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Intelligent Infrastructure for Fun and Profit, Part 2

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With urban areas struggling with traffic congestion, AI solutions have emerged in accessing real-time information from vehicles fortraffic management, and utilizing mobility on demand in trip planning through a single user interface.
— Science Direct
In our previous infrastructure post, we explored some of the potential AI has to create an intelligent transportation infrastructure thatenhances individual safety, reduces traffic congestion, and generally makes moving people and things throughout the builtenvironment more efficient. As we explore ideas like smart cities and AI-powered infrastructures, however, critical concerns arise: howcan we gather and safeguard the enormous amount of data required for this transformation while respecting and prioritizing thesovereignty of the individual's data?
Solving the Data Puzzle
[caption id="attachment_2834" align="alignnone" width="2000"] 91% of New Cars Sold in the US Were Connected in 2020 ; viaSmartCar.[/caption]
Data is the heart and soul of the AI-driven transformation of transportation. Imagine this data as tiny puzzle pieces that, when puttogether, create a clear picture of our traffic landscape. These puzzle pieces come from various sources:
Vehicles: Modern cars and trucks are already equipped with sensors that can help AIs predict traffic flow and identify potentialcongestion points by collecting information about speed, location, and even driver behavior to an extent that baffles industry outsiders."The United States had the largest percentage of connected vehicles sold in 2020," writes SmartCar's Charlotte Kosche. "Of allpassenger cars sold, around 91% were connected. That’s over 13 million connected vehicles sold in the US alone (in 2020)."
Buildings and Infrastructure: Smart city initiatives involve embedding sensors in roads, traffic lights, and infrastructure to monitorreal-time conditions. This allows AI to adapt traffic signals based on actual traffic, minimizing wait times and reducing idling.
Mobile Devices: Our smartphones emit signals that provide insight into pedestrian movement, helping AI make safer decisions fordrivers, passengers, pedestrians, and cyclists — basically anyone who lives, works, or plays on our cities' streets and sidewalks.
Guarding the Treasure Trove

While the potential benefits of applying the power of AI to streamline our transportation needs are indisputable, data privacy and theright of the individual to opt out of data collection remain paramount. Their data is incredibly valuable — and, like a precious gem, itmust be protected. Here's how:

Anonymization: The data stream is stripped of Personally Identifiable Information (PII) before it's used. This way, AI works with data ina form that can't be easily traced back to specific individuals.

Encryption: Data, even after being stripped of PII, is encrypted during transmission and storage, making it virtually unreadable tounauthorized parties.

Consent and Transparency: Users are informed about data collection practices, and their consent is obtained before any data is used.Think of it as giving someone the keys to your treasure chest only after explaining what's inside.

Access Limitation: Only authorized, vetted individuals would have access — and only to information that's relevant to the work they'reexpected to do. City planners, police departments, and civil engineers would have access to some the data, but not all the data,thereby reducing the risk of its misuse.

AI For Privacy + Progress

The best part of this is that, while the massive amounts of data being gathered and analyzed makes keeping it private and secure amonumental task, we're not in it alone. The same AI technology that will help streamline our transportation networks and localinfrastructures can also help keep that data safe. In addition to some of the built-in safeguards we discussed above, AI can add:

Data Minimization: AI only uses the minimum amount of data required to achieve its goals. This means less personal information isprocessed, reducing privacy risks.

Local Processing: A growing number of AI solutions offer the ability to process data locally, on individual devices or within specificgeographic areas and (crucially) without sending sensitive data to a central or cloud-based server, minimizing the threat of potentialinterception.

Differential Privacy: This technique adds a bit of noise to the data, making it harder to link specific data points to individuals.

Constant Learning: AI continuously learns and adapts, which means it can improve its predictions over time without needing to accesssensitive individual data.

The future of intelligent infrastructure is undeniably exciting, and the potential to work with artificial intelligence to develop safer roads,reduce congestion, and provide a healthier environment for future generations is inspiring — but this journey will take place on a highwire, balancing the needs of progress and privacy. By anonymizing, encrypting, and securing data while leveraging AI's uniquecapabilities, we can embrace a transportation revolution that doesn't compromise our personal privacy.

ORIGINAL CONTENT FROM BRAIN+TRUST

Co-authored by Jo Borrás & Open AI’s ChatGPT

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Why do most AI proofs of concept fail to scale?

Proof of concept projects are built to answer one question: can this be done? They're not designed to address the harder questions about integration, ownership, governance, and operational fit. When the proof of concept ends, organizations typically lack the infrastructure—unified data, real-time orchestration, clear ownership—needed to move to production. Without this foundation, scaling becomes prohibitively expensive and complex.

Why do most AI proofs of concept fail to scale?

Proof of concept projects are built to answer one question: can this be done? They're not designed to address the harder questions about integration, ownership, governance, and operational fit. When the proof of concept ends, organizations typically lack the infrastructure—unified data, real-time orchestration, clear ownership—needed to move to production. Without this foundation, scaling becomes prohibitively expensive and complex.

Why do most AI proofs of concept fail to scale?

Proof of concept projects are built to answer one question: can this be done? They're not designed to address the harder questions about integration, ownership, governance, and operational fit. When the proof of concept ends, organizations typically lack the infrastructure—unified data, real-time orchestration, clear ownership—needed to move to production. Without this foundation, scaling becomes prohibitively expensive and complex.

Why do most AI proofs of concept fail to scale?

Proof of concept projects are built to answer one question: can this be done? They're not designed to address the harder questions about integration, ownership, governance, and operational fit. When the proof of concept ends, organizations typically lack the infrastructure—unified data, real-time orchestration, clear ownership—needed to move to production. Without this foundation, scaling becomes prohibitively expensive and complex.

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