This story was written by Megan Hanks and first appeared on news.umbc.edu

During the COVID-19 pandemic, internet access has become more critical, with people relying on it to work, learn, and connect with family and friends. However, the internet is not equally accessible to all people. UMBC’s Foad Hamidi recently received a collaborative Rapid Response Research (RAPID) grant from the National Science Foundation (NSF) to increase high-speed wireless internet access to communities in Baltimore.

Not having access to the internet has heightened existing inequities during the pandemic, says Hamidi, assistant professor of information systems. “It impacts families in different ways, whether it’s related to education, employment, or social connections,” he explains.

Hamidi will collaborate with the Digital Harbor Foundation, Project Waves, and other community groups to increase the accessibility of wireless internet that is both free and secure. 

Building and sustaining networks

The Digital Harbor Foundation (DHF) is a Baltimore-based tech center that enables youth to learn about technology through hands-on learning, including through a well-equipped makerspace. Project Waves is a non-profit organization that provides pay-what-you-can broadband internet to communities in need. Their work with Hamidi will focus on supporting residents who want to get internet access set up in their homes and to study the impact of having this access.

Hamidi and his collaborators will work with other groups to amplify free and secure wireless internet in accessible spaces, such as libraries and community centers. For some groups, this work will be new. For others, the grant will allow them to speed up work they’ve already been doing.

Importantly, Hamidi notes, the community organizations will help sustain these networks over time. “The pandemic has amplified the need for internet access, but it will continue after the crisis,” he says.

“The COVID-19 crisis is a complex and multifaceted phenomenon that amplifies the inequities already present in our societies,” explains Hamidi. “In this project, we are taking into account both the social and technical aspects of providing free and secure internet access to low-income communities. More broadly, we look forward to better understanding how participatory approaches to internet access can address issues of inequity arising from the digital divide in our cities.” 

Increasing access to computing skills

Hamidi’s project is also part of a larger effort, based at UMBC, to expand access to basic computing skills among students in Baltimore City as well as nearby Montgomery County. This is the goal of Megean Garvin, director of research and assessment for the Maryland Center for Computing Education (MCCE).

The COVID-19 pandemic has pushed the issue of computing education to the fore, as more and more students and educators recognize the value of computing skills in this time of physical distancing. However, Garvin says, the teaching workforce needs professional development to not only use technology, but be able to create their own computer science curricula and classroom resources. 

The MCCE, initially funded by Maryland in 2018, has worked to provide professional development in computing for teachers across the state and has begun to transform teacher preparation as well. By the 2021 – 2022 school year, all public high schools in Maryland will be required to offer a high quality computer science course, and elementary and middle schools will be expected to integrate computer science into their curricula. The MCCE is working to help teachers and schools reach that target and have confidence in the quality of their computer science offerings.

To ensure teachers can be successful in providing students with computing education, Garvin notes, it is essential to take into account the “digital divide,” particularly in Baltimore City. Even with the most advanced training and support, computing teachers can’t be effective if their students can’t access computing devices and, as Hamidi’s work highlights, the internet. 

Computing education ecosystem

In response to this challenge, the MCCE and partners created the Baltimore City Computing Education Ecosystem Workgroup. This partnership includes the University System of Maryland, UMBC, University of Baltimore, Baltimore City Community College, Morgan State University, and Towson University, plus Baltimore City-based organizations such as the Digital Harbor Foundation and Code in the Schools. Their goal is to develop and deliver on strategies for a robust computing education for students from pre-kindergarten to high school, in the context of COVID-19 and remote learning.

In addition to the grant Hamidi has received to work in this area, Garvin has been awarded a two-year grant from the Spencer Foundation to study the Baltimore Urban Computing Education Ecosystem’s response to COVID-19. 

The Engineering and Computing Education Program in UMBC’s College of Engineering and Information Technology has also developed a similar computing education partnership in Montgomery County. There, UMBC at the Universities at Shady Grove is working closely with Montgomery College and Montgomery County Public Schools to support a culture shift in computing education. As in Baltimore, they hope to provide technology access and learning opportunities in computing for all students.

“Access to reliable and affordable internet connectivity has become a new necessity in our dynamic and information-rich century,” says Hamidi. “We need to investigate conditions necessary for communities to have an active role in shaping, creating and taking ownership of the technologies they need.” 

Banner image: Foad Hamidi. Photo by Britney Clause.

