The Problem with Local Trust

The core issue appears to be one of local network architecture. In its original implementation, if a user enabled “Share Location” in the Starlink debug settings, the dish would broadcast its coordinates to any device on the local area network (LAN) without requiring authentication.
In a world of “Zero Trust” architecture, this is a significant vulnerability. Any compromised IoT device on the same Wi-Fi network—from a smart fridge to a cheap security camera—could silently poll the dish for its exact physical coordinates. Furthermore, mobile apps that usually require OS-level permissions to access a phone’s GPS could bypass those restrictions entirely by simply “asking” the Starlink dish over the Wi-Fi.

Geopolitics and Kinetic Risk

Beyond the digital privacy concerns, there is a very real physical safety dimension. Starlink has become critical infrastructure in modern conflict zones.
In these environments, location data is a weapon. By leaving a local, unauthenticated API active, SpaceX was inadvertently creating a “homing beacon” for anyone who could gain even a foothold on a local network. If a terminal’s coordinates can be scraped via a simple script, that terminal (and the people using it) becomes a target for kinetic strikes. By moving this data behind an authenticated, cloud-based wall, SpaceX is essentially “hardening” the terminal against being used as a targeting coordinate source.

The Impact on the “Resilient PNT” Community

The removal is a blow to those looking for Resilient Positioning, Navigation, and Timing (PNT). Many maritime users relied on the Starlink location as a “sanity check” against their primary GPS. Because Starlink operates in Low Earth Orbit (LEO) with high-gain directional antennas and complex encryption, it is significantly harder to spoof than traditional MEO-based GNSS signals.
While the “pseudo-GPS” wasn’t a formal service, it was a proof-of-concept for how LEO constellations can serve as a backup to our aging GPS infrastructure.

Where do we go from here?

SpaceX isn’t removing location data entirely; they are shifting it to their Telemetry API. The catch? This is largely an enterprise-facing feature, likely requiring higher-tier subscriptions and proper authentication tokens.
This move signals the end of the “Wild West” era of Starlink data. As the platform matures from a disruptive startup service into a piece of global critical infrastructure, the “fun” features that allow for easy tinkering are being traded for the “boring” but necessary features of security and liability management.
For the geospatial professional, it’s a reminder that even the most innovative positioning sources are ultimately beholden to the security requirements of the platforms they run on.

But the tectonic plates of artificial intelligence are shifting. As a recent MIT Technology Review piece highlighted, the frontier of AI is rapidly advancing beyond Large Language Models (LLMs) that merely predict text, toward “World Models” that simulate physical reality. Driven by visionaries like Fei-Fei Li (World Labs), Yann LeCun at Meta, and heavily funded initiatives from Google DeepMind and OpenAI, world models seek to endow AI with spatial, physical, and causal “intuition” if not understanding!

For the geospatial industry, this represents far more than a software update. It is the paradigm shift we often talk about. It threatens the core business models of traditional data providers and GIS toolmakers alike, forcing us to confront a profound philosophical question: what happens when the market for our digital representations of the Earth transition from measured realities to synthetic, probabilistic simulations?

The Brittleness of Language vs. The Geometry of the Map

To understand the specific nature of this disruption, we must first dispel a common misconception about the capabilities of current AI. The MIT Technology Review highlighted a fascinating study where an LLM was asked to navigate a simulated New York City. The model could flawlessly recite turn-by-turn directions from one point in Manhattan to another based on its training data. However, the moment it was forced to take a detour, it failed catastrophically.

This failure was not a critique of modern mapping technology; it was a glaring exposure of the LLM’s spatial brittleness. The LLM was simply predicting the next logical word in a sequence. It had no “mental map” of New York, no understanding of intersecting grids, and no intuition for spatial workarounds.

Traditional geospatial routing—the kind powering Google Maps or a HERE navigation system—does not suffer from this specific brittleness. If a water main breaks on 5th Avenue and the road is closed, traditional routing algorithms instantly recalculate the optimal path. They do this brilliantly using established mathematical models (like Dijkstra’s algorithm) applied to a highly structured database of road networks.

However, this traditional system, while mathematically robust, is fundamentally rigid. It is a series of hard-coded spatial queries run against a static database. The routing algorithm doesn’t “know” what a water main break is, nor does it understand the physical physics of traffic flow; it merely knows that a specific line segment on a graph now has an infinite time-penalty, so it searches for the next mathematically shortest line segment.

This is the exact limitation that World Models are being built to solve.

