Initializing Core Systems
AI & Machine Learning

Alzheimer's Disease Classification using Deep Learning

Multi-class MRI scan neural classifier utilizing neuroimaging data to identify Cognitive Normal, MCI, and AD categories. Graduation project implementation.

Data Modality

Neuroimaging MRI

Diagnostic Classes

CN vs MCI vs AD

Neural Network

3D Deep CNNs

Application Domain

Medical AI

The Bottleneck

Problem Statement

Early diagnosis of Alzheimer's Disease is key to slowing progression, yet analyzing structural MRI scans manually is subjective and time-consuming, while automated systems struggle to distinguish Mild Cognitive Impairment (MCI) from standard cognitive age decay.

The Architecture

Implemented Solution

Designed and implemented a multi-class deep learning classifier to categorize MRI brain scans into Cognitive Normal (CN), Mild Cognitive Impairment (MCI), and Alzheimer's Disease (AD) using advanced neural network architectures.

System Processing Pipeline

1

Data Ingestion

Ingestion and parsing of neuroimaging dataset coordinates.

2

3D Preprocessing

Slice alignment, skull stripping, and normalization of MRI volumes.

3

Classification Model

Custom deep CNN models trained on structural brain features.

4

Diagnostic Console

UI overlay showing brain activation maps and classification confidence.

Telemetry & Execution Telemetry

LIVE NODE MONITOR
ACTIVE: 8 NODESGPU: 92% AVG
INFERENCE QUEUE

11,204 QPS

VRAM CONSUMPTION

62.4 GB / 80GB

GRADIENT BUBBLES

0.02ms sync

Pipeline Technology Stack

TensorFlowKerasPythonNibabelscikit-learnMatplotlib

Technical Challenges & Mitigations

Challenge

Class imbalance in medical imaging datasets (more CN cases than AD/MCI).

Mitigation

Implemented synthetic minority over-sampling, weighted loss functions, and custom data generator schedules to balance inputs.

Lessons Learned

  • Data normalization is the most critical stage in neuroimaging; variations in MRI scanner configurations degrade model generalization.
  • 3D spatial convolutional kernels yield superior classification recall over naive 2D slice modeling.

Future Optimizations

  • Support multimodal inputs combining demographic data, gene expressions, and MRI scan parameters.
  • Integrate with clinical workflow software using DICOM standards.