This story was written by Megan Hanks and first appeared on news.umbc.edu

Dipanjan Pan, professor of chemical, biochemical, and environmental engineering, has received two new grants from the National Institutes of Health to support research poised to improve COVID-19 testing. 

Pan and his team recently developed an experimental diagnostic test to rapidly detect the novel coronavirus causing COVID-19, potentially as early as the first day of infection. The test shows results visually, through a color change visible with the naked eye when the virus is present. Their preliminary results were published in the journal ACS Nano, and the biosensors behind this work have generated substantial academic and commercial interest.

Pan received funding from the National Institute of Biomedical Imaging and Bioengineering (NIBIB) to support the development of a mediated colorimetric biosensor. This technology greatly reduces the possibility of misinterpreting the results of COVID-19 sensing tests. 

“These awards are very timely. Two back-to-back grants from NIBIB will help me to further develop and optimize the technology and help cover the cost for conducting a clinical study for validation purposes,” says Pan. “The key here is the fine balance between the accuracy of the results and the ability of the testing platform to provide a rapid response.” 

The second grant will support Pan’s work to develop a COVID-19 diagnostic platform that will work like a home-based glucometer. Currently, with limitations in sample collection and transportation, it often takes several days for patients to receive their COVID-19 test results. The delay between when the test is taken and when the results are available can lead to the continued spread of the virus. 

To reduce the time between when a person takes a COVID-19 test and receives their results, Pan will develop a test that includes an electrochemical biosensor that can detect the virus in about 3 minutes. If patients can receive their results within minutes of taking the test, Pan notes, they can quickly self-isolate and avoid exposing others to the virus.

Pan explains that the test will limit the possibility for inaccurate results. “We adopted a molecularly targeted approach to detect RNA from the virus. Since every living organism has unique RNA, targeting a distinctive genetic material of COVID-19 causative virus SARS-CoV-2 ensures remarkable accuracy and specificity,” he says.

In addition to his appointment at UMBC, Pan is a professor of diagnostic radiology and nuclear medicine and pediatrics at the University of Maryland School of Medicine as part of his dual appointment with the University of Maryland, Baltimore.

Banner image: UMBC’s Interdisciplinary Life Sciences Building. Photo by Marlayna Demond ’11 for UMBC.

Kathryn McKinley, a medievalist and Professor of English at UMBC, discusses the eerie similarities in how the rich reacted to the bubonic plague in Boccaccio's The Decameron and the pandemic today. Dr. McKinley writes in The Conversation: "Boccaccio wanted to challenge his readers, and make them think about their responsibilities to others. "The Decameron" raises the questions: How do the rich relate to the poor during times of widespread suffering? What is the value of a life?" 

This story was written by Sarah Hansen and first appeared on news.umbc.edu

Kathleen Hoffman, professor of mathematics and statistics, thrives on solving puzzles. She has spent her career working to create and refine mathematical models of notoriously complex biological systems. For the last decade, she and colleague Katharine Gurski at Howard University have been working together to model the spread of HIV. Now, the pair has received two new grants to support their work.

Funding from the National Science Foundation (NSF) will support their efforts to improve the model of how HIV spreads between people. A grant from the Center for Undergraduate Research in Mathematics (CURM) will support work to model how HIV infects cells in the body and develops resistance to drug treatments.

Pieces of the puzzle

The CURM grant will support undergraduates in Hoffman and Gurski’s labs to model how HIV behaves inside the body. In particular, they want to know how it responds to a common treatment known as highly-active anti-retroviral treatment (HAART). 

“Some strains of HIV are less likely to respond to treatment,” Hoffman says, “and when patients don’t follow the treatment regimen carefully, that can also lead to resistance.” If a person’s HIV becomes resistant to their current treatment, they can more easily pass the infection to others. So a better understanding of the presence of drug resistance in the population is critical to building accurate population-based models of HIV spread. 

Hoffman enjoys working with undergraduates to give them exposure to research. Rebecca Laws ’21, mathematics, and Michael Klos ’21, mathematics, will work with her on this project. 

“How can you expect people to enjoy research, if they don’t know what it is?” Hoffman asks. She says being accountable to students and their projects also helps keep her own research on track. “It accomplishes small but meaningful things toward my research that I might not do if I wasn’t working with a student,” she says. “They each contribute their own piece of the puzzle.”