From Models to Engines

A World Model does not just query a database of street nodes; it simulates the environment itself. It operates much closer to human spatial intuition. If a human encounters a blocked street, they don’t just calculate the next mathematically viable sequence of turns; they understand the physical constraints of the neighbourhood, the flow of pedestrians, the width of the city streets, and the likely downstream effects of the blockage.

World Models aim to give AI this causal and physical understanding of the environment. Google DeepMind and World Labs are already building models that generate interactive, 3D virtual environments from simple prompts. These aren’t just pretty 3D pictures; they are physics-aware models.

For the geospatial industry, the leap from a “database of coordinates” to a “causal simulation of reality” renders traditional methodologies incredibly vulnerable. If an AI can natively understand spatial relations, cause-and-effect, and physical geometry, the old way of managing spatial data begins to look like using an abacus in the age of the microchip.

The Commoditisation of “Ground Truth”

The most immediate and existential threat will be felt by the geospatial data companies—the maintainers of the map. Firms like HERE and traditional surveying organisations like the Ordnance Survey possess immense competitive moats because they own proprietary, high-precision, heavily curated datasets. Their entire product is verified “ground truth.”

World models threaten to commoditize this ground truth by generating it synthetically and continuously. The article notes that Niantic (the creators of Pokémon Go) is utilizing billions of crowdsourced smartphone images to build the pieces of a spatial world model to guide delivery robots. This bypasses the need for traditional, centralised mapping fleets.

More radically, world models possess the ability to interpolate and probabilistically generate spatial data. If a World Model has ingested enough video data of a city’s architecture, street widths, and typical traffic patterns, it doesn’t necessarily need a fresh LIDAR scan of a specific side-street to know what is there. It can probabilistically simulate the street, complete with physics-compliant surfaces, lighting, and spatial boundaries, on the fly.

If the tech giants can generate real-time, interactive 3D simulations of any environment using a mix of text, scattered crowdsourced video, and predictive spatial intelligence, the business model of selling static, highly expensive HD maps faces an inevitable collapse. The data companies will be forced into a painful pivot: their vast historical archives will be incredibly valuable as initial training data for these models, but once the models are robust, the ongoing value of traditional, manual map updates will plummet.

They must transition from selling records of the past to facilitating predictions of the present.

The Toolmakers’ Dilemma: ESRI and the Generative Leap

While data companies face commoditisation, the software toolmakers like ESRI face the threat of obsolescence through user-interface revolution. ESRI’s ArcGIS is the undisputed heavyweight of spatial analytics. It is an indispensable tool for urban planners, environmental scientists, and logisticians.

Yet, GIS is fundamentally analytical and representational. The workflow is manual and layered: a user imports data, applies spatial joins or buffers, runs a query, and outputs a 2D or 3D visualization.

World Models represent a leap from the analytical to the generative. Instead of an emergency planner using GIS software to overlay a flood-risk polygon onto a city map to calculate affected building footprints, a World Model allows the planner to simply prompt: “Simulate a Category 4 hurricane hitting the Miami coastline at high tide, and highlight structural failures in residential zones.” The model—understanding the physics of fluid dynamics, the structural integrity of different building materials based on historical data, and the 3D topography of the city—would generate a real-time, interactive simulation of the disaster. The user isn’t joining tables or managing shapefiles; they are conversing with a physics-engine that understands geography.

If AI systems can natively execute complex spatial workflows through natural language and return interactive simulations, the traditional GIS interface becomes a bottleneck. To survive, ESRI and its competitors cannot continue with their current approach of just bolting an LLM chatbot onto their existing software. They must fundamentally rebuild their platforms, transitioning from passive repositories of spatial layers into active, world-simulating engines.

The Philosophical Chasm: The Map That Dreams

Beyond the shifting corporate landscapes and disrupted business models lies a profound philosophical dilemma. The geospatial industry has always been anchored to a sacred concept: absolute fidelity to physical reality. The map is a contract of truth. If a map says a road exists, the road must exist.

But as we transition to World Models, we enter the territory famously described by French philosopher Jean Baudrillard in Simulacra and Simulation, referencing the analogy of Borges’ Map. Baudrillard theorised a state where the simulation of reality, as illustrated by the famous short story of Borges’ Map, becomes so pervasive and detailed that it precedes and eventually obscures the real world—where the map becomes the territory.

World Models are inherently probabilistic. When a system generates a 3D environment based on a mix of real data and predictive algorithms, it is not merely recalling reality; it is hallucinating a highly plausible reality based on statistical weights.

What happens when we begin to run our physical world based on the outputs of a synthetic simulation?

