It may be tempting to imagine a room of all-seeing officials managing the global response to the novel coronavirus epidemic, like desk officers directing a field operative in an international spy movie. While this is certainly not the case, rapid technological advances could soon bring this vision closer to reality.

Improved systems and data sharing have already enabled a faster, more effective response to COVID-19, the disease caused by this coronavirus strain, than to any previous outbreak. The virus’s DNA sequence was released in record time, at least eleven labs have begun to ship out diagnostic tests, and the biotech firm Moderna hopes to have a vaccine ready for clinical trials as early as April. In the years ahead, technologies for early detection, rapid diagnosis, and remote treatment will make it easier and safer to contain the spread of future outbreaks.

Early Detection

The Chinese government has been criticized for its weeks-long delay between diagnosing its first COVID-19 patients and notifying global health authorities. Yet a team at the Canadian start-up BlueDot was able to detect the outbreak days before initial reports from the Centers for Disease Control and Prevention (CDC) and the World Health Organization. BlueDot’s algorithm picked up early warning signals by applying natural language processing and machine learning to data sets including news coverage, global flight patterns, and government reports.

Ronit Langer
Ronit Langer was a Scoville Fellow working with Michael Nelson in the Technology and International Affairs Program.
More >

But an algorithm is only as good as the data fed into it. While Bluedot’s current algorithm relies on data from outside healthcare, the growth of available data from interoperable electronic medical records and personal health monitors, such as Fitbits, will provide extra predictive power. However, the ready availability of such personal data will make it even more urgent to agree on standards around privacy and security.

Rapid Diagnosis

Concerns about a lack of diagnostic ability have mounted as the scope of the public health emergency has become clear. In the United States, the test rolled out by the CDC, which amplifies DNA samples through a polymerase chain reaction, sometimes failed to generate a result due to a “faulty component.” In those cases, labs had to send their samples to the CDC, causing a delay in testing results that in turn slowed officials’ understanding of the spread of the disease.

A new class of diagnostics relies instead on DNA sequencing, which allows multiple pathogens to be detected simultaneously and does not require a unique test for each new virus. Of the eleven tests currently deployed around the world, only one is sequence-based, but this method will become more prevalent as the cost of sequencing continues to fall and genetic analysis improves.

Next-Generation Telemedicine

In many outbreaks, healthcare providers are hit the hardest. Over 3,000 healthcare workers have been infected in China, often after treating patients without proper protective gear. Some countries have turned to telemedicine for patients with COVID-19. Israel’s Sheba Medical Center, which is treating twelve passengers from the Diamond Princess cruise ship, employs remote monitoring and a robotic medicine cart controlled by doctors and nurses. Continued improvements in robotics technologies will make it easier to make highly infectious patients feel genuinely cared for, even at a distance.

The Limits of Technology

Despite advances in these areas, the global health community may remain poorly prepared to deal with pandemics. Good infrastructure is the foundation of outbreak management; without it, early detection of an outbreak is of little use. Taking advantage of a rapid diagnostic test still requires that resources be quickly deployed to the population centers that need them the most. Likewise, telemedicine developments offer patients little help if hospitals lack adequate funding for staff and equipment. It’s those underlying investments in infrastructure that lay the groundwork for the cutting-edge technologies that ideally will be available when the next dangerous virus emerges.