AI SPACE TECH

Aerial and Satellite Images

1. AI and Machine Learning:

AI and machine learning are transforming geospatial analysis by enabling automated image recognition and pattern detection. These technologies can rapidly process massive datasets, identifying features and anomalies that would be challenging to detect manually.

Example: Deep learning algorithms can be trained to accurately identify land features such as roads, buildings, and vegetation.

Participated in research exploring AI/ML algorithms for automated detection of land features, improving accuracy and processing efficiency.

2. Cloud Computing

Cloud computing provides scalable infrastructure to manage the large datasets typical of geospatial analysis. It enables extensive storage and high-performance processing without the need for substantial on-site hardware.

Example: Platforms like AWS and Google Cloud allow storing and processing satellite imagery, supporting real-time analysis and collaboration.

Our team conducted research on leveraging cloud platforms to accelerate geospatial data processing and enable collaborative workflows.

3. Big Data Analytics

Big data analytics applies advanced techniques to extract meaningful insights from extremely large and complex datasets. In geospatial applications, these tools can handle the volume, speed, and variety of satellite and aerial imagery to produce actionable insights.

Example: Monitoring deforestation or urban expansion by analyzing temporal changes in satellite imagery.

Our Contribution: We contributed to research on applying big data analytics to geospatial datasets, identifying patterns and trends that support decision-making in environmental monitoring and urban planning.

Solution: The CGRADS Platform

CGRADS offers an innovative solution to streamline geospatial image analysis. The platform provides two main functionalities:

1. AI-Powered Query Scanning

Users can search and analyze geospatial images using AI-driven queries. The system interprets and executes these queries, making analysis more intuitive and accessible.

Example: A user inputs, "Find areas with high vegetation density." The platform processes the request and highlights the relevant regions in the satellite images.

2. Image-Based Search

Users can upload an image of a specific object or feature to locate similar instances across the geospatial dataset.

Example: A user uploads an image of a particular type of building. The platform then identifies and marks all similar buildings in the satellite and aerial imagery.

Benefits of CGRADS

  • Efficiency: Significantly reduces the time and effort required for manual inspection.

  • Accuracy: Enhances the accuracy of identifying critical details in geospatial images.

  • Accessibility: Makes advanced geospatial analysis accessible to non-experts through intuitive English queries and image-based searches.

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