Refining the model

Hoffman and Gurski’s previous collaboration on an HIV-transmission model included factors like demographic information and sexual behavior. Through their new NSF grant they will make the model more precise by incorporating two more major factors. They will account for the role of long-term relationships and usage of PrEP, a drug that reduces one’s risk of contracting HIV when taken every day. Hoffman’s Ph.D. student, Sylvia Gutowska, is taking the lead on the PrEP modeling.

Classical models of disease spread treat people “basically like molecules in a gas, where they’re moving all over the place, and there’s some probability that they will touch each other. And then, if they touch each other, there’s some probability that one will pass the infection to the other,” Hoffman says. “That’s the underlying assumption of all of these models.”

But the analogy between people and molecules breaks down when you start looking at complex human behaviors. For example, long-term partnerships dramatically reduce the likelihood of risky encounters between individuals. 

Using PrEP adds more complexity. When taken regularly, PrEP reduces the likelihood of a person passing the disease to someone else. But research shows that if someone is taking PrEP, they are also more likely to behave in riskier ways. And if they forget to take their daily dose, they’re at higher risk again temporarily.

These factors “make the modeling way more complicated from a mathematical perspective,” Hoffman says. Incorporating those two parameters will be the primary work of the NSF grant.

Hoffman and Gurski also want to validate the new model they develop. To do that, they’ll give the model real data from 2005 on disease rates, and then see how well it is able to predict disease rates a few years later (e.g. 2010 and 2015). Because these data already exist, they’ll be able to compare the real data to the model’s predictions.

Informing disease prevention

Once they have an upgraded model, the researchers can test individual parameters in the model to see which would have the biggest effects on the level of disease in a population. This can then inform public health decisions.

“By measuring the sensitivity of the parameters, it’s kind of like looking for the biggest bang for your buck in terms of resource allocation,” Hoffman explains. “For instance, if you have money to put toward an education campaign, should you put it toward making sure people take PrEP diligently? Or will it have more of an impact if you put it toward promoting condom use? Which will have a bigger impact on decreasing the amount of disease in society? That’s the kind of question this kind of work can usually answer, if the model is accurate.”

But even figuring out what the parameters are to begin with can be very difficult. The work goes way beyond math into HIV biology and even the sociology and psychology behind people’s behavior and relationships.

It’s hard, “but what I like about science and research is the fact that I’m not constrained by siloes. Sometimes I have to go read literature in the psychology and sociology fields, and I have to read biology papers that I struggle through,” Hoffman says. “That’s why I like it, because I never know what I’m going to need to learn next.”

Banner image: UMBC Biological Sciences Building. Photo by Marlayna Demond ’11 for UMBC.

This story was written by Megan Hanks and first appeared on news.umbc.edu

UMBC researchers will collaborate with the Chicago-based MxD to develop a curriculum and online platform for manufacturing professionals to increase their cybersecurity skills and to protect manufacturing plants from cyber breaches. The work is funded by a $650,000 grant from the Office of Economic Adjustment, under the U.S. Department of Defense. 

MxD is one of 14 federally-supported institutes known collectively as Manufacturing USA. It has awarded millions of dollars to research and development projects across 35 states to advance U.S. manufacturing practices and increase global competitiveness. This UMBC collaboration will be the first initiative focused on increasing manufacturing workers’ knowledge of cybersecurity.

The content of this program is completely new, as there are no existing platforms that focus on the intersection of cybersecurity and manufacturing, says Nilanjan Banerjee, principal investigator on the grant. 

Banerjee, professor of computer science and electrical engineering (CSEE) at UMBC, shares, “The program will accelerate training of practitioners in the manufacturing industry in cybersecurity. It will also expand UMBC’s impact on cybersecurity education in the manufacturing sector.”

Intersection of cyber and manufacturing

Banerjee will collaborate with a number of colleagues at UMBC to develop a curriculum tailored for people who already work in the manufacturing industry. Project co-PIs include Donna Ruginski, executive director of cybersecurity initiatives at UMBC, and Keith J Bowman, dean of UMBC’s College of Engineering and Information Technology. Alan Sherman, professor of CSEE; Linda Olivia, assistant professor of education; and Megean Garvin, director of research and assessment for the Maryland Center for Computing Education, will assess the curriculum developed to ensure it meets program goals.