If an autonomous vehicle navigates a city street using a generative world model rather than a deterministic HD map, it is navigating a probabilistic representation of that street. If the model statistically determines that a dark patch of asphalt is likely a shadow rather than a pothole, or that a newly constructed glass facade reflects open sky, the synthetic world clashes violently with the real one.

The well-documented danger of LLMs is that they confidently hallucinate facts. The impending danger of World Models is that they confidently hallucinate reality.

For a traditional cartographer, an error is a mislabeled street—a verifiable departure from ground truth that can be manually corrected. But in a World Model, the concept of ground truth is fluid. If an urban planner uses a world model to redesign a traffic intersection, and the model subtly hallucinates the turning radius of a delivery truck because its internal physics engine approximated the data, the resulting real-world concrete will be poured based on a synthetic lie.

We are moving from an era of cartography to an era of spatial generation. The cartographer meticulously measures what is; the generative AI probabilistically dreams what might be.

Navigating the Uncharted

The developments discussed by MIT Technology Review—the reallocation of OpenAI’s resources toward world simulation, the birth of World Labs, the laser focus of the industry’s brightest minds—are the latest warning sirens for the geospatial sector.

The era of the static, queried map is drawing to a close.

Legacy companies have survived massive technological shifts before, evolving from paper charts to digital databases, and from desktop software to cloud infrastructure. But the rise of the World Model is entirely different. It is not a new medium for displaying spatial data; it is a fundamental replacement for how spatial intelligence is computed.

To survive the coming decade, the geospatial industry must accept that its future does not lie solely in capturing reality with higher fidelity. The future belongs to those who can build the most robust, physics-aware, and dynamically predictive simulations of reality. They must evolve from being the archivists of the Earth to becoming the architects of its digital twin.

Yet, as we eagerly hand over the spatial mechanics of our world to generative models, we must proceed with profound caution. In our rush to build AI that truly “understands” the physical world, we run the very real risk of creating systems that replace our shared, tangible reality with a plausible, synthetic dream.

OGC standards are used by governments, businesses, and academic institutions worldwide to create and manage geospatial data, and build enterprise applications and services, that work behind the scenes to make the modern world work!

Standards development organisations (SDOs) have been essential in bringing order and interoperability to complex domains. They provide a framework for creating and maintaining standards that ensure different products and services can work together seamlessly. At one level this is interoperability but there is more to it…

Convening Power: Bringing the Experts Together

One of the most important values of SDOs is their ability to convene and engage a diverse community of stakeholders. The OGC, for instance, brings together representatives from a wide range of organizations, including software developers, data providers, government agencies, and research institutions. This diverse participation ensures that a broad spectrum of perspectives and needs are considered in the standards development process.

The OGC’s convening power is particularly important because it brings together experts from different backgrounds and with different interests. This includes both competing commercial companies and government and academic users. This diversity of perspectives helps to ensure that the standards produced are not only technically sound, but also practical and meet the needs of a wide range of users.

Expanding the Circle: The New Individual Membership

To further enhance this convening power, the OGC recently announced a groundbreaking new class of membership: the Individual Membership. Officially launched at the Philadelphia Member Meeting, this initiative opens the door wider, providing a direct pathway for independent developers, consultants, professionals, and students to participate directly in working groups, code sprints, and testbeds.

This new membership class brings the potential for a significantly more diverse community. Interoperability improves when more implementers can share what they are seeing and surface edge cases. By lowering the barrier to entry, the Individual Membership aims to amplify voices from historically underrepresented regions—such as Latin America, Africa, and Southeast Asia. Broader geographic and professional participation makes the work more resilient, ensuring that an even wider range of perspectives helps shape the future of geospatial standards.

Process: Creating Confidence in the Standards

Another key value of the OGC is the rigorous process they follow for creating and maintaining standards. The process is designed to ensure that the standards are high quality, relevant, and supported by a consensus of the community. The title of this post “Any Objection to Unanimous Consent” comes from the Robert’s Rules of Order and is a commonly heard phase during meetings, representing a checkpoint for consensus – key to the process.

This process typically involves multiple stages, including:

1. Working Groups: OGC working groups are formed to develop and maintain standards for specific areas of geospatial technology. These working groups are composed of experts from a wide range of organizations.
2. Public Review: Once a draft standard has been developed, it is released for public review. This allows the broader community to provide feedback on the standard and ensure that it meets their needs.
3. Approval: After public review, the draft standard is submitted to the OGC membership for approval. A majority vote is required to adopt the standard.
4. Maintenance: The OGC provides ongoing maintenance for its standards. This involves updating the standards to reflect changes in technology and addressing any issues that may arise.

