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Identification of High-Frequency Drug Combinations for Perimenopausal Syndrome and Associated Conditions via Multilevel Association Rule Mining and Network Pharmacology

This study integrates association rule mining and network pharmacology to identify high-frequency herbal combinations and their underlying molecular mechanisms for treating perimenopausal syndrome and its associated anxiety, depression, and insomnia, thereby supporting the traditional principle of "treating different diseases with the same approach."

Original authors: Hao Wang, Haoran Li, Yixuan Wang, Ruolan Zhang, Meixi Wang, Suyang Ma, Xinrui Men, Haoxiang Li, Yuelin Huang, Liqun Yu, Hao Li

Published 2026-09-25
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Original authors: Hao Wang, Haoran Li, Yixuan Wang, Ruolan Zhang, Meixi Wang, Suyang Ma, Xinrui Men, Haoxiang Li, Yuelin Huang, Liqun Yu, Hao Li

Original paper licensed under CC BY 4.0 (https://creativecommons.org/licenses/by/4.0/). ✨ This is an AI-generated explanation of the paper below. It is not written or endorsed by the authors. For technical accuracy, refer to the original paper. Read full disclaimer

For millions of women, the transition into menopause is not merely a biological milestone but a complex shift in well-being that often brings a cluster of challenging symptoms. While the physical changes are well known, the accompanying mental and emotional struggles—anxiety, depression, and sleeplessness—can be just as disruptive, creating a tangled web of discomfort that is difficult to untangle with a single pill. In the realm of traditional medicine, particularly within the ancient systems of China and Korea, healers have long approached such complex conditions not by targeting a single symptom, but by using carefully balanced combinations of herbs to restore the body's overall harmony. However, the logic behind which specific herbs work best together has often remained a matter of centuries-old experience rather than modern data. Scientists are now turning to powerful computer tools to decode these ancient prescriptions, looking for patterns in vast historical records that can reveal which herbal pairings are most effective for specific ailments and how they might work on a molecular level.

A team of researchers from China has taken this approach to investigate perimenopausal syndrome and its common companions: anxiety, depression, and insomnia. Instead of testing herbs in a lab one by one, they first fed thousands of historical medical records into a computer system designed to find patterns. This system, known as association rule mining, acts like a highly efficient librarian that can scan millions of pages to find which items appear together most often. The researchers asked the computer to look for specific groups of herbs that repeatedly showed up in prescriptions for perimenopause, anxiety, depression, and sleep disorders. The computer identified several high-frequency combinations that stood out. For the core symptoms of perimenopause, the most common trio found in the records was angelica, ligusticum, and rehmannia. For anxiety, the data pointed to combinations involving bamboo, citrus, and ginger. For insomnia, prescriptions frequently paired ginseng with Aucklandia and ginger, while depression treatments often featured wheat, ligusticum, and forsythia. These findings were not random; the researchers verified them by checking how closely the targets of these herbs matched the biological pathways of the diseases, confirming that these specific groupings were indeed significant.

Once the most promising herbal combinations were identified, the researchers wanted to understand what chemical ingredients within those plants were doing the actual work. They isolated the specific compounds found in the top herbal groups and ran them through the same pattern-finding process to see which individual molecules were most strongly linked to the conditions. This step narrowed the field down to six key compounds: reduced glutathione, D-tryptophan, linalool, gamma-aminobutyric acid (GABA), folic acid, and resveratrol. To understand how these chemicals might help, the team built a digital map of the human body's proteins and genes, looking for the specific targets these compounds would hit. They discovered that these six compounds interact with a network of genes that are central to the body's stress response, mood regulation, and sleep cycles. Among the most important targets they found were three specific genes: ESR1, which is a receptor for estrogen; MYC, which helps regulate cell growth; and APP, a protein that has been linked to both brain function and the conditions being studied. The analysis suggested that these compounds work together to influence these genes, offering a scientific explanation for why the ancient herbal formulas might be effective.

To ensure these interactions were not just theoretical, the researchers used advanced computer simulations to watch how the molecules behaved in a virtual environment. They modeled the six key compounds binding to their target proteins and observed the stability of these connections over a simulated period of 100 nanoseconds. The results showed that the compounds held onto their targets tightly and stably, much like a key fitting securely into a lock. For instance, resveratrol was seen binding strongly to the estrogen receptor, while GABA interacted with proteins involved in calming the nervous system. These simulations provided a visual and quantitative confirmation that the identified compounds are physically capable of influencing the biological mechanisms associated with perimenopause and its related conditions. The study concludes that by combining the pattern-finding power of data mining with the molecular insights of network pharmacology, it is possible to validate the wisdom of traditional herbal combinations. The research suggests that these specific groupings of herbs and their active compounds offer a multi-target approach to treating the complex mix of symptoms that define perimenopausal syndrome, providing a data-driven foundation for future drug development and clinical testing.

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