Center for Applied Proteomics and Molecular Medicine

Podcast — EP 69: A small cup with big impact in the fight against Lyme disease

One small bite from a deer tick can lead to debilitating symptoms and a lifelong battle with Lyme disease. At George Mason University, researchers are developing innovative diagnostic technologies that are changing the landscape of Lyme disease detection. 

In this episode of the Access to Excellence podcast, George Mason President Gregory Washington speaks with Alessandra Luchini, professor in the School of Systems Biology in the College of Science, about the development of cancer and Lyme disease detection technologies and the importance of international collaboration in scientific progress.

One tick can transmit many, many diseases, upwards almost 20…there are terrible viruses, encephalitis generating viruses and they’re very lethal. So we can, with the same approach, in one very small cup of urine, identify all of this. — Alessandra Luchini

Read the Transcript
Intro (00:04):
Trailblazers in research innovators, in technology, and those who simply have a good story: all make up the fabric that is George Mason University, where taking on the grand challenges that face our students, graduates, and higher education is our mission and our passion. Hosted by Mason President Gregory Washington, this is the Access to Excellence podcast.

President Gregory Washington (00:27):
It wasn’t long ago that we were all regulars at the Fenwick COVID-19 testing site, participating in saliva-based COVID-19 test, actually developed by George Mason researchers. And now with innovation comes further questions. What else can we detect and diagnose now? Alessandra Luchini is a professor in the School of Systems Biology in the College of Science. Her research focuses on developing technologies that improve current diagnostics and therapeutics for diseases, including cancer and inflammatory and infectious disease. Alessandra, welcome to the show.

Alessandra Luchini (01:10):
Thank you very much for having me.

President Gregory Washington (01:12):
Your Mason journey began in 2005 when you came here from Italy on a research fellowship to do cancer research, but your training is in engineering. So what led you to the field of diagnostic testing?

Alessandra Luchini (01:29):
I love, uh, the diagnostic challenge, uh, to me is like solving a puzzle, piecing together different clues to try and solve the final mystery: who done it, right? What, what is it that causes this ailment, this illness, uh, this terrible, uh, symptoms in the diagnostic journey. I hope to learn something that, uh, explains how the disease develops. Ah, diagnostics and, and new research in it is at, in the intersection between science, innovation, patient care. So 20 years in it. I find it very rewarding to be able to do a research that has very concrete, practical impact in the life of people.

President Gregory Washington (02:16):
You know, you came to the US to do research. What were your thoughts? What made you move?

Alessandra Luchini (02:20):
Right, I was chasing the dream! I, I had a plan. I, I wanted to come here, stay six months, solve the sole cancer issue, um, make my parents proud and come back. And what I realized when I came to Mason is that the tools and the technical aspects of the research were not completely figured out. And as humbling as it was, I found it to be an excellent challenge. And having an engineering background, I’m kind of wired of finding a problem, try to identify a solution, and, and I really embrace this, this new challenge. And I found an excellent environment with my directors, doctors Liotta and Petricoin, that foster creativity and, and finding new solutions. And great, uh, in involvement and synergy from the local biotech companies, students, different scientists, international collaboration. So, I loved it.

President Gregory Washington (03:20):
So you came in, you had a project, that’s what got you here. There was some set of outcomes that you were hoping to achieve.

Alessandra Luchini (03:30):
Mm-hmm . Mm-hmm .

President Gregory Washington (03:31):
What were you hoping for? What kind of outcomes did you think you would get with the cancer diagnostic research that you started, uh, when you came here?

Alessandra Luchini (03:39):
Absolutely. So the, the, the goal and, and the reason why Italy sent me out here, and the reason why I was collaborating with all the C-A-P-M-M scientists was to develop a test, a blood-based test or something that is really non-invasive, that could tell us who was going to get cancer. And so this was a cancer risk kind of test. So we could identify people very early before they had any clinical signs and implications. And as, uh, the name of the center says we were focusing on proteomics, and this is kind of a phenotypical way of looking, um, at the patient’s molecular information. And it is a little bit of the difference between a, uh, let’s say a football playbook and, and the football players right?

President Gregory Washington (04:27):
.

Alessandra Luchini (04:27):
Looking at, at proteins. These are the guys who do things, who carry the actions. And that’s what we were looking, and, and by looking at all the complement of these players and, and you know, when they go wrong, then the health goes very wrong. We hope to understand the cancer development and pathogenesis, so to, for those protein targets to be the drugs of the future.

President Gregory Washington (04:52):
Understood. Understood. Were you able to develop any new technologies during that time?

Alessandra Luchini (04:58):
Sure. Right. Where there is the need, there is an incentive to find a, a novel technology. And it was a very good collaboration. And the Mason scientists were very good at collaborating with the biotech enterprises, uh, around locally and nationally. And so many technologies were developed. My focus was on a specific way, or nanotechnology, a specific way to capture the proteins and the targets we were interested in while isolating the noise. And so in a way, we were stabilizing and amplifying the signal by blocking the background.

President Gregory Washington (05:38):
Wow. I see.

Alessandra Luchini (05:39):
And so this technology then was licensed by a company, and it was kind of very nice way to give back to the biotech community that sparked this collaboration in the beginning.

President Gregory Washington (05:51):
As a member of the George Mason Center for Applied Proteomics and Molecular Medicine, you supported the work on developing George Mason’s novel saliva testing for COVID-19. What was it like being a researcher during those early months of the COVID-19 pandemic?

Alessandra Luchini (06:09):
It was a very intense time, right? The pandemic does bring back very hard memories of hardiness and commitment. I was very fortunate that I was allowed to go to work, right? And, and because of that, my experience might have been different than many others. There was no, not an hour of remote work. I was here. I felt I had the chance to help the community. I have two young kids. And so in the mornings I was trying to guide them through the online learning from the elementary school. And then in the afternoon I would come to the lab, put my lab coat on, and, uh, and give a little contribution to the, to the testing and the lateral flow. So like a, a rapid test that could tell who had the antibodies for COVID, so who was exposed to the disease. And so it was like this sense of purpose and helping the community that helped me plow through this, uh, exhaustion. I have to say that for the safety of the very same community, it was very good that going home, I had the highway for myself. .

President Gregory Washington (07:19):
Yeah. You didn’t have to worry about traffic and all of that stuff. I remember that. You actually worked to develop the, uh, global partnership at that time, right? Between George Mason and the University of Padua in Italy. During COVID-19, you worked closely with the Italian microbiologists to help develop the test. And so how did this international collaboration work and how did it impact the actual saliva testing apparatus that we were able to develop here?