This rigorous process provides confidence in the standards and reports produced by the OGC. It ensures that the standards are technically sound, meet the needs of the community, and are supported by a consensus of the relevant stakeholders.

Part of my role and the role of the board and the leadership team of the OGC is to make sure that this process remains fit for purpose and relevant in the age of vibe coding and AI – Watch this space !

The OGC is a prime example of an SDO that creates significant value for its constituents. Its convening power, expanding community diversity, and rigorous processes ensure that the standards produced are high quality, relevant, and supported by a consensus of the community. The work of the OGC remains essential for enabling the effective use of geospatial information and for building a more connected and interoperable world.

In an era where our smartphones are essentially extensions of our physical selves, the question of privacy—specifically location privacy—has moved from a niche technical concern to a primary user priority. The psychology of digital trust is key to bridging the gap between providing useful, localised services and respecting the inherent sensitivity of a user’s physical movements – A Digital Fingerprint of unique importance.

The Sensitivity of “Where”

Unlike a username or an email address, location data reveals a person’s life in real-time: their home, their workplace, their hobbies, and even their health habits. Because this data is so personal, the “trust threshold” for location-based services is significantly higher than for other types of digital interaction.

Smartphone users are no longer blindly clicking “Allow.” Instead, they are performing a rapid, often subconscious cost-benefit analysis. They ask themselves: Is the value of this localised content worth the potential risk to my privacy? 

To win this internal debate, location platforms and app developers must focus on both transparency and perhaps most vitally immediate relevance.

Signals of Trust

How does a user decide an app is trustworthy? Users are becoming sophisticated in their understanding of locational privacy, perhaps more than we in the industry appreciate. I would argue this understanding is the result of the best practice the industry has largely adopted over the last decade or so.

There are several key “trust signals” that influence user behaviour:

• Visual Cues and Timing: Trust isn’t built through the fine print of an app’s “Terms of Service”; it’s built through interface design. Clear icons, brief notices, and confirmation messages that appear at the moment the data is needed—rather than in a “blanket request” at first launch—help reassure users.
• Plain Language: Technical jargon and “legalese” are trust-killers. Users respond far more positively to short, plain-language explanations that answer the simple question: “Why do you need to know where I am?”
• Neutral Tone: Persuasive or pushy language (“You must enable location for the best experience!”) can trigger a defensive response. In contrast, neutral, explanatory language feels more respectful of the user’s autonomy.

Permission Design

One of the most effective ways to build confidence is by offering granular control. When a user is given the choice to “Allow Once” or “Only While Using the App,” they feel empowered rather than cornered. This shift from all-or-nothing data collection to situational access is a cornerstone of modern privacy standards (like those seen in recent Android and iOS updates) and is essential for maintaining long-term user engagement.

Where the industry could do better is in consistency. If a system repeatedly asks for the same permissions after being denied, or if settings seem to change without user input, trust evaporates. Reliability across sessions creates a “safety net” that encourages users to return.

Transparency and Context Relevance

One of the recurring points in the discussion on Trust in GeoAI was Transparency.

Transparency should not be a one-time event during the onboarding process. Privacy information should be easily accessible at all times, allowing users to review how their data is being used whenever they feel the need. This ongoing transparency transforms a transaction (data for service) into a relationship.

However, even the most transparent app will lose a user’s trust if the content delivered isn’t relevant. There needs to be a balance established between utility and restraint. Over-targeting—showing too much location-specific detail too quickly—can feel “creepy” and invasive. For instance, if an app knows exactly which aisle of a store you are in before you’ve even expressed interest in a product, the relevance is overshadowed by the intrusiveness. The goal is to provide content that aligns with the user’s intent without crossing the line into surveillance.

The marketplaces of both iPhone and Android ecosystems still contain a large selection of Flashlight apps that request the user’s location. There is, of course, no justification for this other than to support local advertising and data gathering – most users recognize this but sometimes “break the glass” because they are somewhere dark without a torch. There is no trust, but sometimes app usage is purely transactional?

Autonomy: Opting In and Out

Trust is deeply linked to the ability to walk away. Systems that make it easy to opt-out of location tracking, or that provide a “private mode” for exploring sensitive topics, demonstrate a respect for the user that pays dividends in brand loyalty.

Whether a user is looking for a local restaurant or navigating more sensitive local listings, they want to know they are in the driver’s seat. Systems that prioritise discretion and allow users to explore options without being forced into a data-sharing agreement are ultimately the ones that will thrive in a privacy-conscious market.

