Antibiotic resistance: now’s the time to prevent the next pandemic
Read time: 4 mins
03 November 2021
But the cornerstone is crumbling. Antibiotics are becoming less effective due to bacteria evolving to become more resistant to drugs, a process referred to as “antimicrobial resistance” or AMR. AMR is compounded by misuse and overuse of antibiotics in both humans and animals.
At least 700,000 people die every year due to antibiotic drug-resistant diseases. Left unchecked, the death toll could rise to 10 million a year by 2050. “As we begin to emerge from COVID-19 and think about how to better protect ourselves against infectious disease, the time to tackle AMR is now,” says John Billington, head of health security and infectious disease policy and advocacy, at GSK.
So why are there not enough new antibiotics?
Despite the consequences of AMR, there is a lack of new antibiotics making it to market and the current pipeline is widely recognised as insufficient. For example, there are currently approximately 40 antibiotics in clinical development, of which only a handful are considered novel, and only one new class of antibiotics has been launched in recent decades.
Developing new antibiotics is very difficult, both scientifically and financially. Research and development of any new medicine or vaccine is high-risk, despite significant investment and expertise. The development of antibiotics presents particular scientific challenges. Bacteria evolve to avoid attacks by chemicals. They rapidly adapt to hostile environments, can double every 20 minutes and have mastered the art of antibiotic resistance.
This often creates the need for very large doses of antibiotics to ensure bacteria are effectively killed; but it is very difficult to discover medicines that are both highly effective and sufficiently safe at these high doses.
And there’s a financial quandary. To help stave off resistance, new antibiotics created today are often held in reserve and used sparingly. This means that pharmaceutical companies do not tend to recover their costs in researching and developing these medicines, stifling future investment.
Case study: rising resistance and urinary tract infections
Uncomplicated urinary tract infections (uUTIs) are one of the most common infections in the community – affecting around half of women in their lifetime. uUTIs are treated with antibiotics, but E. coli bacteria, the main cause of uUTI, is showing increasing resistance in communities.
Inappropriate use of antibiotics may fuel the rising antibiotic resistance of bacteria, making it harder for doctors to treat common infections such as uUTIs. Which is why we must take this moment to reset and stand for appropriate treatment of uUTIs. Watch the video to find out more.
What happens now?
“COVID-19 has taught governments and innovators two critical lessons when it comes to tackling AMR and infectious disease across the board,” says John. “First, time is not on our side – for many, antibiotics may be effective, but we cannot afford to wait while AMR continues to accelerate at pace.”
“Second, we need to draw on the full gamut of our scientific firepower including antibiotics, vaccines, and other potential complementary interventions like monoclonal antibodies.”
At GSK, our history in developing and supplying antibiotics goes back more than 70 years. Where some other companies have scaled back their antibiotic research, we have continued to search for new tools to prevent and mitigate infectious disease – and get ahead of AMR.
As well as investigating potential therapies, we currently have several vaccines programmes in clinical development to investigate their potential to help combat AMR. Vaccines can help with sustaining protection against resistance because they help prevent infections occurring in the first place, as well as transmission of bacteria that are already resistant (or becoming resistant) to existing therapies.
Over the past two years, we have more than doubled our vaccines research programmes that could help fight AMR. Those efforts are underpinned by multiple new technologies – and sometimes combinations of them – that could transform the way we develop vaccines and help broaden the protection they offer.
How can vaccine science help fight antimicrobial resistance?
Vaccines are an important, yet underused tool, in tackling AMR.
What else is needed to help get ahead of AMR?
COVID-19 has shown that a suite of tools is needed to enable a faster response to infectious disease emergencies. The UK government’s subscription payment model for antibiotics has the potential to be transformative; we hope other countries will follow the UK’s lead in devising creative solutions to incentivising innovation. One example is in the US where – if Congress approves – the PASTEUR Act would create a sustainable financial incentive for novel antimicrobials while also promoting appropriate use of antimicrobials in the US healthcare system.
Nobody can outwit AMR alone. Partnerships and collaborations across the public and private sector are key. For example, we worked with organisations including the US government’s Biomedical Advanced Research and Development Authority (BARDA) and the Defense Threat Reduction Agency.
Surveillance and stewardship are the other pieces of the jigsaw. Everyone needs to use existing antibiotics wisely. COVID-19 reinforced the need for strong frameworks for collecting, using and sharing data. Likewise, we need rigorous surveillance systems, especially in the community, to stay ahead of resistant bacteria and enable early R&D for AMR pathogens.
“With the right partnerships and models in place to proactively and sustainably fund new technologies, we can get ahead of AMR together,” adds John. “Before it’s too late.”
Addressing the next pandemic
This infographic provides an overview of the AMR-related challenges we face. Using E. coli in uUTIs as an example, it illustrates the impact on patients and how GSK is committed to helping.
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