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Artificial intelligence did not emerge into an empty power system. By the time the term began appearing in industry conversations, the electric grid had already undergone a profound transformation driven by decades of digital instrumentation. In this second episode of the four-part series on The Cognitive Grid, host Michael Vincent continues his conversation with Brandon N. Owens—founder of AIxEnergy and author of The Cognitive Grid—by examining the era that promised intelligence but largely delivered something else: visibility.
Beginning in the early 2000s, policymakers, engineers, and utilities set out to modernize the electric grid through what became known as the Smart Grid. Advanced meters measured electricity consumption in near real time rather than once a month, phasor measurement units captured the dynamic behavior of transmission networks across entire regions, and sensors spread throughout distribution systems to detect disturbances more quickly and isolate failures before they cascaded across neighborhoods or cities. Control centers were upgraded with digital platforms capable of collecting and displaying far larger volumes of operational data.
In many respects, this transformation succeeded. The power system gained an unprecedented ability to observe itself. Operators who once relied on sparse telemetry suddenly had access to continuous streams of information describing voltage conditions, equipment performance, and demand patterns across thousands of points in the network. Yet as Brandon Owens explains in this episode, the Smart Grid also revealed an important limitation: visibility alone does not produce intelligence. Control rooms became saturated with data, but the responsibility for interpreting that information remained largely human.
As these data streams expanded, utilities began experimenting with analytical tools designed to extract meaning from the growing volume of information. Machine learning models appeared first in modest roles—predicting which circuits were most vulnerable during storms, identifying equipment at higher risk of failure, or recommending where restoration crews should be staged before severe weather arrived. These systems did not initially command infrastructure. Instead, they helped operators interpret patterns that were difficult to detect through conventional analysis.
Over time, however, their influence began to grow. When models consistently produced useful predictions, their recommendations started to shape the frameworks within which operators made decisions. Authority did not formally transfer to machines, yet the range of available choices increasingly reflected algorithmic interpretation.
The episode explores how this development continues the historical pattern introduced in Episode One. Infrastructure systems rarely change through dramatic technological revolutions; they evolve through the gradual accumulation of capabilities that become indispensable. The Smart Grid did not create an autonomous power system, but it did something equally significant. By instrumenting the grid so extensively, it created the informational foundation that artificial intelligence systems now rely upon.
In the next episode, the series moves closer to the present moment, examining how artificial intelligence is beginning to enter operational environments inside utility control rooms and why that shift raises new questions about authority, accountability, and the governance of infrastructure systems that are becoming increasingly cognitive.
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By Brandon N. OwensArtificial intelligence did not emerge into an empty power system. By the time the term began appearing in industry conversations, the electric grid had already undergone a profound transformation driven by decades of digital instrumentation. In this second episode of the four-part series on The Cognitive Grid, host Michael Vincent continues his conversation with Brandon N. Owens—founder of AIxEnergy and author of The Cognitive Grid—by examining the era that promised intelligence but largely delivered something else: visibility.
Beginning in the early 2000s, policymakers, engineers, and utilities set out to modernize the electric grid through what became known as the Smart Grid. Advanced meters measured electricity consumption in near real time rather than once a month, phasor measurement units captured the dynamic behavior of transmission networks across entire regions, and sensors spread throughout distribution systems to detect disturbances more quickly and isolate failures before they cascaded across neighborhoods or cities. Control centers were upgraded with digital platforms capable of collecting and displaying far larger volumes of operational data.
In many respects, this transformation succeeded. The power system gained an unprecedented ability to observe itself. Operators who once relied on sparse telemetry suddenly had access to continuous streams of information describing voltage conditions, equipment performance, and demand patterns across thousands of points in the network. Yet as Brandon Owens explains in this episode, the Smart Grid also revealed an important limitation: visibility alone does not produce intelligence. Control rooms became saturated with data, but the responsibility for interpreting that information remained largely human.
As these data streams expanded, utilities began experimenting with analytical tools designed to extract meaning from the growing volume of information. Machine learning models appeared first in modest roles—predicting which circuits were most vulnerable during storms, identifying equipment at higher risk of failure, or recommending where restoration crews should be staged before severe weather arrived. These systems did not initially command infrastructure. Instead, they helped operators interpret patterns that were difficult to detect through conventional analysis.
Over time, however, their influence began to grow. When models consistently produced useful predictions, their recommendations started to shape the frameworks within which operators made decisions. Authority did not formally transfer to machines, yet the range of available choices increasingly reflected algorithmic interpretation.
The episode explores how this development continues the historical pattern introduced in Episode One. Infrastructure systems rarely change through dramatic technological revolutions; they evolve through the gradual accumulation of capabilities that become indispensable. The Smart Grid did not create an autonomous power system, but it did something equally significant. By instrumenting the grid so extensively, it created the informational foundation that artificial intelligence systems now rely upon.
In the next episode, the series moves closer to the present moment, examining how artificial intelligence is beginning to enter operational environments inside utility control rooms and why that shift raises new questions about authority, accountability, and the governance of infrastructure systems that are becoming increasingly cognitive.
Support the show