Alessandra Luchini (07:49):
Uh, it was extremely helpful, right? Italy was a bit ahead in the pandemic just for the geographical reasons. And it was good. It was a very productive exchange of samples of, uh, epidemiology information on, uh, uh, patients behavior and given the differences in the environment. But all this information and these specimens and this know-how really help us speed up the technology, the testing, and make it a better product.

President Gregory Washington (08:20):
Mm-hmm . Mm-hmm . Has the collaboration continued? Is it still ongoing since the COVID-19 pandemic has formally ended? Are you still working with the same group?

Alessandra Luchini (08:31):
Yes. I am very keen in international collaboration, and the group in Padua is very dear to, to my heart, and it’s good to keep the relationship, uh, with your old school friends, right? So with Padua, we continue, we have a class where we bring Mason students to study translational medicine in Italy. Uh, we continue studying tuberculosis. We study sickle cell diseases, and we leverage the collaboration with scientists who have a global footprint of research operation. But then with tropical infectious diseases and tuberculosis and Chagas disease, the collaboration goes beyond Italy. And we collaborated with scientists in Nepal and in, uh, Guinea-Bissau and, and Peru, Bolivia. So…

President Gregory Washington (09:20):
That’s pretty cool. So, so why, why is it important to have these global connections? When you’re talking about the development of new detection and diagnostic technologies?

Alessandra Luchini (09:31):
There is a geographic factor that is very important. So one, as COVID taught us, the diseases don’t respect borders. Right? .

President Gregory Washington (09:41):
That’s right. Doesn’t care about boundaries. , that is very, that was very clear. So being global enabled you to look at diagnostics from the perspective of needs that different countries may have. That we may not have here and then you’re able to take those needs and, and then develop technologies that will also be useful here in the us. Right. So last May you got 1.2 million federal research dollars to support Lyme disease detection and diagnosis using urine as a framework, right? I assume that the work that you had been developing with these global partners enabled the development of this test, which we are now using in the US. Is that, is that accurate?

Alessandra Luchini (10:31):
It’s absolutely accurate. Uh, and that’s really the whole, uh, story, right? We, we understood what limitations can be outside the US and then with the lessons learned, we developed technology and that didn’t require any infrastructure. And abating costs is good. And the important thing is that we see it maintains accuracy. So there is complete integration with the high complexity clinical lab, but without the need of that cold chain, very expensive freezers and refrigerators. Um, and, and in particular this, uh, collaboration, yielded a different technology, which is a specific urine collection cup that allows us to stabilize, um, the molecular content of urine with no technology, no laboratory infrastructure, no power, right? Because a lot of the country we were tried to do research with for many months a year, they don’t have power. And so this, this collection cup allows us to measure accurately diseases and disease markers without a lab, without power. And so, although it was developed for underserved countries, this we hope will be something that can be integrated also in the US uh, system and with some kind of telehealth model where there is not the need for the patient to go to the lab to donate the sample, but kind of the lab goes to the patient and then is embedded in this telehealth model. It is just–

President Gregory Washington (12:04):
So you’re able to do all of this accurate tests without the significant infrastructure of a lab. So I assume that means that people can use it in the home.

Alessandra Luchini (12:14):
The, it, it’s a collection that is a home, a point of need collection and then is shipped at the room temperature.

President Gregory Washington (12:22):
Oh, wow.

Alessandra Luchini (12:22):
Where scientists–in the beginning, scientists are working on the test, and then in the future, yes. Uh, we hope that it will be a home, from the beginning to the end home solution.

President Gregory Washington (12:32):
Okay. I, I hear you. So let me back up for a minute. For our listeners who are unfamiliar with Lyme disease, uh, can you explain what it is, its symptoms and transmission and why it is so dangerous?

Alessandra Luchini (12:47):
Sure. Lyme disease is a, an infectious disease that this is transmitted by the blacklegged tick, which is the deer tick. We have many in our backyard in this area, unfortunately.

President Gregory Washington (13:00):
Because we got a lot of deer , my goodness, they are everywhere.

Alessandra Luchini (13:04):
And deer are intimately connected to it. People saw that in islands where there is no deer, there is no Lyme disease. Huh! So no tick, no Lyme disease. So because of the involvement of our, the environment and the wild animals, a um, Lyme disease is an interesting disease also from the one health perspective. Right. But, um, anyway, when a tick who has that, has the bacterium, and it’s called Borrelia burgdorferi, bite us, then it transmits the bacterium to the host to, to the human. And then the bacterium goes from the skin to the blood, and unfortunately from the blood it goes all over the body. And it, the bacterium likes to hide in organs, in places like the knees and the joints, the brain, the heart. So a minimal thing, like a tick bite, the infectious not treated correctly, for a small percentage of people can result in heart transplant. Very debilitating arthritis and, and joint pain, very difficult mobility, the need for a lot of joint replacement and, and brain fog. But to the point that is very debilitating. And when it happens to a young person, people have to drop college. They drop school. When it happens to an adult, they have to drop work. So it’s, um, it’s a simple solution. We just need to know who has it and treat it. And unfortunately, the–

President Gregory Washington (14:32):
So, so it is treatable if you catch it, right?

Alessandra Luchini (14:34):
Yes.

President Gregory Washington (14:35):
So what this test can do is literally be revolutionary in terms of helping us manage this disease. Is that accurate?

Alessandra Luchini (14:44):
Well, we certainly hope so, right . But yes, the test looks for pieces of the bacterium that are shed in our bodily fluid. And, and these are pieces that can come only for these bacteriums, that, that is, there is no overlap with the microbiome. There is no overlap with our molecular content, it is just from the bacterium. And by knowing if we harbor this infection early, we can treat it. And, and the treatment is successful. However, we are also using this, uh, this test to learn what it is that cause all this, uh, terrible chronic symptoms. And again, like cancer, like, uh, tuberculosis, we hope to be able to identify this pharmacological targets, this, this future ways of treating, also the long-term consequences. And yeah, again, Lyme is very similar to long COVID in terms of the damage, the persisting damage that does to people. And we have some ideas.

President Gregory Washington (15:46):
Hmm. That is interesting. So talk to me a little bit about how did your work in cancer detection and the COVID-19 detection correlate to discovering a new method for Lyme disease detection?

