Engineering intelligent ai solutions
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Asif Patankar
Embedded AI human detection
Real-time drone-based human detection system
Developed an advanced AI-powered autonomous drone system with embedded human detection capabilities using NVIDIA Jetson Xavier NX, achieving real-time inference optimization for surveillance, search-and-rescue operations, and emergency response scenarios.
computer visioN
embedded systems
tensorrt optimization
drone integration
Project overview
To create an autonomous drone-based surveillance system capable of real-time human detection, I engineered a complete end-to-end solution involving custom drone assembly, AI model optimization, and embedded system integration. The project involved assembling a HolyBro drone, designing and 3D printing a custom payload module for NVIDIA Jetson Xavier NX integration, and implementing TensorRT-optimized AI models for efficient human detection during flight operations.
Achievements
- Hardware Integration: Successfully assembled HolyBro drone with custom 3D-printed payload module for seamless Jetson integration.
- Real-time Performance: Achieved optimized inference speeds using TensorRT optimization on resource-constrained embedded hardware.
- AI Model Deployment: Implemented advanced computer vision algorithms capable of accurate human detection from aerial perspective during live flight operations.
kiosk ground station software
One-click autonomous drone mission control system
Engineered a comprehensive ground station software solution using Qt framework with integrated MAVLink communication protocol, enabling seamless drone control and autonomous mission execution. The system features an intuitive KIOSK-style interface designed for operators to initiate complex flight missions with minimal technical expertise required.
qt development
ui/ux design
mavlink protocol
autonomous systems
Project overview
To streamline drone operations and reduce operator complexity, I developed a complete ground station software solution that bridges the gap between sophisticated autonomous flight capabilities and user-friendly operation. The project involved designing and implementing a Qt-based desktop application with custom UI components, integrating MAVLink communication protocols for real-time drone telemetry and control, and creating an intuitive workflow that allows operators to execute pre-planned autonomous missions through a single-click interface.
Achievements
- One-click Operation: Simplified complex autonomous mission execution to single-click interface for non-technical operators.
- MAVLink Integration: Successfully implemented full MAVLink protocol stack for reliable drone communication and telemetry monitoring.
- Custom Qt Interface: Developed intuitive KIOSK-style UI with real-time status monitoring, mission planning tools, and emergency control optimized for operational efficiency.
ai-powered change detection system
Advanced satellite imagery analysis and monitoring system
- Engineered sophisticated AI models for automated change detection in satellite and aerial imagery using advanced deep learning techniques. The project involved developing custom neural network architectures, implementing model optimization strategies, and creating robust algorithms capable of identifying temporal changes in geospatial data with high precision and accuracy.
deep learning
model optimization
computer vision
satellite imagery
Project overview
To address the growing need for automated monitoring of environmental and urban changes, I developed a comprehensive AI-powered change detection system capable of analyzing satellite imagery over time. The project involved designing custom deep learning architectures specifically optimized for change detection tasks, implementing advanced computer vision techniques for multi-temporal image analysis, and creating robust preprocessing pipelines for handling diverse satellite imagery formats and resolutions.
Achievements
- Enhanced Accuracy: Developed custom AI models that significantly improved change detection accuracy compared to traditional methods through advanced optimization techniques.
- Model Optimization: Successfully implemented model compression and optimization strategies for efficient deployment while maintaining high performance metrics.
- Scalable Solution: Created robust algorithms capable of processing large-scale satellite imagery datasets for real-world geospatial monitoring applications.
More Projects Coming Soon
Expanding AI research portfolio
Currently developing additional showcase materials for my 3D reconstruction systems, autonomous navigation projects, agricultural AI solutions, smart city monitoring systems, and mobile AI applications. Each project demonstrates advanced technical expertise in machine learning. computer vision, and embedded systems development.
Check back for updates
- 3D Reconstruction Systems (NVIDIA Minkowski Engine)
- Autonomous Wheelchair Navigation (Calibration)
- Agricultural AI - Radish Wilt Detection
- Recycling Classification System
- Smart City Video Processing
- Sewer Inspection AI
- Cross-Platform Mobile AI
- Thermal Image Processing
- Tablet Inspection Systems