Bowman helped establish the connections between UMBC and MxD, and is eager to watch the work develop. “This project fully leverages MxD, UMBC Training Centers, and UMBC assets in cybersecurity, manufacturing, and training,” says Bowman. “I have known MxD team members, including Federico Sciammarella, president and chief technology officer of MxD, ever since its origins, and I look forward to building on this collaboration.”

The first step of the multi-phased project will identify the skills most needed to protect manufacturing facilities from cyberattacks on their computer systems and machinery. UMBC and MxD will create a short-term training program for manufacturing professionals to develop these skills. 

“People will come out of this program with a certification that shows they have the tools to be successful in a cybersecurity role in manufacturing,” said Lizabeth Stuck, senior director of MxD Learn, the institute’s workforce development arm. “This has the dual benefit of upskilling workers who may be sidelined during the COVID-19 crisis and increasing the security of U.S. manufacturers from cyber-attacks.”

Addressing current needs

Banerjee explains that the recent COVID-19 pandemic has led to increased unemployment and a need for more opportunities for workers to quickly expand their skill sets. With this in mind, the program will be designed for workers to complete in less than a year and through a web-based format.

For maximum flexibility, the platform will offer both synchronous and asynchronous material. It will be launched and led by UMBC Training Centers, a not-for-profit owned by UMBC that offers professional and technical training in areas such as cybersecurity, project management, and leadership and innovation. The platform will likely launch in late January 2021. 

“This program will have a direct impact on the Defense Industrial Base Supply Chain,” says Ruginski. “It will create a robust workforce that has the cybersecurity skills required to assist companies in staying secure in the fast-paced cybersecurity manufacturing industry.”

Banner image: Nilanjan Banerjee. Photo by Marlayna Demond ’11 for UMBC.

This story was written by Sarah Hansen and first appeared on news.umbc.edu

More and more U.S. states, from Texas to Maine, are increasing their capacity to produce fish for human consumption in land-based facilities. These operations are less susceptible to disease and result in fresher fish for locals. They also remove the risk of releasing waste or farmed fish to the environment, and reduce costs and the carbon footprint associated with shipping. Plus, they create jobs and help decrease American reliance on seafood imports.

Decades of research led by Yonathan Zohar, UMBC professor of marine biotechnology, have led the way for these paradigm-shifting developments. For example, he is the lead on a large grant from the National Oceanic and Atmospheric Association (NOAA) National Sea Grant program designed to build capacity for land-based Atlantic salmon aquaculture in the U.S. The effort, known as the Recirculating Aquaculture Salmon Network (RAS-N), is a public-private partnership that includes academic research institutions, federal labs, and industry partners from across the country.

Zohar conducts his work in the Aquaculture Research Center (ARC) at the Institute of Marine and Environmental Technology (IMET) on Baltimore’s Inner Harbor. Work at the ARC pioneered many of the land-based aquaculture techniques now used around the country and the world.

Now, that work is coming back home.

A new take on “buy local”

AquaCon, a company led by Norwegian aquaculture leaders, is currently marshaling funds for a massive land-based Atlantic salmon aquaculture project based on Maryland’s Eastern Shore. In phase one, the company will invest $300 million, and the facility will produce 15,000 metric tons of fish. By phase three, the investment and output will triple. And that’s just for the aquaculture operation itself. The facility will also support job creation and economic development through affiliated industries, like seafood processing and distribution.

AquaCon executives visited IMET and the ARC in November 2019 and again in February 2020, and were struck by the many ways that UMBC, IMET, and AquaCon could work together to make the venture a success for everyone. When they toured the ARC, “They were very excited about our innovative aquaculture platforms,” Zohar says, enthusiastic to see every feature. “Now I regularly communicate with the group to help them develop the design and biological planning for the Eastern Shore operation.” 

UMBC and IMET executed an MOU with AquaCon, stating their intentions to collaborate and how they will work together. In a recent announcement about the company’s aquaculture vision, AquaCon specifically stated that UMBC and IMET were one major reason for their decision to select Maryland for their aquaculture operations. 

Staying on the forefront

“For a company like AquaCon, there is a huge amount of competition,” Zohar says, “and the companies who are going to succeed are those who are at the forefront of the technology.” That’s another reason for AquaCon to choose UMBC as a strategic partner. “IMET will be in the new operation’s backyard, so we can do sponsored research for them to keep them on the forefront of the field,” Zohar says.