Alessandra Luchini (16:00):
Mm-hmm . And it’s very similar problem. We are looking for very rare labile signs, right? Almost like writing your name on the sand, and when the wave comes, this trace is gone. And so equally for, uh, for the cancer and, and for Lyme disease, we are looking at something very fragile in the bodily fluid. And, and the same approach of capturing and preserving and concentrated this, uh, very fragile biological traces, has held the same value for cancer and for the Lyme disease. And so it’s like really finding the classic hay, um, needle in the haystack, but with the complication that the needle is being eaten very quickly by something. Yeah.

President Gregory Washington (16:46):
So why is early detection important?

Alessandra Luchini (16:48):
Early detection is very important because it can result in better outcome for the patients, their family, um, the healthcare system, right? And we hope to push it even further to prevention, right? And, and it’s always better to treat a, a disease at the very beginning where the implications are minimal and the outlook for a therapy is much better. And, and that’s true, you know, for cancer and all the programs for imaging and screening. And, and that is true also, um, for the infectious diseases.

President Gregory Washington (17:22):
So can this work be applied to other diseases? I assume that there may be other things transmitted through ticks or other types of diseases in general. What else are you looking at?

Alessandra Luchini (17:34):
Absolutely. One tick can transmit many, many diseases, upwards almost 20. Luckily, they are much less widespread than Lyme disease and any, and in one, uh, embodiment of the test, we do test for all the other diseases. And, and there are names that are less known, probably babesiosis, Rocky Mountain spotted fever–

President Gregory Washington (17:57):
That one is actually quite common, right? I I I’ve heard of that one.

Alessandra Luchini (18:01):
And, and maybe in different areas, right? Not necessarily in the, in the East coast. And so all of that, there are terrible viruses that they are encephalitis generating viruses, and, and they’re very, actually very little. So the, so we can, with the same approach in, in one, uh, very small cup of urine, identify all of this, but then it can transcend the ticks and look for other vector borne diseases: mosquito borne diseases. But the reality is that it can be a solution for also other diseases at all. For example, we are collaborating for predicting a pain crisis for sickle cell disease children. And, and so the, the idea being that by monitoring the wellness or, or signs and, and alarm signals in the body, we can monitor the wellness and, and hopefully predict when something bad happens.

President Gregory Washington (18:52):
So what about moving over to the veterinary side of the house? Are we able to detect diseases in animals using some of the same techniques?

Alessandra Luchini (19:01):
Absolutely. For the fact that we target the bacterium and so the causative agents of disease, that’s exactly the same. And, and our friends, our pets also, uh, different animals, they do harbor the same bacterium. So it’s absolutely translatable to animals. And it’s actually is at the heart of how this Lyme test came to be. And the whole idea came from a high school summer intern who came to work in the lab many years ago, and now she has, you know, her PhD, and a beautiful family. and her name is Temple Douglas. And Temple wanted to do something for her family that was highly hit by Lyme disease. Her mom, her sister, they had terrible time dealing with it. And so she came in one summer in high school, she developed a test, she published a paper. She was the first author.

President Gregory Washington (19:55):
Oh, first author!

Alessandra Luchini (19:55):
On the publication. She did it.

President Gregory Washington (19:57):
Nice.

Alessandra Luchini (19:57):
And, uh, and the first patient who was published, it was her dog.

President Gregory Washington (20:02):
patient number one. Outstanding. Outstanding. So you were honored by the State Council of Higher Education, which we call here SCHEV, with a 2023 outstanding faculty award. How does your work as a researcher inform your teaching philosophy?

Alessandra Luchini (20:23):
Teaching and, and research, I believe they’re intimately connected. And, and to me, it is difficult to think of one without the other. And I do love, uh, working with students and, and, and students are kind of the reason I get out of bed and the way I feel it’s more effective to teach is working together, learning as we do, learn as we solve an issue, as we–even put our brain together to identify the issue. And, and the, the teaching involves knowledge, but involves also creativity and resilience and collaboration, and how to be professional. So it becomes like a, a different experience. Yeah.

President Gregory Washington (21:07):
Mm. Understood. Understood. Pre pandemic, the partnership with the Italian universities we spoke about earlier, included a class on translational research with students from both George Mason and the University of Padua. What do students gain from this kind of cross-cultural collaboration in the classroom and beyond?

Alessandra Luchini (21:28):
Based on the feedback we received, I think they gather a lot and they were exposed, or they are exposed to leading scientists in their field. And scientists can relay firsthand, um, their experience with that translational research and how to bring the science to the patient bedside and the community. But also there are very interesting and engaging conversation in terms of, for example, the universal healthcare system that Italy has and, and has been going on forever, and the US system, and, and what is good and what is bad. And, and there was a great input from patient advocacy groups and, and, and voice of people who live the disease on their skin and their family members. And so the, the conversation was, uh, very sparkly. And of course, the Italians, they do bring a lot of color and hand gesture and passion, but it was also good to have a deep dive in science in the mornings. And then in the afternoon, uh, student could enjoy art and, and, and history and cuisine. So, uh, it’s a, I believe, a, a good model to teach and learn and, and, uh, exchange different visions and point of views

President Gregory Washington (22:46):
In, in terms of our students, what do, what do you hope they learn from engaging on international collaborators? You, you know, we, for lack of a better way of saying this, the connection between US students and foreign students, uh, it’s one of the areas that is challenged right now in the country. And I think we are not paying attention to some of the real benefits of having people from all over the globe come to one place to study and to learn. If you look at the great centers of learning historically have always been like that, right? You can go back to the, the education in, in, in the Greeks, and you go, you know, further into Egypt and into Alexandria. And these centers of learning always drew people from all over. Europe had these great institutions, and during the whole period of enlightenment, people came from all over the world to study in the Europe and learn. And now the US is the place for that. I just think that in all of the back and forth that we’re dealing with now, there is something fundamental there that we’re missing and you engage in this kind of work. So talk to me a little about it.

Alessandra Luchini (24:07):
I cannot say enough how important a global reach for science and research is. And it’s a matter of knowledge, it’s a matter of exchange of samples, exchange of technology, uh, understanding different needs, understanding different realities, and understanding culture, local culture, and how that plays into the overall research enterprise. And science is a universal language, right? And, and, and–

President Gregory Washington (24:36):
That it is.

Alessandra Luchini (24:37):
And, and we can go everywhere and, and cancer hits us in the US like it hits people in, in Italy. And, and the way we can learn what causes it, it’s deeply embedded in this constant exchange. And I hear you very much in Padua, uh, in Italy is a university that was funded in the 1300. And the motto is knowledge is open to the universe. It is the university, and it’s in the world itself. Like it’s a universal, in universe. And the, the very nature of the work we do is global and needs to, to be global, to flourish and move forward.

