Breakthroughs Blog: COVID-19

Last Wednesday, Emergent BioSolutions announced that it has received a $56 million contract extension with the Administration for Strategic Preparedness and Response to supply the US government with doses of a combined smallpox/mpox vaccine. The single-dose vaccine was first approved by the US Food and Drug Administration in 2007 for smallpox and, since 2024, has been one of two approved vaccines for smallpox and mpox. The vaccine doses, which will be stored in the Strategic National Stockpile, aim to boost US preparedness for future public health emergencies. A novel breakthrough method that utilizes artificial intelligence and advanced imaging technologies to more accurately and efficiently identify therapeutic antibodies could transform the way researchers develop treatments for infectious diseases, particularly emerging diseases, by significantly accelerating research. The method reduces the time needed to identify antibodies with potential from weeks to under a day and can also accomplish this task more efficiently, requiring far fewer researchers dedicating their time to screening thousands of candidate antibodies. This could allow researchers to move on from antibody discovery to the later stages of drug and vaccine development earlier and, ultimately, bring lifesaving products to patients faster. A recently published study found promising results for a new approach to developing broad-spectrum antivirals to treat existing viral infections and maybe even to prevent infections from emerging viral threats. Broad-spectrum antivirals are treatments that could combat a wide range of viruses by hitting essential targets that are common across many different viruses. While there are broad-spectrum treatments for bacterial infections, there has not been a similar broad-spectrum antiviral treatment approved for human use, in part because the proteins on the surface of a virus vary widely and change rapidly over time. The researchers focused on small molecules called synthetic carbohydrate receptors (SRCs), which earlier studies have suggested could be a potential target for antiviral medicines. They tested 57 different SRCs against six deadly viruses from three different viral families, including the viruses behind COVID-19, MERS, Nipah, and Ebola, finding several promising SRCs that blocked cells in the lab from being affected by all the viruses, some of which also later demonstrated promising safety and efficacy results in mice. 

Last week, Monod Bio, a spinout company from the University of Washington, announced that it has received a $1.5 million Gates Foundation grant to develop a urine-based rapid diagnostic test for tuberculosis (TB). The company aims to help fill the gap of non-sputum-based, rapid, point-of-care TB diagnostics that are suitable for low-resource settings. Most World Health Organization-recommended TB diagnostics rely on sputum, which not all patients can provide and can be logistically difficult for health care providers to collect, but current alternatives using urine and stool samples have low specificity, and current TB tests are also not available at the point of care in communities. The test will utilize the company’s NovoBodies, novel proteins designed to be highly specific and sensitive—diagnostics have primarily used natural proteins that are adapted for use in tests.  The Combating Antibiotic-Resistant Bacteria Biopharmaceutical Accelerator (CARB-X) last week announced that it is awarding $1 million to Zeteo Tech to further work on a rapid, non-invasive diagnostic test that can diagnose lower respiratory tract infections, like pneumonia, using breath samples. Lower respiratory tract infections kill 700,000 children under five annually. A less invasive, rapid test could help speed up diagnosis and guide more effective treatment, particularly of drug-resistant infections, helping reduce the prescribing of unnecessary antibiotics that can fuel the rise of antibiotic resistance. Zeteo’s platform analyzes the tiny particles and droplets in breath samples to distinguish between viral and bacterial infections and assess antibiotic susceptibility.  The results of a clinical trial released last week found that a common over-the-counter nasal spray that is used for seasonal allergies could work as an antiviral against a range of respiratory infections, including influenza, RSV, and the virus that causes COVID-19. The researchers suggest that the nasal spray, Azelastine, could help block COVID-19 infections by inhibiting a key enzyme that the virus uses to replicate or by preventing the virus from latching on to the point at which the virus enters human cells. If proven safe and effective in further studies, Azelastine could serve as an easily scalable, over-the-counter prevention method complementary to vaccines and other tools, especially when a virus is spreading among a community or in high-risk situations, like when traveling or attending crowded events. The research also provides another potential target for future vaccines. 

