet.
“We’re not talking about 100 percent autonomy at the moment and that’s probably for the best, because farmers want to have a say in how their farms are operated,” notes Pahari.
The second and current phase of the project brings in artificial intelligence (AI) to capture specialized views of a vineyard, and different types and colours of grapes, to get an accurate and variable yield estimate.
Typically, a grape harvest yield prediction involves workers taking samples by hand from areas of a vineyard and then making an educated guess for the entire field.
“The problem is accuracy: while humans can only get within 25 percent error, machine vision, however, can get within 10 percent error,” explains Andrew Nickel, Research Associate and a NC Electronics Engineering Technology program graduate who is overseeing the multi-phase project.
There is also the challenge of yield varying considerably from year to year and also geographically within the field due to soil conditions, pests, and climate. And Niagara is more susceptible to this than most grape growing regions, says Nickel, who is also a former grape vineyard owner.
“In Niagara we have always had variable growing seasons, whereas winemaking in Chile or Australia is like Groundhog Day; every season is the same.”
Instead, the innovative technology being created within the Research & Innovation division involves designing the vision system using commercial hardware and camera systems. It’s a challenging endeavour to program such precise machine learning algorithms for grape identification, colour and counting given the array of variables, such as differing grape size, cluster shapes and lighting conditions.
Once complete, the field data will give farmers a window into the total expected yield and variability across the vineyard, allowing for more accurate sales and revenue prediction. The farmers can also use the data to better manage their vineyards by using measures such as variable rate fertilization and variable rate fungicide application to improve their yield.
“It’s been a tremendous partnership and Niagara College is such a great institution that it lends more legitimacy whenever we go talk to potential customers,” adds Pahari. “Everyone recognizes Niagara College as one of the leaders of knowledge in the vineyard space in Canada.”
The Agriculture & Environmental Technologies Innovation Centre (AETIC) research team is comprised of computer programming, electronics, robotics, and geospatial information systems (FIS) students, and recent graduates. The team is led by Mike Duncan, PhD, who is in his eighth year as the Natural Sciences and Engineering Research Council’s Industrial Research Chair for Colleges (NSERC-IRCC) in Precision Agriculture & Environmental Technologies at the College.
Healthy root systems are critical for long-term health and survival of trees.
When root complications occur, such as root girdling, the lifespan of trees is reduced. Girdling is when, instead of growing laterally into the surrounding soil, the roots grow in a circle, which eventually chokes the trunk, killing the tree over time.
Research has shown that root defects (i.e., girdling) usually start during propagation, when roots come into contact with the walls of a growing container or tray, rerouting growth in an unnatural direction. Once root growth direction is set, a root does not reposition itself as a tree matures. These root defects, especially girdling roots, may not be obvious until many years later when it’s too late to save the tree.
Enter RootSmart™ a propagation system, developed in partnership between A.M.A. Horticulture Inc. and Vineland Research and Innovation Centre, which prevents girdling in the first vital stages of root growth. As a wall-less, bottomless tray, RootSmart™ is uniquely designed to encourage lateral root growth without obstruction from the container.
Niagara College Horticulture students have conducted the first phase of on-campus research trials using the RootSmart™ propagation tray system to help grow healthier white oak seedlings, under the guidance of Mary Jane Clark, Horticulture professor and faculty research lead working with the Agriculture & Environmental Technologies Innovation Centre at Research & Innovation.
Oak trees in particular have unique deep-growing tap root systems and can be challenging to propagate, says Clark, due to root defects developing during early growth as roots come into contact with the propagation tray’s walls. After propagation, preventing root defects continues to be important when growing a healthy oak tree.
In collaboration with A.M.A. Horticulture, Inc. and the Chautauqua community in Niagara-on-the-Lake, NC Horticulture students are investing into a long-term research project to study propagation and production methods throughout the five years while each generation of oaks is growing at the College.
“During propagation in the RootSmart™ trays, we tested three watering methods and two application rates of a controlled-release fertilizer product,” explains Clark. “Currently, we are testing three container types and two Osmocote® controlled-release fertilizers during the first outdoor growing season. The goal is to efficiently grow healthy root systems for the oak trees until they are ready to be transplanted back into the Chautauqua community in Niagara-on-the-Lake as an urban reforestation project.”
Earlier this year NC Horticulture student Daynan Lepore-Foster shared the research team’s findings at the 2019 Landscape Ontario Nursery Growers Short Course.
“At A.M.A., we are proud to deliver innovative solutions to our customers. But if we want to continue driving innovation in our industry, we have to make sure we’re connecting with the next generation of growers,” says Rick Bradt, Managing Director of A.M.A. “Their enthusiasm and vision for our industry is inspiring, and we are excited to see what horticulture will look like in the next five to ten years.”