President Gregory Washington (25:22):
Well, we’re gonna have to leave it there. Alessandra, thank you for your continued work in disease detection so that we can all live healthier, happier lives. And I really, really appreciate the work you’re doing and the impact that it’s having on the planet.

Alessandra Luchini (25:39):
Thank you very much, President Washington. It was a pleasure. Thank you for the opportunity.

President Gregory Washington (25:43):
Oh, outstanding. I am George Mason President Gregory Washington. Thanks for listening. And tune in next time for more conversations that show why we are all together different.

Outro (25:59):
If you like what you heard on this podcast, go to podcast.gmu.edu for more of Gregory Washington’s conversations with the thought leaders, experts, and educators who take on the grand challenges facing our students, graduates, and higher education. That’s podcast.gmu.edu.

Summer 2025 Study Abroad in ITALY – Translational Medicine: From Bench to Bedside to The Community

Study the latest innovations in personalized medicine that have transformed prevention, diagnosis, and treatment. International experts provide examples of exciting laboratory discoveries and translate them to patient bedsides.

New Summer Break Study Abroad Program Translational Medicine: From Bench to Bedside to The Community. See flyer for details below.

Italy-Translational-Medicine-From-Bench-to-Bedside-to-the-Community

Mason postdoc leads scientific breakthrough that could revolutionize cancer treatment

It isn’t often that someone graduates with a PhD and a scientific discovery, but George Mason University researcher Marissa Howard was no ordinary student.

Marissa Howard

Howard, BS Bioengineering ’17, PhD Biosciences ’22, leads a team of scientists who have discovered a way to “eavesdrop” on cellular communications that could revolutionize treatments for cancer and other maladies.

All cells are constantly communicating with other cells using what Howard calls “an internet of molecular information.” Researchers at Mason’s Center for Applied Proteomics and Molecular Medicine (CAPMM), where Howard has worked since she was an undergraduate, are the first scientists to successfully tap into this communications system, which tumors use to trick or block the immune system and attract normal cells.

Howard was recently awarded a $200k grant from the National Cancer Institute to further this work. It is a medical breakthrough that could drastically change the way cancer is treated.

“It’s fun to be able to get to the source of tumors and actually figure out what’s going on there,” said Howard, who completed some of this work as part of her dissertation. “That’s what all cancer researchers want to do—figure out what the tumor is ‘thinking’ so we can get better outcomes for patients.”

Howard and the team have been focused on a component of the cellular communication system called extracellular vesicles (EVs), which are packages of concentrated information housed within tiny membrane-enclosed bubbles. The EVs are shed from the surface of cells and can travel long distances to be received by distant cells, causing a change in the behavior of the message recipient.

In the past, EVs were studied in cultured cells or were captured from a patient’s blood, but the Mason team created a way to study the cancer EVs within a solid living tumor at their source by sampling the interstitial fluid (IF), the wet environment that bathes all cells within tissues. This is the first portrait of the tumor EV communication system at its origin. Their findings, with Howard as first author, were published in the Journal of Extracellular Vesicles.

Their research also showed a dramatic difference in the communication function of the different major types of tumor tissue EVs. The scientists isolated the two major types of tumor EVs and then used nanoparticles, a Nanotrap technology created by CAPMM researchers, to deliver them to a draining lymph node.

Howard said that the treatment of the lymph node with the two separate classes of EVs was associated with dramatic differences in the growth of distance metastasis in the lung. “Repeated tests done in mice proved one class of isolated mitochondrial EVs capable of preventing the metastasizing of cancerous breast tumors while another class promoted cancerous growth.”

The discovery means doctors could more quickly gauge the effectiveness of existing cancer treatments and make real-time adjustments based on the information derived from the cellular communications.

Marissa Howard with CAPMM Director Lance Liotta and College of Science Dean Fernando Miralles at Mason Innovation Awards. Photo by John Boal Photography

It’s for that reason that the team’s discoveries have further implications beyond cancer, according to Lance Liotta, a Distinguished University Professor at Mason and the cofounder and codirector of CAPMM.

“These specific markers for mitochondrial health allow EVs to be a novel biomarker/diagnostic tool for cancer and other mitochondrial disorder diseases, such as Parkinson’s disease, Alzheimer’s, Lou Gehrig’s disease, or muscular dystrophy,” Liotta said.

Howard first began working with Liotta and other CAPMM scientists as a bioengineering major participating in Mason’s Aspiring Scientists Summer Internship Program, where she spent the summer studying the electrical properties of their Nanotrap technology.

“I really loved it,” she said of the work. “[The CAPMM scientists] were excited by the work I was doing and asked me to continue working with them. I’ve been in the CAPMM lab since 2016.”

Howard is also an inventor and shares several patents with her CAPMM colleagues. For her senior capstone project, Howard led a team of bioengineering students to create a noninvasive urine-based tuberculosis (TB) test using CAPMM’s Nanotrap technology, and the invention, called TB Assured, garnered a lot of attention for the team and many awards, including a $15,000 prize from the National Institute of Biomedical Imaging and Bioengineering’s Design by Biomedical Undergraduate Teams (DEBUT) challenge to help develop the test further.

Everything that’s in the urine is captured by the Nanotraps, and you don’t need a centrifuge or other equipment,” said Howard, who completed her bachelor’s degree in bioengineering in 2017. “People loved it. They keep asking when it is going to be available at their local pharmacy.”

“I love the research space and the creative potential that comes with it,” Howard said. “You never know when your next idea is going to pop up.”

In addition to Howard and CAPMM’s Liotta, the EV research collaboration also included Alessandra Luchini, Amanda Haymond, and Fatah Kashanchi within the College of Science; collaborator Robyn Araujo at Queensland University in Australia; graduate students James Erickson, Zachary Cuba, Weidong Zhou, Purva Gade, Rachel Carter, Kelsey Mitchell, Heather Branscome, Fatimah Alanazi, Yuriy Kim; and high school students Shawn Kim and Daivik Siddhi.

Colleen Kearney Rich contributed to this article.

Mason scientists in I-SPY 2 trial discover first ever signatures of global resistance and response to prioritize breast cancer treatment selections, including in triple negative cases

The proprietary LCM-RPPA protein activation mapping technique of breast tumors identifies three biomarkers associated with global resistance and response, several new drug targets and predictive signature that may help prioritize future treatment selection.

