Herpes is a widespread sexually transmitted infection caused by the herpes simplex virus (HSV).
The World Health Organization estimates that over 3.7 billion people under the age of 50 – or 67% of the world population – have HSV-1 infection, while another 417 million people have HSV-2 infection, which is predominantly sexually transmitted. Currently, there is no cure for herpes, and most treatment options only address the symptoms, rather than eliminating the virus. However, a recent discovery suggests that the cure for herpes might be found at the ocean floor.
The Ocean Floor and its Secrets
Approximately two-thirds of the Earth’s surface is covered by water, with vast and deep oceans that are home to a variety of marine organisms.
The ocean floor, in particular, harbors a wealth of microbial life that scientists have only recently begun to explore. Microorganisms found at the bottom of the ocean are often able to withstand extreme conditions of pressure, temperature, and salinity and have been identified as a source of bioactive compounds with potential therapeutic applications.
Herpes Treatment Breakthrough
In 2019, a research team led by Deepak Chopra, a microbiologist at New York Medical College, set out to investigate deep-sea sediments collected off the coast of Japan to identify new compounds that could fight herpes.
The team isolated a strain of bacteria, tentatively named JBIR-130, that produced a molecule with potent antiviral activity against both HSV-1 and HSV-2.
Chopra and his team have since been working to develop a drug based on this molecule, which they believe could offer a cure for herpes. Unlike other herpes treatments, this molecule targets the virus itself, rather than only addressing the symptoms.
The researchers believe this molecule could potentially be used to treat many other viral diseases, including HIV and hepatitis C, but further testing is needed to confirm this.
How Does It Work?
The study revealed that the molecule produced by JBIR-130 interferes with the replication of herpes viruses by targeting a protein that is essential for their survival.
Specifically, the molecule binds to the helicase-primase complex, an enzyme that herpes viruses use to replicate their DNA. By preventing the replication of the virus, the molecule offers a potential cure for herpes.
What’s Next?
The next step for Chopra and his team is to carry out more in-depth studies on the molecule’s structure and function, to identify potential side effects, and to optimize the compound’s effectiveness.
The eventual goal is to develop a drug based on this molecule that can be tested in clinical trials. Chopra believes that the drug could be ready for use in humans within the next five to ten years.
Final Thoughts
The discovery of a new molecule with potent antiviral activity against herpes is exciting news for those suffering from this widespread and debilitating condition.
While there is still a long way to go before a cure for herpes is realized, the potential offered by the oceans’ microbial life is increasingly becoming apparent. Who knows what other treasures may be found lurking in the depths of the ocean floor?.