Abstract
The history of pharmacovigilance started back 169 years ago with the death of a 15-
year-old girl, Hannah greener. However, the Thalidomide incident of 1961 brought a sharp change
in the pharmacovigilance process, with adverse drug reaction reporting being systematic, spontaneous,
and regulated timely. Therefore, continuous monitoring of marketed drugs was essential to
ensure the safety of public health. Any observed adverse drug reaction detected by signals was to
be reported by the health profession. Moreover, signal detection became the primary goal of pharmacovigilance
based on reported cases. Among various methods used for signal detection, the
Spontaneous Reporting System was most widely preferred; although, it had the limitation of "under-
reporting”. Gradually, the World Health Organization collaborating centre and “Uppsala Monitoring
Centre” were established in 1978 for international monitoring of drugs. The centre was responsible
for operating various databases like vigiflow, vigibase, vigilyze, and vigiaccess. Recently,
huge data could be generated through spontaneous reporting linked with computational methods,
such as Bayesian Framework, E-Synthesis.
Furthermore, drug safety surveillance at an early stage prior to the official alerts or regulatory
changes was made possible through social media. In addition, India created a National Pharmacovigilance
Program, and Schedule Y of the Drug and Cosmetic Act 1945 was reviewed and
amended in 2005. The collaboration of Information Technology and Pharmaceutical Company can
further enhance the awareness regarding artificial intelligence in pharmacovigilance, which was in
its infancy until 2017. Artificial intelligence helps improve the quality and accuracy of information
much quickly.
Keywords:
Adverse drug reaction (ADR), artificial intelligence (AI), National Pharmacovigilance Program (NPP), pharmacovigilance (PV), Spontaneous Reporting System (SRS), Uppsala Monitoring Centre (UMC), World health organization (WHO).
Graphical Abstract
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