Skip to main content

In the post COVID-19 era, precision medicine may be one of the most important tools to use in combatting and preventing future pandemics. 

With more institutions collecting genetic and biometric data on COVID-19 patients, precision medicine tools may be able to “predict risk of infection, transmission pathways, and clinical outcomes in COVID patients, according to researchers in Genetics in Medicine. The data can be used to understand “potential genetic determinants of COVID-19 susceptibility, severity, and outcomes,” the researchers say.  

For Coriell Life Sciences, based in Philadelphia, its expertise in precision medicine testing and pharmacogenomicswhich is how genes affect a person’s response to drugs, meant the pandemic was a natural pivot point for the company. Scott Megill, CEO of Coriell, says that the company’s precision medicine services helped organizations test the right people with the right frequency enabling them to allow people to return to work.  

“A lot of that infrastructure and methodology that we use in our standard precision medicine approach to medication safety, we were able to retool rather quickly to address the new issues that COVID brought,” said Megill But this doesn’t necessarily mean that precision medicine is going to be an immediate silver bullet used across health care. There are still a lot of challenges holding it back. 

Megill recently spoke with Health Evolution about the top-level trends impacting precision medicine, the challenges payers and providers encounter when implementing precision medicine and more.  

How did Coriell adapt to COVID-19?  

Megill: Our legacy business is understanding how to implement precision medicine initiatives within large populations for self-insured employers, pension funds or public sector entities. How can they across an entire population make use of new technologies, primarily genetic testing, in combination with more traditional forms of medication safety management? We’ve focused very deeply in an area of science called pharmacogenetics where we can look at variations of the human DNA to determine whether or not someone is likely to respond well to individual medications and whether those medications are going to be safe for them. In order to do that well, we had to build a technology infrastructure that would allow us to assess risk at the population level and also at the individual level. So that we can steer the right care to the right person. 

Along comes COVID. That same methodology is really applicable when as an organization I’m considering, ‘Should I reopen my office and bring my employees back?’ In order to do that well, we could implement rules and say everybody needs to be tested every week to determine whether or not they’re safe. Or the smarter use of dollars would be let’s assess the unique scenarios with which these people work and their exposure and risk levels to determine how often we actually need to test them.  

We’re going to want to test somebody who has direct exposure to the general public a lot more frequently than someone who might work a back-office job in a very controlled environment. The same holds true for finding out the risks in a person’s community and the risks to them personally. We bring that all together into a real time scheduling system that can affect that testing with a network of laboratories that provide those services. All of that was sort of a natural evolution of what we already had been doing with helping organizations to determine who is right for a medication safety program that includes genetic testing. 

What are the recent top-level trends going on genetic science and precision medicine?  

Megill: Where we see genetic science really making an impact today is certainly with cancer predilection and cancer treatments. Those have been well-trodden ground and there are lots of really credible companies out there implementing it in a really positive matter. 

The other areas of genetic science, which are really starting to catch hold, are the use of pharmacogenetics to help to steer medication safety. Our DNA has a lot to do with whether or not medications are processed at a pace that is predictable by the intent of the drug. When a drug goes through the pharmaceutical trials there’s an expectation that the drug will be processed by the people that take it at a certain pace. If that drug actually moves through a person’s system too fast or too slow, they have a potential for an adverse reaction. That drug could build up in their system and not actually be flushed out fast enough or it could be ineffective for them because it’s not actually able to have its therapeutic intent. A lot of that is controlled by your DNA.  

Genetics is bound by our ethnicity and by our ancestry. There was a recent lawsuit that just settled for $834 million against two pharmaceutical companies in Hawaii that market [blood thinner] Plavix but don’t actually tell people that genetics are impactful to whether or not that drug is going to work. In the Pacific Islander and Asian populations, it’s ineffective for about 50 percent of the individuals that take it. This is a really big deal and so now what we’re starting to see is FDA recognition of the importance of this. The FDA is now printing this information right on drug labels. They published a specific drug level guidance for clinicians, which says, ‘if you have a patient who is an ultra-rapid metabolizer on cyp2c19, this drug won’t be effective for them.’ It’s important that we’re seeing that kind of regulatory recognition. Also, we’re starting to see reimbursement for these tests directly, so that’s a really significant advancement and something’s been lagging.