Lessons for GeoAI?

As location-based technology becomes more sophisticated, the “creepy factor” remains the biggest hurdle for developers. Trust is not a static checkbox but a conversation, lasting as long as a user makes use of an app or service. By combining thoughtful permission design, plain-language transparency, and respect for user autonomy, platforms can provide the localized experiences users want without making them feel like they’ve sacrificed their privacy to get them.

Despite location technology having the characteristics of a magic and invisible force, and for most users a system that’s operation is not fully understood, society does now have an understanding and expectation of “how” the system operates both technically and, as importantly, in terms of business models – location sharing is a two-way street!

The same cannot be said for many AI systems based on foundation models; by their nature, they remain “black box” systems. While deriving their capability from training data, how that data is used to respond to a user interaction or prompt is non-deterministic.

Transparency is key in building trust for location technology but may not be enough for GeoAI; explainable GeoAI still needs some work.

Update – 05/02/26

This post from the MIT Technology Review is interesting while focused on the security of Agentic AI systems, the approach of treating AI systems as Human Actors is also appropriate to viewing issues of Trust. Would you trust the intern to write a client report without supervision ?

Happy New Year!

Remember “WebGIS”? The term itself feels a little anachronistic now, doesn’t it? It conjures images of a distinct, almost revolutionary movement, a time when putting maps and spatial analysis on the internet was a novel and exciting frontier.

I know I was there…

Today, the very idea of differentiating “WebGIS” from “GIS” is almost quaint. Geospatial technology is fundamentally web-enabled. The internet isn’t an add-on; it’s the foundational architecture upon which modern GIS operates. This natural, pervasive integration offers a powerful parallel for understanding the trajectory of another transformative force: Artificial Intelligence.

For the past few years, we’ve seen the rise of “GeoAI” – a term that describes the intersection of AI and geospatial technology and one which you all know I find troubling (why do we will compelled to put “Geo” in front of anything new??) . It encompasses everything from machine learning for feature extraction from satellite imagery to deep learning models for predicting urban growth or optimising logistics.

And much like “WebGIS” before it, “GeoAI” does however mark a significant paradigm shift. It highlights the new capabilities, the new research directions, and the new challenges that emerge when AI is brought to bear on spatial data.

But just as “WebGIS” eventually faded into the background as web integration became the default, so too will “GeoAI” likely become a historical term. This isn’t to diminish its importance or the incredible innovations it represents. Quite the opposite. The eventual disappearance of “GeoAI” from our lexicon will be the ultimate testament to its value.

Think about it: when we talk about GIS now, we inherently assume a web-based infrastructure. We expect interactive maps, cloud-hosted data, and collaborative tools that leverage the power of the internet. We don’t append “web” because it’s no longer a distinguishing feature; it’s simply how things are done. Yes there are of course a few edge cases where workstations are still used but the majority of us are sitting in front of a browser most of the day.

The same destiny awaits AI in the geospatial realm. As AI algorithms become more sophisticated, more accessible, and more deeply embedded into every facet of geospatial workflows, the need to call it “GeoAI” will diminish.

We won’t be talking about “AI-powered mapping” as a special category; we’ll simply be talking about “mapping,” with the understanding that intelligent automation and analytical capabilities are an intrinsic part of the process.

Imagine..

Imagine a future (well it’s not really the future ) where a satellite automatically identifies and classifies objects as it orbits, sending back not imagery but processed, intelligent data that is immediately actionable. 

Where a city planning model dynamically optimizes infrastructure based on real-time traffic, demographic shifts, and environmental factors, all powered by unseen AI algorithms.

Where your everyday mapping application provides predictive routing based on learned patterns of congestion and even suggests new points of interest based on your preferences and historical movements.

These are not just “AI features”; they are the core functions of a truly intelligent geospatial system.

A journey well traveled..

The journey from “WebGIS” to just “GIS” taught us that foundational technological shifts eventually become so pervasive that they shed their distinguishing labels.

They simply become the new normal. “GeoAI” is currently doing the vital work of pushing boundaries, inspiring innovation, and attracting talent to this exciting interdisciplinary space. But its greatest legacy will be its own obsolescence – a sign that intelligence has not just intersected with geospatial technology, but has become its very fabric.

The future of Geospatial isn’t “GeoAI”; it’s simply Geospatial, made infinitely more powerful and insightful by the intelligence woven into its core.

Now if only we could get rid of the term Geospatial and go back to using Geography !