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Hive Mind

May 8, 2019 by Leslie Prives

Creating A Science-Driven Solution To Improve The Yield Of Commercial Beekeeping

Image of a bee on a flower behind a honeycomb.
Photo: iStockphoto/Grafissimo

We typically think of the phrase “ripped from the headlines” when referring to movies or books, but for Dr. Fiona Edwards Murphy, the news of the moment ended up informing her Ph.D. research and, ultimately, a business. “During university, I got involved with the embedded systems network and fell in love with wireless sensor networks and the Internet of Things,” recalls Edwards Murphy, who completed her undergraduate degree in electrical and electronic engineering at University College Cork, Ireland. “I wanted to pursue a Ph.D., but there wasn’t a topic that set my world on fire. At the time—2012 and 2013—I saw how everyone was panicking about colony collapse disorder, and I wondered if anyone had looked into putting sensors into beehives. A little bit of research showed there had been some work in the area but nothing extensive, so I decided to focus my Ph.D. there.”

Photo of Dr. Fiona Edwards Murphy
Dr. Fiona Edwards Murphy / Photo: Claire Keogh

Colony collapse disorder is exactly what it sounds like: the collapse of honeybee colonies. Bees are the only insect pollinators that humans can manage on a commercial scale and are used to pollinate a variety of crops that contribute a huge portion of the nutritious part of our diet, such as almonds, avocados, and blueberries. According to Edwards Murphy, honeybees provide around US$174 billion of pollination to the world each year, so loss of the insects or of beekeepers, who leave the industry because of difficulties managing their colonies and maintaining profitability, creates a significant challenge to our well-being.

“The biggest problem facing the pollination industry is that there are so many problems,” says Edwards Murphy. “There isn’t one big disease that has wiped out all the beehives; beehives are very complicated, tiny balanced organisms. So contributing factors [to the bee falloff] are, for example, diseases and pests, decline in biodiversity, and lack of wildflower access. If there was just one issue, it could perhaps be solved.”

Where her Ph.D. research came in was on the utilization of sensors to monitor the internal conditions of hives, which would help beekeepers get the information they need from their massive fields of beehives to know which problems they should respond to and how to prioritize their efforts most effectively. With this idea, Edwards Murphy applied for funding from the Irish Research Council and, upon being granted a subsidy, spent four years working on developing the technology that would enable beekeepers to receive the crucial information.

A Business Idea Forms
After a slew of awards for her work, including recognition from the IEEE, IBM, the Irish Laboratory Awards, Google, and the Global Entrepreneurship Summit, as well as publications and media attention, the project began to take shape as a potential business opportunity. “I was interviewed on national radio, and then we began getting contacted by bee­­keepers who said they wanted wireless sensors in their beehives or asked if they could buy the technology,” explains Edwards Murphy. “That’s when I thought maybe this had use beyond just research technology.”

Edwards Murphy meeting with Prince Charles when he visited her alma mater, University College Cork, in June 2018.
Edwards Murphy meeting with Prince Charles when he visited her alma mater, University College Cork, in June 2018. / Photo: Daragh Macsweeney Provision

She founded ApisProtect in 2017, a company aimed at creating a science-driven solution to improve the yield of commercial beekeeping, with two cofounders: Dr. Pádraig Whelan, chief science officer, and Andrew Wood, chairman. “We’ve created a device about the size of a VHS tape, though I wish I could give a more modern example!” laughs Edwards Murphy. The device, which has temperature, humidity, carbon dioxide, sound, and acceleration sensors, is inserted into the beehive and collects data. Then, a combination of several kinds of long-range radio is used to transmit the data back to ApisProtect.

“One of the biggest challenges we’ve had so far is communication,” says Edwards Murphy. “Beehives are in the middle of nowhere, almost universally, so a cellular network doesn’t always work. Once the data is transmitted back to our servers, we use machine learning to essentially identify what’s going on inside the beehive, which hives are performing well in relation to one another, and attempt to determine problems.”

A hive after beekeepers installed an ApisProtect monitor.
A hive after beekeepers installed an ApisProtect monitor. / Photo: Jonathan Fleury

The end result is a report back to the beekeeper that is meaningful in terms of how to maximize the pollination revenue and increase honey yield. This includes smart alerts with actionable insights to brief beekeepers on the condition of their hives, identify problem colonies, and suggest a variety of actions to keep colonies healthy, helping the proprietors to save time and cultivate healthier hives. In other words, “we don’t just give them raw data,” clarifies Edwards Murphy. “A beekeeper would rather just go inspect the beehive than go through pages and pages of graphs.”

As of the end of 2018, 200 devices had been installed in beehives, monitoring the health of nearly 10 million honeybees split among locations in the United States, Ireland, the United Kingdom, and South Africa. With this split, ApisProtect is collecting data from different climates, ­beekeeping styles, and subspecies around the globe to improve their machine learning. The ability to widely roll out the technology was thanks, in large part, to a recent US$1.8 million round of seed funding, which provides not only financing but guidance. “What these investors bring is really good knowledge of the pollination services market, the agriculture industry, and the technology market, with specific expertise in the Internet of Things,” says Edwards Murphy.

International Demand
Along with this growth comes expansion of the ApisProtect team. In 2019, the company will open its first U.S. office, inside the Western Growers Center for Innovation and Technology in Salinas, California. “California is the home of the pollination association, so getting to know the growers and beekeepers out there will be really important for us,” shares Edwards Murphy. The team plans to at least triple its staff in the next three years while making its presence known across North America and Europe with the rollout of their commercially available devices.

