Schneider Electric Pioneers Open IoT Solutions for Energy Efficiency and Smart Building Management

Technology often feels stuck between its analog roots and its modern smart potential.

Last year I moved from a 1920s home to a 2005 build. I still can’t fully decode the thermostat’s digital panel—its interface resembles an old Casio watch—yet it governs the entire house climate.

The previous owners had programmed a custom heating and cooling schedule that suited them but left us with unpredictable temperatures. Reprogramming the device, designed to simplify our lives, proved months of frustration because its interface was overly complex and unintuitive.

After cycling through random temperatures at odd times, we resorted to manual adjustments, hoping to bring stability to a 20‑foot‑high living‑room ceiling in rural Northeast Ohio, where summers scorch and winters can last from October to May. The building’s size and climate make energy optimization essential, yet a cheap thermostat was hindering us. A smart thermostat that I could control from my phone would resolve this—and save me hundreds of dollars annually—yet I never got around to it.

A survey I conducted this summer revealed that 56% of manufacturers delay IoT projects until a clear use case emerges or until they have future plans. If I need IoT, so do most manufacturers.

Schneider Electric shares this sentiment and champions an open digital transformation. Its flagship EcoStruxure IoT system embeds every device with seamless connectivity to a repeatable, transparent architecture that adapts to any facility or building.

Deloitte was an early adopter, deploying EcoStruxure in its Amsterdam headquarters, the Edge. The building’s solar panels now generate 102% of its energy needs.

“Unlike other platforms, EcoStruxure isn’t a one‑size‑fits‑all solution; it’s tuned to specific use cases across major industrial sectors,” explained Andy Bennett, former senior vice president of EcoStruxure in North America.

Bennett describes the platform as a three‑layer architecture: a top layer of data analytics, AI, and cloud for optimization; a middle layer that runs mission‑critical edge applications; and a foundational layer of connected sensors and devices.

With hundreds of millions of dollars in IoT assets sold each year, Schneider is highly motivated to make IoT accessible for non‑specialists. The payoff is immediate.

“In most client engagements we see a 30% reduction in energy costs,” Bennett notes. “EcoStruxure lets you view consumption and link it to processes, revealing where waste occurs.”

For instance, analyzing conveyor‑belt material movement or assembly line output and adjusting parameters can cut energy use. EcoStruxure spotlights inefficiencies such as partial discharge or process waste.

In industrial environments, manual entry of impedance values or material data can consume significant project time. Schneider’s new digital‑twin approach, featuring a vendor‑agnostic data dictionary, streamlines this by providing standard metadata that any system can interpret.

Bennett observed that half of a project’s cost can be swallowed by “30 people, stacks of paper, and endless spreadsheets.” This bottleneck must end to unlock IIoT benefits.

He advocates that every IoT device deliver a digital twin as standard practice, ensuring instant insight into equipment status across fleets.

When digital twins are readily available, operators can monitor not just a single motor but the aggregate performance of similar devices from other manufacturers, enabling predictive maintenance and outage prevention.

Such visibility can preempt power disruptions, giving operators time to intervene before costly stoppages occur.

IoT isn’t a fit for every application. Bennett likens a $50,000 breaker’s digital twin to a smart underwear that monitors waistline—useful only when it adds real value. “It would be absurd to lack a $50,000 breaker’s energy efficiency data,” he says.

That’s why I’m planning to invest in a smart thermostat before winter.