Bisphenol A (BPA) is a common endocrine
disruptor widely
used in
the production of electronic, sports, and medical equipment, as well
as consumer products like milk bottles, dental sealants, and thermal
paper. Despite its widespread use, current assessments of BPA exposure
risks remain limited due to the lack of comprehensive cross-species
comparative analyses. To address this gap, we conducted a study aimed
at identifying genes and fundamental molecular processes consistently
affected by BPA in various species and tissues, employing an effective
data integration method and bioinformatic analyses. Our findings revealed
that exposure to BPA led to significant changes in processes like
lipid metabolism, proliferation, and apoptosis in the tissues/cells
of mammals, fish, and nematodes. These processes were found to be
commonly affected in adipose, liver, mammary, uterus, testes, and
ovary tissues. Additionally, through an in-depth analysis of signaling
pathways influenced by BPA in different species and tissues, we observed
that the JUN/FOS, EGFR, ER, PPARG, and P53 pathways, along with their
downstream key transcription factors and kinases, were all impacted
by BPA. Our study provides compelling evidence that BPA indeed induces
similar toxic effects across different species and tissues. Furthermore,
our investigation sheds light on the underlying molecular mechanisms
responsible for these toxic effects. By uncovering these mechanisms,
we gain valuable insights into the potential health implications associated
with BPA exposure, highlighting the importance of comprehensive assessments
and awareness of this widespread endocrine disruptor.