A team of George Mason University molecular biologists at its Center for Applied Proteomics and Molecular Medicine (CAPMM) has identified novel proteomic based signatures of global resistance for certain breast cancer patients and specific therapeutic strategies needed to overcome resistance. The work recently described in Cell Reports Medicine identifies new drug targets activated in human breast cancer, and described a new HER2-EGFR protein activation/phosphorylation signature called HARPS that could provide for better outcomes for patients with triple-negative breast (TNBC) cancer disease that previously had no specific precision therapy strategy identified.

Mason scientists Rosa Isela GallagherJulia Wulfkuhle, and Emanuel Petricoin, used their laser capture microdissection (LCM) and reverse phase protein array (RPPA) technology to map the protein drug target activation architecture of more than 700 breast tumors from the I-SPY 2 TRIAL, collaborating closely with genomics and bioinformatic scientists within the Departments of Laboratory Medicine and Surgery at University of California, San Francisco, and members of the I-SPY 2 TRIAL. This correlative study involved women with high-risk stage II and III early breast cancer who were enrolled in the first eight experimental arms of I-SPY 2 plus concurrent controls.

Photo by: Ron Aira/Creative Services/George Mason University

“This effort, the largest proteomic analysis of clinical tumor epithelium samples of any cancer type ever, is a culmination of a decade of work, in collaboration with dozens of clinicians and researchers in the I-SPY 2 TRIAL,” shared Emanuel Petricoin, co-director of Mason’s Center for Applied Proteomics and Molecular Medicine. “The team used the LCM-RPPA platform to map the protein drug target activation landscape of breast tumors prior to the patients receiving any therapy and then identified specific proteins  that predicted response and resistance. No other precision oncology trial in the world is doing this,” said Petricoin, a Distinguished University Professor in the Mason Science School of Systems Biology.

The I-SPY 2 TRIAL, among the most widely known personalized medicine trials in the world today, pioneered the use of adaptive design strategies for rapid identification of targeted therapies that could benefit women with Stage II-III breast cancer.  Over 2,750 women at 40 clinical sites around the US have enrolled in I-SPY 2 since its inception. 

Researchers identified three specific proteins activated and expressed in human breast cancer that did not respond to any treatment. “The identified biomarkers associated with global resistance are cyclin D1, estrogen receptor alpha, and phosphorylated androgen receptor,” Mason Science Senior Research Scientist, Isela Gallagher said. “Because we found that global resistance to all drugs tested in the study was based on these 3 proteins being elevated and/or activated, we can target or turn off these proteins directly which will help the I-SPY2 TRIAL clinicians and their pharmaceutical partners prioritize new therapeutic strategies that target these proteins,” said Gallagher.

The team found that 11 specific protein activation-based signatures defined the breast cancers evaluated in the study, and identified specific precision therapeutics that would be optimized for best response. The CAPMM team also identified a novel signature called HARPS that can be used to stratify TNBC, the hardest to treat breast cancer subtype into HARPS+ who would best respond to anti-HER2 therapies or HARPS- who are predicted to best respond to immunotherapy. “The use of HARPS in TNBC could result in ~80% response rate compared to the current 30-40% response rate,” explained Mason Science Research Professor, Julia Wulfkuhle.  “We hope that ongoing and planned rigorous clinical validation of HARPS as well as the numerous predictive and prognostic signatures we describe in our paper will allow the eventual use of these candidate biomarkers in the clinical management of breast cancer patients”, Wulfkuhle said.

“The CAPMM team at George Mason University has served as essentially the I-SPY protein biomarker engine since its inception,” shared Laura Esserman, I-SPY 2 TRIAL primary investigator and Professor of Surgery and Radiology at UCSF.  “This novel approach gives our trials a powerful multi-omic molecular angle that is really unique in the precision oncology ecosystem,” explained Esserman, the Director of the UCSF Carol Franc Buck Breast Care Center.

“More importantly, the results give us clear targets that we can use to identify promising agents and test them in the I SPY 2.2 TRIAL- now that is bench to bedside translational research!” Esserman enthused. 

“We are extremely inspired by the work being done by the team at George Mason University and are proud to be able to commercialize these efforts,” shared Faith Zaslavsky, President and CEO of CAPMM partner, Theralink Technologies. “Breakthroughs like this will save lives and dramatically reduce the cost of unnecessary and ineffective treatments.”

This research effort was supported by funding from many partners including the Quantum Leap Healthcare Collaborative, various National Institute of Health grants, the Gateway for Cancer research grants, The Atwater Trust and the SideOut Foundation. Further information and requests for resources or data should be directed to and will be fulfilled by Rosa I. Gallagher ([email protected]).

Innovation Awards celebrate Mason researchers

On May 9, George Mason University celebrated its research enterprise with Innovation Awards, recognizing the Innovator of the Year and a Mason start-up, and those who received and/or licensed a patent.

Michael Buschmann’s team accepted the Innovator of the Year award from Vice President Andre Marshall (holding plaque) on his behalf. Photo by John Boal Photography

According to David Grossman, senior director of technology transfer and industry collaboration in Mason’s Office of Research, Innovation, and Economic Impact, this was the first time since 2010 that the university formally recognized researchers. Going forward it will be an annual event.

“At the Mason Innovation Awards, we were privileged to recognize the tireless pursuit of knowledge and the transformative impact of our faculty’s discoveries,” said Grossman. “Through their dedication, these researchers are helping shape the world with their groundbreaking technologies and pushing the boundaries of what is possible.”

The Innovator of the Year Award was awarded posthumously to Michael Buschmann, Eminent Scholar and the former chair of the Bioengineering Department within Mason’s College of Engineering and Computing. Buschmann help found the start-up AexeRNA Therapeutics Inc., in partnership with the university’s Office of Technology Transfer. He and his team licensed the commercial rights of four patents to the company. The technology AexeRNA is working on will make mRNA vaccines less costly and more readily available worldwide. Members of Buschmann’s AexeRNA team were recognized at the ceremony.

Saleet Jafri was awarded the Mason Start-up Award. Photo by John Boal Photography

The Mason Start-up Award was presented to Saleet Jafri, director of Mason’s Interdisciplinary Program in Neuroscience and professor in the School of Systems Biology, College of Science, for his company Pathodynamics. Pathodynamics has licensed three Mason patents and is developing a technology that solves the problem of cancer drug resistance, which is responsible for more than 90% of cancer deaths. Jafri has also received a Small Business Innovation Research award for the technology and is working with the Virginia Small Business Development Center’s Innovation Commercialization Assistance Program (ICAP).

