Meningitis is a serious illness brought on by inflammation of the membranes that
edge the brain and spinal cord. To lower the risk of serious complications and
death early and precise diagnosis is crucial especially for bacterial meningitis.
Conventional diagnostic methods on the other hand frequently have poor
accuracy lag in processing and a failure to evaluate the marginal influence of
disease characteristics. This study suggests a novel hybrid framework that
combines Informative Ant Colony Optimization (IACO) and Belief Bidirectional
Neural Network (B2N2) for efficient meningitis detection in order to overcome
these limitations. The first step in the suggested system is data preprocessing
which uses Z-Score Normalization (ZSN) to scale the dataset and eliminate
outliers. The marginal contribution of each feature is then estimated using the
Meninges Affect Rate (MAR) algorithm. The IACO approach optimizes feature
selection to improve classification relevance based on MAR scores. Lastly the
B2N2 model uses a belief-driven bidirectional learning approach to classify the
data. The suggested framework outperforms current techniques like SegResNet
Gradient Boosted Trees (GBT) and Multiple Logistic Regression (MLR) with an
improved classification accuracy of 94–25% according to experimental results. The
framework also performs better on important metrics like time complexity F1-
score recall and precision. These outcomes demonstrate the B2N2-IACO
approaches potential as a scalable and trustworthy diagnostic method for
meningitis detection in real time.
Keywords: Meningitis disease, Conventional approaches, marginal rate, Belief
Bidirectional Neural Network (B2N2), and IACO.