Over the past few months, the US administration has made sweeping changes at the Department of Health and Human Services (HHS), the backbone of America’s public health and health research infrastructure, which contains the National Institutes of Health (NIH), Centers for Disease Control and Prevention (CDC), and Biomedical Advanced Research and Development Authority (BARDA). Together, NIH, CDC, and BARDA, in conjunction with other agencies across the government, support the development of health technologies that save and improve lives in the United States and around the world, including a key role in combatting emerging infectious diseases and longstanding global health challenges like HIV/AIDS.   As the United States’ lead agency for medical research, NIH has long been at the forefront of scientific discovery, pushing forward innovations in health technology across a range of health areas. In compliment, BARDA supports the advanced development of medical countermeasures against diseases with pandemic potential to shore up the nation’s public health security, and CDC, alongside tracking the spread of diseases and other health threats, supports the development of new diagnostic, prevention, and surveillance technologies and evaluates the effectiveness of existing tools to inform future research and development (R&D) needs. Far-reaching cuts to HHS’s workforce and infrastructure and the terminations of thousands of research grants—with further budget reductions proposed—threaten to reverse decades of scientific progress, shrink the pipeline of next-generation health technologies, weaken the country’s biomedical workforce and industry, and make Americans and people around the world more vulnerable to longstanding and emerging health threats.  Widespread job losses and restructuring jeopardize key R&D functionsThe US administration has overseen the dismissal or abrupt exits of up to 20,000 federal employees across HHS—amounting to 25 percent of the workforce. Thirteen hundred jobs were eliminated at NIH and around 2,400 at CDC (while some jobs have since been restored, the administration’s pivots have made it hard to track the scale and permanence of these changes), including the removal of directors and gutting of divisions focused on infectious disease and global health partnerships. The departure of these staff—from seasoned leaders to young recruits—represents an immense loss of expertise and promise and could lead to severe disruptions in critical research and surveillance efforts.Additionally, HHS has also canceled thousands of research grants over the past few months—estimates of the value of terminated funding at NIH alone range from $1.8 to $2.7 billion (more than 1,000 grants terminated and 1,000 additional projects that had funding delayed) and billions more from CDC and BARDA, with research on COVID-19 and other emerging infectious diseases and HIV/AIDS particularly impacted. Moreover, a new NIH policy halting foreign subawards could upend international research collaborations and put thousands of additional grants at risk of termination, while a policy to cap NIH indirect research costs, which has remained blocked in the courts, could further erode available funding to support researchers.Beyond these initial layoffs and cuts, the administration is also proposing a restructuring effort and federal budget for fiscal year 2026 that would reduce funding for NIH, CDC, and BARDA by 43, 53, and 36 percent respectively and implement a new primary focus on chronic disease at HHS, shuttering key centers carrying out infectious disease research and forging global partnerships, including the NIH Fogarty International Center and CDC’s Global Health Center and National Center for HIV, Viral Hepatitis, STD, and Tuberculosis Prevention.While thoughtful and thorough reforms could serve to improve these agencies’ ability to carry out critical work and ensure American taxpayer money is well spent, the rapid pace and far-reaching scale of these cuts and changes (which have seen pushback in the courts) has aroused concern among many across academia, industry, and the medical research sector who fear long-term health and economic consequences and the risk of a US scientific workforce “brain drain,” as researchers leave the field or country altogether. Terminated research makes Americans more vulnerable to emerging health threatsFrom avian influenza to COVID-19, Ebola, and mpox, emerging health threats pose a growing risk to Americans in our increasingly interconnected world. We know all too well the significant toll of pandemics, both in terms of lives lost and health care spending and economic disruptions.NIH, CDC, and BARDA have historically played a crucial role in ensuring that Americans have the technologies to protect us against disease threats wherever they arise. The research that led to the development of the mRNA vaccines for COVID-19 and rapid diagnostic tests and the world’s first vaccine and treatments for Ebola were all supported by one or multiple of these agencies.Unfortunately, research on COVID-19 and other emerging threats have been among those areas most heavily impacted by recent grant terminations, caught in the crosshairs of various efforts to claw back COVID-19 funding; curtail funding for mRNA, gain-of-function, and vaccine research; zero out funding for specific universities; and prioritize chronic disease research.For example, at NIH, an initiative founded in 2022 