Globeholder.ai develops Planetary Physical Reasoning AI that understands physics, geography, and cause and effect across the planet. This technology provides organizations with real-world foresight to anticipate risk and understand change grounded in physical reality. The platform integrates easily to boost accuracy and unlock "what-if" scenario intelligence for sectors like insurance and energy.
Funding
Funding not disclosed

Founders
Product
Problem
Businesses often struggle to extract meaningful insights from geospatial data due to its complexity and the limitations of traditional analytical methods. Accurately predicting outcomes based on location data requires advanced techniques that can capture the nuances of spatial relationships and contextual factors. This challenge hinders effective decision-making in various location-dependent sectors.
Solution
Globeholder provides an API that delivers geospatial intelligence through global omni-context geospatial embeddings. These embeddings, generated by Geo-Transformer foundation models, enable mathematical operations on location data, facilitating the creation of feasibility heatmaps and predictive models. The API allows users to analyze locations at various scales, capturing the essence of a city block or continental patterns. By encoding fractal geometry through learnable high-dimensional coordinate projections and omni-scale spatial attention mechanisms, Globeholder enhances predictive accuracy for location-based decision-making.
Target Audience
The primary users are ML/AI teams and businesses across sectors like logistics, retail, and energy that require enhanced location-based decision-making capabilities.
Features
- Geo-Transformer architecture for encoding geospatial data and generating omni-context embeddings.
- Geo-embedding arithmetic for performing mathematical operations on location patterns.
- API access for integrating geospatial intelligence into existing systems.
- Generation of feasibility heatmaps for identifying optimal locations.
- Support for analyzing locations at various scales, from local to global contexts.
- High-dimensional coordinate projections and omni-scale spatial attention mechanisms.