Lance Liotta (left) and David Grossman holding Liotta’s Lifetime Disclosure Award. Photo by John Boal Photography

University Professor Lance Liotta, cofounder and codirector of the Center for Applied Proteomics and Molecular Medicine, was recognized with a Mason Lifetime Disclosure Award. During his career, Liotta has filed more than 120 patent disclosures. Disclosures are the first step toward a patent by making a public claim about an invention or discovery. Liotta has 100 inventions to date and the prototype of one of these inventions—Laser Capture Microdissection, a method to procure subpopulations of tissue cells under direct microscopic visualization—is in the Smithsonian Institution’s collection.

During the program, Gisele Stolz, senior director of Entrepreneurship and Innovation Programs at Mason, was recognized for recently receiving an Impact Award from the Commonwealth Cyber Initiative for mentoring students. Stolz has helped place more than 150 Mason students in internships with cyber-related start-ups.

Participants of the Virginia SBDC ICAP and national I-CORPS programs and Mason researchers who have patented or licensed a technology or invention were also recognized.

The awards for patents and licensed technologies are Plexiglas hexagons with magnets so researchers can add to their award over the years as they receive patents/licensing.

A list of those Mason researcher licensing technologies follows.

Mason Licensed Technology Awards

“Microscopic Particles for Target Bio-markers,” licensed to Ceres NanoSciences
Lance Liotta, Emanuel Petricoin, Alessandra Luchini Kunkel, Barney Bishop, Virginia Espina, Marissa Howard, and Fatah Kashanchi

“Self-Cleaning Intrusion Tolerance” licensed to SCIT Labs
Arun Sood

“Pre-Shot Sniper Detection” licensed to First Guard Technologies
Kenneth J. Hintz

“Cauldron” licensed to Cyvision Technologies
Sushil Jajodia

“Antiretroviral Compositions” licensed to Lentx
Yuntao Wu

“Biological Materials” licensed to Kera FAST
Barney Bishop, Monique van Hoek, Robin Couch, and Yuntao Wu

“Atomic Magnetometer” licensed to Twinleaf
Karen Sauer

“Protein–Protein Interactions” licensed to EMD Millipore
Alessandra Luchini Kunkel, Lance Liotta, and Virginia Espina

“Antiretroviral Cyclonucleotides” and “Pseudovirus Platform” licensed to Virongy
Yuntao Wu and Brian Hetrick

“Packet Flow Watermarking” licensed to CyberRock Tech
Xinyuan Wang                     

“Encryption IP Cores” licensed to Chaologix
Gaj Krzysztof and Panasayya Yalla

“Personalized Therapy” licensed to Avant Diagnostics
Emanuel Petricoin and Julia Wulfkuhle

“Thromboembolism Sleeve” licensed to Phase II Consulting and Staffing
Lance Liotta and Marissa Howard

“Laser Capture Microdissection” and “Tissue Molecular Profiling” licensed to Targeted Biosciences
Lance Liotta, Alessandra Luchini Kunkel, Virginia Espina, Amanda Nicole Haymond Still, Marissa Howard, and Philip Andrew Pappalardo

“Cancer and HIV Therapeutics” licensed to Targeted Pharmaceuticals
Catherine DeMarino, Fatah Kashanchi, Lance Liotta, and Virginia Espina

“HIV Vaccine” licensed to Viropeutics
Yuntao Wu

“Protein Painting” licensed to Monet Pharmaceuticals
Alessandra Luchini Kunkel, Amanda Nicole Haymond Still, Lance Liotta, Mikell Paige, and Virginia Espina

“Antidepressant Selection” licensed to Teahorse
Farrokh Alemi

“Honeybee Hive Therapy” licensed to Tri-State Proteomics
Alessandra Luchini Kunkel, Lance Liotta, and Rocio Solange Prisby

“mRNA Delivery Lipids” licensed to AexeRNA Therapeutics
Michael Buschmann, Mikell Paige, Suman Alishetty, and Manuel Carrasco

“COVID Contact Tracing” licensed to Vericord
Farrokh Alemi and Janusz Wojtusiak

“Wearable Devices for Managing Substance Abuse” licensed to LifeSpan Digital Health
Holly C. Matto and Padmanabhan Seshaiyer

“Precision Oncology” licensed to Pathodynamics
Mohsin Saleet Jafri and Soukaina Amniouel

Mason Honey Bee Initiative

The George Mason University Honey Bee Initiative (HBI) is an interdisciplinary effort supported by the work and expertise of colleagues across the university (College of Science, College of Education and Human Development, College of Computing and Engineering, College of Visual and Performing Arts, School of Public Health, and the School of Business).

The initiative offers opportunities to engage in sustainable beekeeping, perform scientific research, design art projects, connect with the community, and even study abroad.

Partnerships with the government, for-profit businesses, non-profit organizations, and community members are vital to the success of the initiative.

Mason’s surveillance testing team honored for its efforts

Mason’s surveillance testing team honored for its efforts
John Hollis
Mon, 02/28/2022 – 15:46

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Mason formally recognized the many dedicated scientists, first responders, program administrators and medical personnel whose tireless efforts paved the way for the school’s successful COVID-19 surveillance testing program during the global pandemic. Photo by Evan Cantwell/Creative Services

George Mason University officials on Monday formally recognized the many dedicated scientists, first responders, program administrators, staff and medical personnel whose tireless efforts paved the way for the school’s successful COVID-19 surveillance testing program during the global pandemic.

The reception in their honor at Merten Hall was Mason’s way of giving a heartfelt thanks for a job well done.

“I can give you all a thousand thank you’s,” said Mason President Gregory Washington. “And I know the reality is that it doesn’t happen if you all don’t make the commitment, if you all don’t put in the hard work, if you all don’t put in the extra hours, if you all don’t have to deal with the changing policies and the struggles that we were in many cases foisting upon you. But you did it, you did it admirably and your results are spectacular.”

Since the program’s inception in fall 2020, Mason has administered more than 155,000 COVID tests to students, faculty and staff. Processing the tests in Mason’s own labs means results are returned within 24 to 48 hours. The fast turnaround time meant Mason scientists could quickly identify and isolate positive COVID cases which lead to timely notification to those members of our community that needed to self-isolate to mitigate outbreaks within the Mason community.

The quick turnaround required immense time and staff power, key factors in helping keep the community safe while elevating Mason to national prominence for its response to the pandemic. The university’s ability to  monitor the prevalence of COVID within the campus community and transmission rates played a key role in the decision to open its doors on time for fall 2021 and spring 2022 semesters.