Workforce training is another critical element of the relationship. Tom Sadowski ‘89, political science, vice chancellor for economic development for the University System of Maryland, discussed opportunities with the AquaCon executives when they visited IMET. For example, students will likely get the chance to gain hands-on training at the Eastern Shore facility, and AquaCon could fund employees to pursue training and degrees through UMBC at IMET.

“Workforce development for this booming industry is a very important component to the NOAA-funded RAS-N consortium,” Zohar says.

Filling in the missing link

One thing is inevitable in a land-based aquaculture facility, besides lots of fish: lots of fish poop. Kevin Sowers, professor of marine biotechnology, and Zohar have that handled, too. They invented a system to convert organic waste (affectionately known as “sludge”) in the fish tanks to fuel-grade methane. This technology, abundantly tested and optimized at ARC and already scaled up in the Norwegian salmon industry, can generate enough energy to offset about 10 percent of the operation’s energy costs.

The duo formed a company, Silfra BioSytems LLC, that will focus on improving and scaling up the waste conversion technology. They named the company after a pristine Icelandic lake to emphasize the result of the process—clean water. Their invention completes “this missing link for how you responsibly and biologically remove the huge amounts of solid waste,” Zohar says, “And in the process, you generate biofuel.”

The right model

On top of these developments in tech transfer, Zohar recently received a substantial National Science Foundation grant for his basic research on fish reproduction. The NSF fully funded the grant, which is for four years and a little over a million dollars. 

Zohar’s basic research will influence the aquaculture industry, because if you can precisely control when fish do and do not reproduce, you can create a system where fish are constantly reaching market size. On top of that, fish that are not preparing to reproduce grow muscle faster and have immune systems that are more robust.  

The research could also have implications for human health. For various reasons, “Fish are one of the best reproductive models for humans,” Zohar says. “You cannot even use rats or mice for this type of research. So it has a lot of interest from that standpoint as well.” A better understanding of the causes of infertility, for example, could be on the horizon.

A perfect storm

For IMET and the ARC facility, “It’s a perfect storm in a good sense, because everything is falling in place now,” says Zohar. “I’ve been working in Maryland for almost 30 years, and we’ve been developing a lot of these technologies. Our mission is research, education, and economic development, and we have been working to create connections between academia and industry to fulfill that mission.” And projects long underway are now bearing fruit.

Land-based aquaculture, in particular, has seen a huge rise in interest of late. “We’ve been working on this for 15 or 20 years. People said we were ahead of our time, but now things are happening,” Zohar says. “Land-based aquaculture has matured. People believe in it, and it’s going to develop at a large scale.”

Banner photo: Yonathan Zohar at the Aquaculture Research Center in the Institute of Marine and Environmental Technology. Photo by Marlayna Demond ’11 for UMBC.

This story was written by Catalina Sofia Dansberger Duque and first appeared on news.umbc.edu

Governors across the United States have been working to determine what safe reopening might look during the COVID-19 pandemic. When the National Governors Association (NGA) needed experts to outline considerations, they reached out to UMBC’s Lucy Wilson. 

For more than a decade, Wilson has served as a public health expert on disease response and public health planning at the international, national, and state levels. When the NGA called, she joined an interdisciplinary team of experts in developing “The Roadmap to Recovery: A Public Health Guide for Governors,” published this April.

Keeping Maryland safe

Wilson is an infectious disease physician who is also a professor and graduate program director of emergency health services at UMBC. Prior to coming to UMBC, she served as a medical epidemiologist at the Maryland Department of Health, as chief for the Center for Surveillance, Infection Prevention and Outbreak Response for ten years. There she oversaw Maryland’s infectious disease outbreak responses and infection control guidance in all types of settings. 

She has also served on the State’s Physician on Call Team, where she was one of a small group of doctors responsible for assessing potential biological, chemical, and nuclear threats. And she currently is the co-principal investigator of the Healthcare-Associated Infections (HAI) branch of Maryland’s Emerging Infections Program (EIP). Through EIP, she conducts surveillance epidemiology and antibiotic resistance research focusing on healthcare-associated infections (including COVID-19) in hospitals and nursing homes. At UMBC, her research focuses on visualizing health outcomes across the continuum of healthcare.

“I have experience working with stakeholders throughout the state to examine different areas of response…that cut across the spectrum of emergency management and response,” explains Wilson. She notes that this could range from education to agriculture to transportation. “This gave me the perspective to help make recommendations to governors about how to create a team and what type of considerations to have for COVID-19 response.”

