Computer Vision Systems
Detection, tracking, OCR, ANPR, face recognition, pose analysis, and multi-camera video analytics.
I design and deploy reliable computer-vision systems for safety, security, logistics, manufacturing, and retail. My work spans the full delivery path—from data and model development to tracking, temporal decision logic, APIs, evidence generation, and edge inference.
Alongside production engineering, I conduct peer-reviewed research in computational healthcare. That research discipline shapes how I evaluate models, communicate uncertainty, and build systems that remain trustworthy outside a controlled experiment.
Detection, tracking, OCR, ANPR, face recognition, pose analysis, and multi-camera video analytics.
Dataset curation, training, evaluation, error analysis, and reproducible experimentation with PyTorch and TensorFlow.
Real-time inference on NVIDIA Jetson, TensorRT optimization, GPU Linux systems, and resilient RTSP processing.
Annotation workflows, versioned data, experiment tracking, validation, monitoring, and delivery pipelines.
FastAPI services, Docker, event queues, temporal rules, evidence generation, telemetry, and retryable integrations.
Applied research, subject-aware validation, explainability, signal processing, and peer-reviewed publication.
Representative contributions across industry implementation and applied research.
Built systems for banking, industrial safety, logistics, manufacturing, and retail environments.
FocusMultiple real-world domainsRead case studyEngineered an edge pipeline for container-code recognition with validation and telemetry integration.
FocusCheck digit + telemetryRead case studyDeveloped track-centric plate recognition with oriented detection, OCR validation, voting, and deduplication.
FocusDetection + OCR + trackingRead case studyArchitected tracking pipelines with temporal rules, evidence queues, and reliable downstream delivery.
FocusReal-time operational workflowsRead case studyDeployed and optimized computer-vision workloads for NVIDIA Jetson and multi-GPU Linux systems.
FocusEdge and GPU production stacksRead case studyFirst-authored peer-reviewed research on Bengali voice-based mental-health assessment.
FocusJournal of Voice · 2024Read case studyCollect, label, audit, and version representative datasets.
Train, validate, and analyze failure modes against strong baselines.
Connect inference to tracking, decision logic, APIs, and evidence.
Ship to edge or GPU infrastructure with monitoring and recovery paths.
My research covers Bengali voice-based mental-health assessment, spectrogram learning, Vision Transformers, explainability, and noise-robust evaluation. It strengthens the way I design experiments and validate production decisions.
End-to-end ownership across model development, deployment, and evaluation
Build and deploy production computer vision systems for enterprise safety, security, logistics, retail, and manufacturing workflows. Own the lifecycle from dataset and model development through RTSP processing, tracking and temporal rules, evidence generation, API integration, and NVIDIA Jetson or GPU deployment. Representative work includes ISO 6346 container-code OCR, Bangla ANPR, factory SOP and PPE monitoring, multi-camera banking surveillance, retail analytics, and industrial visual inspection.
Conducted applied research in Bengali voice-based mental-health assessment and interpretable medical AI under Dr. Md. Taimur Ahad. Developed spectrogram-based CNN and Vision Transformer experiments and studied model interpretation. Continued research beyond this appointment explores recurrent hybrids and self-supervised speech representations. First author of a peer-reviewed Journal of Voice article and contributor to continuing work on robust, subject-independent evaluation.
Formal training supporting applied machine learning and systems engineering
Daffodil International University (DIU), Dhaka — CSE 55 Batch
A Novel Interactive AI-Based Tool for Detecting Mental Stability Through Analysis of Human Voice
The undergraduate thesis experiments reported ~96% accuracy on their study setup. The later peer-reviewed Journal of Voice work used a different evaluation design and reported ~91% accuracy with ~0.97 ROC-AUC.
Supervisor: Dr. Md. Taimur Ahad (Associate Professor, Associate Head, Dept. of CSE; Coordinator, 4IR Research Cell, DIU)