Lance Liotta, the co-founder and co-director of the Center for Applied Proteomics and Molecular Medicine within Mason’s College of Science which oversaw the testing, called what his team accomplished “historic.” Liotta noted that his team conducted 1,000 thousand tests on Friday, Feb. 25, without a single positive case of COVID.

Carol Kissal, Mason’s senior vice president for administration and finance, lauded the team for their efforts that have served to inspire the entire Mason community.

“You have all been part of something that is pretty phenomenal,” she said.

The surveillance and diagnostic testing program started in the Ángel Cabrera Global Center parking garage in late August 2020, where staff overcame the elements and other unexpected technological hurdles to help Mason navigate the early stages of the COVID pandemic and COVID virus of which very little was known at the time. It wasn’t long before Mason’s COVID Response Team and scientists had devised new collection procedures at sites across all of Mason’s campuses, each aimed at keeping site staff and test participants safe through an efficient and expeditious testing process.

Mason’s reliable surveillance testing system is also critical in allowing Mason student-athletes to continue competing safely throughout the pandemic.

 

Honey bees and their honey could be a big help in solving police cases

Honey bees and their honey could be a big help in solving police cases
John Hollis
Tue, 01/18/2022 – 14:33

Body

Volunteers plant perennials at the Forensic Science Research and Training Laboratory in support of ongoing research to determine if traces of human remains can be identified in the plants or in the honey produced by pollinators. Photo by Shelby Burgess/Strategic Communications

An unlikely collaboration between George Mason University’s Honey Bee Initiative and the new outdoor Forensic Science Research and Training Laboratory could yield critical advances in forensic science. 

Mason teams from a number of different fields are working in unison at the Science and Technology Campus in Manassas, Virginia, on an ambitious project to see if the honey produced by bees after feeding on flowers can help them better locate missing persons. 

“The focus of forensics is to solve cases,” said Mary Ellen O’Toole, the head of the Forensic Science Program within Mason’s College of Science and a former FBI profiler. “Outdoor crime scenes have always posed a challenge to investigators, particularly identifying the location of human remains. The bee research will allow us to scientifically demonstrate that identifying bee activity in bee farms or in the wild and analyzing their proteins can help lead investigators to human remains. In this case, the bees are our new partners in crime fighting, and that’s amazing science.” 

Proteins in bee honey contain biochemical information about what the bees have fed upon. That information has previously been used to detect the chemical signature of pesticides in honey, allowing observers to deduce what specific types of pesticides were being used within the five-mile radius from the hives that honey bees typically frequent. 

Similarly, O’Toole and her team believe that volatile organic compounds (VOCs) of human decomposition might likewise be found in bee honey, allowing authorities to then triangulate where missing human remains might be located. That ability could ultimately help spare grieving families additional extended angst while also saving thousands of hours in the search for a missing person. 

“If we can determine what the VOCs are for humans and differentiate that from other animals, we could then use the bees and their honey as sentinels, and, hopefully, find missing persons and solve cases,” said Anthony Falsetti, an associate professor of forensic science. 

Their belief is based on the premise that flowering plants near dead bodies will uptake the VOCs before being fed upon by the bees and ultimately being deposited in their honey. 

Alessandra Luchini, an associate professor within Mason’s Center for Applied Proteomics and Molecular Medicine (CAPMM), has perfected a method to extract proteins from the honey. She and Lance Liotta, a University Professor and CAPMM co-founder and co-director, have been involved with the project from the outset, following the idea’s origins at one of the monthly research meetings with the Forensic Science Program. 

Honey bees are very specific in the kinds of the flowers to which they’re attracted. Doni Nolan, Mason’s Greenhouse and Gardens sustainability program manager from the School of Integrative Studies within the College of Humanities and Social Sciences, applied her expertise to the project, choosing the right flowers to plant within the specific one-acre section of the newly opened Forensic Science Research and Training Laboratory that will house the remains of human donors in a heavily wooded area. The honey bee hive on the SciTech Campus is located several hundred yards away from the Forensic Science Research and Training Laboratory. 

Volunteers prepare to plant flowers at the Forensic Science Research and Training Laboratory. Photo by Shelby Burgess/Strategic Communications

In November, students and researchers planted several different species of plants, which bear highly scented white and yellow blossoms, near the spots where the human remains will soon be displayed. Additional plants native to this area will be planted in the spring before the first honey samples are examined, Nolan said. 

“You’re trying to see if the honey and the bees can help us find a body and solve a homicide,” said Nolan, who has a biology degree from Mason and is working on a PhD in biosciences. 

The five-acre, Forensic Science Research and Training Laboratory opened in early 2021, making Mason just the eighth location in the world capable of performing transformative outdoor research in forensic science using human donors and the only one in the Mid-Atlantic region. 

Donation of human remains to the research facility will come through the Virginia State Anatomical Program (VSAP), which is a part of the Virginia Department of Health. Go here to learn more about donating your body to science. 

Mason also entered a partnership with FARO Technologies, Inc. that resulted in the world’s first FARO-certified forensic laboratory. 

In addition to those in the Forensic Science Program, the multidisciplinary project also includes the caretakers of the honey bees, as well as researchers and students from CAPMM, as well as from the Department of Environmental Science and Policy within the College of Science and Office of Sustainability, all of whom helped select the plants for the research design.

Mason research could change the way concussions are diagnosed

Mason research could change the way concussions are diagnosed
Colleen Rich
Thu, 07/01/2021 – 10:54

Body

Two research professors at George Mason University, in collaboration with global partners, have discovered the same protein biomarkers in the saliva of youth and collegiate athletes who have experienced concussive and sub-concussive impacts.

Shane Caswell

The findings, if validated in larger, independent studies, could be used to develop a new, rapid, noninvasive, saliva-based test for concussion diagnosis and management, as well as a way to monitor changes to the brain following exposure to repetitive sub-concussive impacts.

The study, conducted by Mason professor of athletic training Shane Caswell and University Professor Emanuel Petricoin, was recently published in the Journal of Neurotrauma.

“Salivary biomarker research can, hopefully, enhance already existing tools that diagnose concussions, as well as track brain health over time,” said Caswell, one of the study’s lead researchers and executive director of Mason’s Sports Medicine Assessment, Research, and Testing (SMART) Laboratory. “This is valuable, not only in all levels of sports, but also in military settings.”

Concussion and repeated sub-concussive impacts, which are blows to the head that do not produce immediate symptoms, could have long-term adverse health consequences if athletes return to contact activity too soon.

Concussion management currently relies on subjective measures to inform clinical judgement. New strides have been made recently, such as a handheld blood test developed by Abbott Laboratories to diagnose concussions. But there continues to be limited understanding of how repeated sub-concussive impacts, that frequently do not cause concussion symptoms, affect the brain.