to support the development of antivirals against a range of pandemic threats, including the viruses that cause Ebola, Zika, and measles, was defunded. Other NIH-funded projects to develop pan-coronavirus vaccines that could protect against COVID-19, MERS, SARS, and other yet-to-emerge coronaviruses, as well as drugs targeting a range of RNA viruses, including coronaviruses, avian influenza, and measles, were also cut.At CDC, $11.4 billion in funding allocated for the COVID-19 response was pulled back, including funding that was supporting essential surveillance and preparedness activities for COVID-19 and other emerging health threats. Meanwhile, at BARDA, grants supporting the late-stage development of mRNA vaccines for avian influenza were terminated over concerns about the safety of mRNA technology, despite scientific consensus that mRNA vaccines are safe and saved millions of lives during the COVID-19 pandemic.If enacted, the proposed HHS restructuring and president’s budget proposal would also eliminate key functions across NIH and CDC that serve as our first line of defense against pandemic threats. These include institutes and centers, like the NIH Fogarty International Center and CDC Global Health Center, that provide critical training, forge international partnerships, and monitor and respond to threats abroad.   If a new outbreak were to start (or if one of the several ongoing ones suddenly worsened) tomorrow or next month, the precious expertise, resources, and technologies in the pipeline that are now being lost or rolled back would mean Americans would be less safe and less prepared. In fact, the very ability to swiftly identify a new outbreak is now in question. Research terminations set back progress in the fight against HIV/AIDS and other longstanding global health challengesHIV has led to the deaths of more than 700,000 people in the United States since 1981, with 1.2 million Americans now living with HIV. NIH and CDC have played a crucial role in developing technologies and supporting programs that have reduced the number of new infections and enabled Americans and people around the world living with HIV to live longer and healthier lives.NIH has long been a global leader in HIV R&D, working with partners to isolate the virus for the first time and discovering a new class of antiviral drugs that helped turned HIV into a manageable chronic condition. HIV research supported by NIH has also led to technologies for other diseases and health conditions that affect millions of Americans, including cancer, heart failure, and even COVID-19. But efforts to drastically reduce funding for infectious disease research, including HIV research, at the agency could slow the discovery of future health breakthroughs.NIH has already terminated at least $759 million in grants involving HIV research, with many caught up in attempts to realign US investments away from diversity, equity, and inclusion efforts; zero out federal funding for several universities; crack down on funds going to foreign sub-awardees; and cut all foreign aid dollars for South Africa.  The latter two policies targeting research done outside of the United States are of particular concern for HIV R&D. While HIV continues to affect many Americans, to ensure new technologies are broadly effective, it is crucial to conduct research in diverse populations of people living with or at risk of HIV, including populations outside the United States—especially in South Africa, which remains the epicenter of the pandemic. The executive order ending US aid to South Africa has already threatened the continuation of at least 24 HIV trials being carried out there, including those advancing some of the most promising new tools. (The impact of these two policies also goes far beyond HIV/AIDS, with basic and clinical research on other longstanding global health challenges like tuberculosis and malaria also disrupted).NIH supports four global HIV clinical trial networks, which facilitate cross-sector and international partnerships furthering HIV R&D, all of which have seen their ongoing research or functions hampered in some way in the last few months by terminations and this collection of policies. They are now having to grapple with their future; one network has already scaled back ongoing studies, declined new research opportunities, laid off employees, and canceled at least six scheduled trials.NIH also notified two major consortia working on developing an HIV vaccine that it will not renew funding next year. While new long-acting HIV prevention tools represent major breakthroughs, most experts agree that a traditional, immunizing vaccine is still needed to sustainably end HIV/AIDS as a global health challenge. The consortia’s work has had tremendous success, furthering what are widely considered the most innovative, experimental vaccine candidates into clinical trials.  