April 15, 2025
By Hubert Brychczynski
Geospatial,
Machine Learning,
Artificial Intelligence,
Geospatial Data,
Location Intelligence,
Geospatial Analytics
Benedetto Proietti, Big Data Architect at Janea Systems, recently hosted a podcast conversation with Robert Cheetham, where they explored the evolving role of geospatial technology in business.
Cheetham, a veteran in both landscape architecture and software development, emphasized a fundamental point: mapping the Earth is far from simple. From tectonic drift to satellite distortion, pinpointing real-world coordinates involves more complexity than most people realize.
Yet, this complexity gives rise to opportunity. Once mapped, geospatial data opens up a world of possibility for urban planners, delivery networks, and retail services, among others. As Cheetham noted, nearly 80% of all business data contains a geospatial component. Smart software engineering can unlock immense value from it.
To truly grasp the scope of geospatial innovation, it helps to break the field down into three elements:
Geospatial AI (or GeoAI) combines traditional geospatial analytics with modern artificial intelligence - especially machine learning and deep learning.
GeoAI systems can learn from complex spatial patterns, make predictions, and even automate decisions that once required manual analysis. This powerful fusion helps organizations:
From retailers optimizing store locations to governments modeling natural disasters, GeoAI is reshaping industries by making geospatial intelligence smarter, faster, and predictive.
At first glance, traditional geospatial analytics and GeoAI may look similar. Both deal with maps, coordinates, and spatial data. The difference is that GeoAI adds an element of automation and prediction. Geospatial analytics explains the past and present. GeoAI anticipates the future.
Geospatial analytics relies on classic statistics. GeoAI uses machine learning to learn from patterns, deep learning to interpret complex data (like satellite imagery), and real-time processing to evolve with each new input.
Table 1 compares geospatial analytics and geoAI side-by-side:
Aspect | Traditional Geospatial Analytics | GeoAI (Geospatial AI) |
---|---|---|
Methods | Statistical models, rule-based queries | Machine learning, deep learning |
Automation | Mostly manual | Highly automated |
Predictive Power | Limited | Strong (forecasting, trend prediction) |
Adaptability | Static (batch processing) | Dynamic (real-time updates) |
Use Case Example | See where sales happened last month | Predict where sales may happen next month |
Table 1: Traditional Geospatial Analytics versus GeoAI
Example: A retailer using geospatial analytics might identify high-traffic areas in the city. With GeoAI, they could go a step further: predict which areas will become high-traffic next quarter, and adjust prices or stock levels accordingly.
Geospatial AI isn’t a niche anymore. It’s going mainstream fast.
According to a recent study (see Figure 1), the global Geospatial Analytics Artificial Intelligence Market is forecast to skyrocket from $60.4 billion in 2025 to over $470 billion by 2034, growing at an eye-popping 25.7% CAGR over that period. For context, the market already hit $47.7 billion in 2024, showing strong early momentum.
This surge reflects what we’re already seeing: enterprise demand for location-intelligent, AI-driven systems is rapidly growing, from supply chain optimization to climate risk assessment.
The question is no longer if businesses will adopt GeoAI - but how fast they can deploy it to outpace the competition.
The power of GeoAI stems from the combination of geospatial technologies and artificial intelligence.
The diagram below (Figure 2) shows this relationship and highlights where these fields connect to drive smarter, location-aware services.
Table 2 below explores further how each of these technologies contributes to GeoAI:
Enabling Technologies
Technology | How It Powers GeoAI |
---|---|
Coordinate Systems | Enables standardization of how we locate things on Earth with frameworks like WGS84 and EPSG:3857. |
Remote Sensing | Collects Earth observation data from satellites and drones for analysis of terrain, agriculture, infrastructure, and more. |
Deep Learning | Extracts patterns from complex geospatial inputs to recognize terrain types, crop health, etc. |
Machine Learning | Learns spatial patterns and makes predictions based on satellite imagery, GPS tracks, and geotagged social data. |
Natural Language Processing (NLP) | Pulls insights from geotagged data, such as tweets, news, photographs, and more. |
Computer Vision | Detects and classifies land features or changes over time via imagery. |
Geospatial Foundation Models | Consist of specialized deep learning models (like Prithvi-100M or Segment Anything) pre-trained for geo-specific tasks. |
Table 2: Technologies supporting GeoAI
Emerging consumer and industry trends also converge to support the development and adoption of GeoAI with real-time location data (Table 3):
Trend | Why It Matters |
---|---|
IoT Expansion | Billions of connected devices, such as smartphones, wearables, and vehicles, constantly generate and broadcast location. |
Location Services | From delivery apps to social media check-ins, location sharing is now ubiquitous. |
Table 3: Trends supporting GeoAI.
Geospatial AI isn’t a one-size-fits-all tool. It’s a powerful technology capable of reshaping how different businesses work, plan, and grow.
Every industry can couple GenAI with real-time geospatial data and make reliable predictions based on demographic shifts, customer habits, weather and traffic conditions, and more. Table 4 shows just a few examples:
Industry | GeoAI Use Cases |
---|---|
Retail | Identify ideal new store locations based on spending patterns and population growth. |
Transportation & Logistics | Reroute delivery trucks in real time to avoid congestion and delays. |
Real Estate | Analyze housing trends and map investments in relation to schools and public transit. |
Smart Cities & Urban Planning | Monitor heat islands, optimize traffic flow, and predict how development will affect land use. |
Agriculture & Environmental Science | Oversee crop health, forecast yields, and manage water use. |
Insurance & Risk Assessment | Detect early fire risks with real-time satellite data, vegetation maps, and wind forecasts. |
Energy & Utilities | Manage water and energy resources by analyzing rainfall, groundwater reservoirs, and water flow patterns. |
Table 4: GeoAI use cases across industries.
GeoAI sits at the crossroads of two demanding disciplines: location intelligence and AI engineering.
But as Robert Cheetham noted in our recent podcast conversation, great developers often outperform geospatial experts when building mapping applications. Why? Because engineers with just enough domain knowledge can deliver exceptional results without needing to become geospatial specialists themselves. The reverse, however, is rarely true.
At Janea Systems, we take that insight seriously. That’s why we hire world-class AI engineers with hands-on experience in both AI and geospatial.
Here’s a look at a few projects that showcase our expertise:
GeoAI is powerful, but only if it's built right. Janea Systems brings together elite AI engineers and real-world geospatial experience to help you move fast and build smart.
Ready to turn location data into business intelligence? Let’s talk.
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