Emanuel Petricoin

“There is a need for nonsubjective, diagnostic measures to be able to assess someone’s traumatic brain injury level, either in a concussed or sub-concussed state,” said Petricoin, co-director of Mason’s Center for Applied Proteomics and Molecular Medicine (CAPMM). “This is important for health care providers so that they can make accurate medical judgements.”

Mason’s research identified antibodies in saliva that target proteins such as HTR1A, SRRM4, and FAS, which are known to play a role in brain physiology and function. Their presence correlates with concussions and how many hits and athlete sustained during a season of play.

Compared to healthy athletes, individuals who were diagnosed with a concussion, or who suffered high exposure to sub-concussive impacts, showed an elevation of the same salivary biomarkers.

The research team worked with youth, high school, and collegiate athletic teams and their medical staffs across the Washington, D.C., metropolitan area, to collect saliva to create a Sport-Related Head Trauma Salivary Biobank. This first-of-its-kind biobank contains saliva collected from healthy athletes, athletes diagnosed with concussions, and athletes who sustained repetitive sub-concussive impacts.

Sensors worn by the athletes measured the number and severity of hits. Collected saliva was tested using a Mason-developed nanoparticle technology. Analysis was completed by researchers at the KTH Royal Institute of Technology in Stockholm, Sweden, which is a leader in the world of autoimmunity research.

“Once someone has experienced a concussion, it is hard to know when they are fully healed from it, meaning it may take less of an impact for a second concussion to occur,” Petricoin said. “It’s important to study concussion biomarkers in youth because growing evidence suggests that if we can monitor head impacts more effectively, it will support their long-term health.”

Mason start-up Ceres Nanosciences experiences big wins and increases footprint in Prince William County

Mason start-up Ceres Nanosciences experiences big wins and increases footprint in Prince William County
Colleen Rich
Tue, 04/20/2021 – 08:49

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Ross Dunlap is CEO of Ceres Nanosciences and a member of the George Mason Research Foundation board. Photo provided

Ceres Nanosciences, a Northern Virginia bioscience company spun out of George Mason University that specializes in diagnostic products and workflows, has opened a 12,000-square-foot advanced particle manufacturing plant in Prince William County’s Innovation Park. The new facility increases the manufacturing capacity of Ceres’ Nanotrap® Magnetic Virus Particles, which improve diagnostic testing for viruses like SARS-CoV-2, influenza, and respiratory syncytial virus.

 

The completion of the new facility also reflects the partnership between Mason and the Prince William County Department of Economic Development (PWCDED).

 

“The PWCDED has a long-standing relationship with Mason, specifically with the Science and Technology Campus that anchors our bioscience hub in Innovation Park,” said Christina Winn, executive director of PWCDED. “Ceres was the first company to graduate our Science Accelerator, and we are invested in their growth as a leader, collaborator and innovator in our life sciences industry cluster.”

 

The construction of the facility, which was completed in under four months, was funded by the National Institutes of Health (NIH) Rapid Acceleration of Diagnostics (RADx) initiative to expedite the production and commercialization of diagnostic tests for the SARS-CoV-2, the virus that has become known as COVID-19. Prince William County also supported the swift development of the site.

 

“We’re immensely grateful for the NIH funding that supported this new facility,” said Ross Dunlap, Ceres Nanosciences CEO. “Not only are we now able to deliver a robust supply of this critical reagent that the industry needs, but the facility also is a major element of Ceres’ long-term growth plan.”

 

Dunlap and his team have noticed significant gaps in the diagnostics industry and infrastructure in the United States, especially in response to an outbreak. He hopes that because the Nanotrap® Magnetic Virus Particles reduce sample processing time, eliminate the need for special kits, and create cost efficiencies, the technology can be leveraged to respond faster to future pandemics.

The Ceres Nanosciences production team. Photo provided

“It was very fortunate that we had put a lot of energy into developing the technology for viral infections and released a product for it before the pandemic, not even knowing that COVID-19 would come about,” said Dunlap, who serves on the George Mason Research Foundation board. “We were able to rapidly respond and quickly validate our technology for COVID diagnostics, which was done in partnership with Mason.”

 

The base technology underlying the Nanotrap® particle was created by Mason’s Center for Applied Proteomics and Molecular Medicine (CAPMM), which is led by co-directors Lance Liotta and Emanuel Petricoin. The technology was funded with a series of NIH grants from the NIH lnnovative Molecular Analysis Technologies (IMAT) program.

 

It was then licensed to Ceres Nanosciences in 2008. Follow-on funding to advance the technology was awarded to the Ceres and Mason team by the NIH, the Center for Innovative Technology, Virginia Catalyst, the Bill and Melinda Gates Foundation and the Department of Defense.

 

“We are very proud to see that a technology developed under NIH funding at Mason has graduated to a product that is aiding in the fight against COVID-19 and promises to help patients all around the world for many other diseases,” said Alessandra Luchini, associate professor for CAPMM and co-inventor of the Nanotrap®.

 

With the assistance of Mason researchers, who played a large role in efforts such as testing particles and generating data, the technology evolved into a platform that can be modified and adapted to different applications, such as infectious diseases. For example, in 2015, Mason CAPMM scientists and Ceres Nanosciences demonstrated the use of the Nanotrap® technology for the detection of Lyme disease. Today, the Lyme Borrelia Nanotrap® Antigen Test is offered by Galaxy Diagnostics, a medical laboratory that specializes in tests for flea- and tick-borne pathogens.

 

“Mason has a lot to offer when it comes to cutting-edge technologies,” said Hina Mehta, director of the Office of Technology Transfer. “We are always looking for the right partners, like Ceres Nanosciences, who can take our research discoveries to commercial-grade products that benefit the public.”

 

Ceres Nanosciences and Mason have worked together since the company’s genesis. Ceres’ first lab was on Mason’s Science and Technology Campus, and the two organizations have collaborated on numerous research projects.

 

“Mason has consistently been a resource that we go to when we need extra support and research power,” said Dunlap. “The researchers have a range of backgrounds that we need: from virology to microbiology to proteomics. Their areas of expertise have been critical across a lot of our development programs.”

 

Dunlap said he and his team, along with continued support from Mason, are eager to help people return to pre-pandemic life.

 

“Our team is incredibly excited and motivated to come to work every day and produce these particles so that people can go back to work and school,” said Dunlap. “We’re proving why this technology has such value and why it can do so much for public health.”