Learning from previous outbreaks

The NGA provides governors, cabinet members, Congress, private business, and the international community with guidance related to public policy and governance. To develop a COVID-19 recovery roadmap, Wilson helped assess the various settings impacted by COVID-19. She then applied the science of infection control and disease transmission to help develop criteria to maintain the safety of settings like schools, hospitals, prisons, and nursing homes. 

Wilson’s recommendations were informed by her prior work in infection control, disease surveillance, and government response to outbreaks, diseases, and pandemics at a national and international level. These include responding to the novel influenza A (H1N1) virus pandemic of 2009, Ebola, Zika, statewide food-related outbreaks, and medication recalls.

When it comes to COVID-19, Wilson says, “This level of pandemic is unprecedented in modern times.” She explains, “We can look back to 1918 to see how social distancing worked. We can look at other countries who have had different COVID-19 strategies in terms of their response and reopening. But what we need to be prepared for is that the coronavirus is difficult to control.”

Using available tools

“Governors must respond with tools we know will work, as appropriate to their region, to try to minimize illness,” states Wilson. These tools focus on minimizing physical contact between people, from using touchless purchasing and curbside pickup at businesses to adjusting work schedules to spread out employees.

The Roadmap to Recovery report divides states’ COVID-19 responses into two stages. The first stage focused on reducing the spread of infection through mandated physical distancing in the absence of comprehensive testing, treatment, or vaccines. Closing gathering spaces like schools, businesses, places of worship, and recreation areas helped to “flatten the curve.” 

The second stage involves necessary measures and infrastructure needed to safely open up society. This includes continuous assessments to determine whether to keep moving forward or to return to previous restrictions. 

“This is a multifactorial situation where we will likely see more cases and potentially more waves of disease,” shares Wilson. “It will be difficult to eradicate the coronavirus until we have a vaccine or valid treatment. Hopefully, as we implement and determine best practices, we can minimize the number of infections and deaths.” 

Beyond the report, Wilson also provided support to policymakers as a panelist for a Johns Hopkins University Diagnostic Excellence Summit on COVID-19. The summit focused on “Diagnostic Strategy for the COVID-19 Pandemic — Bench to Bedside to Blueprint for Policymakers.” She is currently helping to develop and implement campus policy as part of UMBC’s Incident Management Team and Fall Planning Coordinating Committee.

Informing the public

Since the start of the pandemic, Wilson has also provided guidance to the general public on how to take precautions to reduce coronavirus transmission. “People are being asked to take very drastic measures, which have radically changed their lives,” she says. She takes the time to speak with the media because she knows it is essential for people to understand the reasoning behind public health guidelines. 

In March, Wilson explained the need for sufficient protective equipment for healthcare workers in the New York Times. When the virus began to impact cruises she explained the quarantine process in the Washington Post. 

When COVID-19 testing became a public concern and broader restrictions began to be implemented, Wilson helped Maryland and Washington D.C. residents understand these issues. She contributed to several additional articles in The Washington Post. This included coverage on increasing restrictions, testing issues, the rising rate of infection, contact tracing, and the closing of gathering spaces. 

“It is important to know what is science and what is reasonable. People want to know what actions people can take to take care of themselves,” says Wilson. Wilson was a guest on the Public Health On Call podcast, produced by Johns Hopkins. She spoke about how nursing homes and first responders can address the threat of COVID-19. 

Wilson has also offered guidance on what people can do on an individual level. She addressed issues with physical activities like golfing and running. In the Huffington Post she discussed how to properly remove disposable gloves and why they shouldn’t be reused, what to do about jewelry and beards to avoid disease transmission, and reusing face masks. And in The Conversation, Wilson wrote about the matters to consider after a loved one dies from coronavirus, to avoid further infection.

How to begin reopening

Wilson has now also begun speaking with news agencies, including CNN. She shares what the process of reopening the country might look like. Leaders are learning how to manage rapid changes on a daily basis in all aspects of life, beyond just healthcare. 

Wilson expects that, moving forward, some interventions will work better than others, and communities will learn from each others’ experiences. “This is an evolving process. There will be changes in recommendations and information. Our understanding of this virus is that it affects everyone and every sector of our society,” says Wilson. “We need to have patience and be flexible because we are all learning as we go along.”

Banner image: Lucy Wilson. Photo courtesy of Wilson.