Based on the response to Edwards Murphy’s radio interview years ago, the expectation is that demand for these devices will be high. As such, ApisProtect anticipates a need to search pretty quickly for partners, especially in hardware. “Our current production volume is very expensive, because there are no economies of scale with 200 units,” she says. “The best thing to do is to get design partners and connections with people who have supply chain experience in order to streamline production.”

An ApisProtect beehive monitor during installation.
An ApisProtect beehive monitor during installation. / Photo: Jonathan Fleury

As she grows her company, Edwards Murphy credits her past experiences and networks, such as the IEEE, with helping her hone her skills as a chief executive officer (CEO), “I probably learned as much in the first six months of being a CEO as I did in eight years of university,” she muses. “It’s been really challenging, but in a fun way.” However, she adds, “what’s been helpful is that, since our focus is science driven and our technology is new and experimental, it feels almost like being in a research group as much as a start-up, and obviously, I’ve spent a lot of time around labs.”

One of the more valuable things she’s gained from networking is practice in advancing her presentation and interpersonal skills, which come in handy when doing interviews, pitching investors, and looking for partners. “I’ve been to a lot of conferences and traveled to different places, which have been a huge part of building my technical network,” she says. “I know people from all over the world now who work in wireless sensor networks and communications.”
“In the start-up community, in particular, there is great support,” she continues. “There certainly is in Cork, and I think it’s universal. I know a lot about hardware and technology, and I’m always willing to share my knowledge, and so it’s about meeting other people and asking questions—and everyone’s usually happy to oblige.”

This is also the advice Edwards Murphy gives to anyone considering launching a start-up business venture of their own: get out there, talk about your idea, and give it a go. “I’ve met a lot of people who are just too scared to take the risk. It’s challenging, but you’ll always be wondering afterward what would have happened if you tried.” She’s certainly glad she did—though, she adds, “I definitely didn’t think I’d be here six years later, with $1.8 million, still talking about bees!”

For more information, please visit www.apisprotect.com or follow @apisprotect on social media.

—Leslie Prives is a freelance writer living in New York City.

Digital Object Identifier 10.1109/MWIE.2019.2902997


Filed Under: Popular Article

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IEEE Women in Engineering Magazine is the first magazine to focus on issues facing women who study or work in IEEE’s fields of interest.

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A Catalytic
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Twenty-three-year-old Alayna Westcom stood onstage in a white dress with a blue atom emblem, blue shoes, and lab glasses. On a table covered by a white tablecloth, she added hydrogen peroxide and potassium iodide to a little soap and then stepped back to watch. “Don’t try this at home,” she teased as white foam erupted onto the stage. It was a catalytic decomposition reaction that goes by the nickname “elephant’s toothpaste.” The hydrogen peroxide rapidly decomposes into water and oxygen gas, and when the gas gets trapped in the soap, voilà—bubbles, and a huge shot of foam.

This was the 2015 Miss Vermont pageant, and Westcom was crowned the winner. She would perform this experiment again when she represented Vermont in the 2016 Miss America pageant. In both pageants, she was the first contestant to perform a science experiment as her talent. As Miss Vermont, she spent a year visiting all 251 cities and towns in her state under the platform “Success through STEM.” Her goal was to teach science to thousands of students in an entertaining and hands-on way. There’s not a lot of fun in science today, she feels, and this matters because that’s how her love of science began—by getting her hands dirty. Westcom’s parents bought her and her siblings a toy microscope when she was very little, and they used it to do things like look at the wings of bugs.

These were “kid things,” sure, but also entomologist activities. Then, all of her science classes in elementary and middle school were fun and interactive. They were always moving around the classroom—they built their own rollercoasters and dissected chicken wings to study muscle attachments and movements and then cooked some to eat. “So many of my teachers had an impact on my career in ways they will never know,” Westcom says. “They were always making sure we were learning and having fun at the same time.”

When she got to high school, Westcom was drawn to forensics and crime investigation. Prime-time crime dramas like CSI certainly helped drive that interest, but she enjoyed her forensics class so much that she decided to study forensic science in college. She received her bachelor’s degree from Bay Path University in Massachusetts and then continued on to earn a postbaccalaureate certificate in medical laboratory science. Today, Westcom works as an autopsy technician for the University of Vermont Medical Center and as a medical technologist at Northwestern Medical Center. That’s two jobs. And she’s studying to take the Medical College Admission Test. She often works a day shift at one job and then goes to the evening shift at the other, but she likes both—they’re different, unpredictable, and ensure she’s always learning. In the lab, it’s not unusual to see her sitting at a microscope looking at a peripheral blood smear or a wound culture smear, analyzing for abnormalities. Each day brings different cases, new diagnoses, and new people. No matter what, she still loves looking through the microscope.

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For some reason, it’s hard to convince people that there’s no connection between the two, that “looks don’t dictate intelligence,” Westcom explains, so she has this advice to all young women: ignore them. “Do not let others dictate how far you will go,” she advises. “Of course there are negative stereotypes out there but they do not need to apply to you.”

In other words, just believe in yourself and keep on moving. One tactic that Westcom believes makes this easier is finding women in science, technology, engineering, and math fields to serve as role models. “There are women who have been through so much, have been in your shoes, and know what it is like, and they are more than happy to see you succeed,” she says.

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