CDC has also played a complementary role in HIV efforts, leading surveillance and supporting research to help improve prevention and treatment efforts in the United States and globally. It is also a key implementing agency of the President’s Emergency Plan for AIDS Relief, or PEPFAR. Proposed budget cuts and restructuring at CDC would curtail domestic HIV prevention and surveillance activities, as well as eliminate the agency’s Global Health Center and, with it, a specific funding line for global HIV and TB activities (though the agency will likely continue to implement certain PEPFAR activities), undermining the ability of public health officials to track new infections and ensure patients can start treatment in a timely manner. They would likewise dismantle the NIH Fogarty International Center and, with it, programs that have long played a key role in training the next generation of HIV researchers.These changes threaten to set us back in the decades-long effort to develop a vaccine and other game-changing technologies to address HIV/AIDS, which were gathering momentum recently, with promising vaccine clinical trial results and the recent approval by the US Food and Drug Administration of an injectable HIV prevention drug (developed using evidence from NIH-funded research) that provides long-term protection—the next best thing from a vaccine. Delays and suspensions of ongoing research, as well as disrupted surveillance and services, could not only stall the development of the next generation of technologies, but also potentially lead to a resurgence of HIV in the United States and around the world.The bottom lineInvestments in global health R&D, including investments in emerging infectious disease and HIV/AIDS R&D, at NIH, CDC, BARDA, and other US agencies have demonstrated a huge return on investment, delivering 67 new technologies approved since 1999 for neglected and non-COVID emerging infectious diseases. Additionally, between 2007 and 2022, at least 86 percent of all funding that the US government directed to global health R&D was reinvested in American companies and institutions. This investment has created an estimated 600,000 new American jobs, spurred $104 billion in direct economic activity, and yielded scientific knowledge to inspire further innovations, which will ultimately generate $255 billion in long-term benefits to the American economy.  As the global heavyweight in biomedical R&D, NIH investments alone have generated hundreds of thousands of jobs and billions in new economic activity in every state (including the most rural ones), bolstering the American universities, research institutes, and businesses that make up the biomedical sector. And it pays off: every $1 received from NIH generates $2.46 on average in increased economic activity. In fact, we’re already beginning to see the dramatic economic fallout of this pullback in investment. These past investments have made America a global leader in biomedical innovation. As other countries start to pursue American researchers who have lost jobs and funding and China makes major investments and advances in life sciences R&D, for the first time surpassing the United States in drug clinical trials in 2024, America could fall behind. Investing in biomedical research is a tide that raises all boats and benefits cross-cutting health areas. In an era of great scientific opportunity but increased risks, this is the time to invest more and shore up the critical work at HHS agencies to boost the economy, America’s leadership on the world stage, and our ability to protect Americans and people around the world from an ever-increasing roster of longstanding and new health threats. 

Interested in more global health innovation news? Every week GHTC scours media reports worldwide to deliver essential global health R&D news and content to your inbox. Sign up now to receive our weekly R&D News Roundup email. Last week, scientists announced a new project, funded by Wellcome, to expand the use of a low-cost, field-deployable, and real-time viral genome sequencing technique that has been widely used to detect COVID-19 variants to cover a wider variety of pathogens, helping public health officials surveil known and unknown pathogens of concern and respond to outbreaks more quickly and effectively. The project, which includes an international team of researchers, is supported by the Africa Centres for Disease Control and Prevention, the Asia Pathogen Genomics Initiative, and the World Health Organization International Pathogen Surveillance Network, which will help ensure that the system is broadly accessible around the world, even in places with limited resources and laboratory infrastructure.Harvard University researchers have found a drug combination that can kill the malaria parasite directly in mosquitoes so they can no longer spread the disease. Given the drugs can be absorbed the legs of mosquitoes, the goal is to create a cheap, long-lasting tool that could be applied alongside insecticides to bed nets in malaria-endemic regions. As resistance to the insecticides used on bed nets rises, this new method is less likely to lead to the emergence of resistance. The drugs, which were tested on materials similar to bed nets in a laboratory setting, killed 100 percent of the parasites. The method will be next tested in a real-world study in Ethiopia.A research team at Institut Pasteur has started a project testing a new rapid diagnostic that could detect the presence of the Plasmodium vivax malaria parasites early on after the initial mosquito bite—before symptoms arise—, helping patients receive appropriate treatment faster. Specifically, the researchers intend to design a test that can detect the presence of the parasite in blood samples from individuals whose infection is in the dormant liver stage, when it is difficult to detect infection. The project, which will run through 2030, has received around €6 million in funding from the European Union, as well as the British and Swiss governments.