IoT Becomes The Internet Of Everything (Part 1 of 2)

Part 1 of 2 – See Also – Connected Living Truly Emerges

The Internet Of Things Becomes The Internet Of Everything

For years, IoT promised that the physical world would become more responsive. The built environment would notice waste, strain, and risk early enough for people and systems to act before costs hardened. The vision was never only about convenience. It was about making everyday infrastructure more observant and less wasteful.

What held that future back was not a shortage of devices, but the difficulty of getting them to work together. In the connected home, each product often arrived with its own app, cloud service, and preferred ecosystem. Sensors and machines multiplied without always creating systems that could act as one. More objects came online, but the economy did not become as coordinated as promised.

The connected world long imagined in science fiction wasn’t waiting for smarter devices. It was waiting for common rules, and for information organized in a common form.

This system was a production and product standard named Matter.

Matter is often misread as a smart-home standard, but its larger significance is that it helps turn connected objects into connected systems. Its overlooked contribution is the data model beneath the connection: devices can describe what they are doing and what they can do in a uniform way. Once that information becomes reliable and comparable, the physical systems around us become easier to monitor and manage. The point is not simply that devices can talk. It is that their shared language creates structured data that software can interpret and act on, including AI systems capable of serving as a coordinating brain for the physical world.

Connected IoT devices are expected to reach 21.1 billion in 2025 and 39 billion by 2030.

At that scale, incompatibility becomes more than an annoyance. A world filled with connected devices needs usable, comparable information, not just more connections. Matter gives connected products both a shared language and a more consistent way to expose useful data. That makes purchases less risky, gives manufacturers a wider market, and reduces friction across the economy.

Although standards often look dull when they arrive, their consequences gradually reshape ordinary expectations. Common technical rules can turn fragmented markets into larger markets by lowering buyer risk and moving competition away from controlling the connection and toward what can be done with reliable information.

With Matter, that logic moved closer to the energy system. The standard expanded support for household energy production, storage, and major thermal systems, building on earlier work that introduced energy reporting for major appliances and EV charging equipment. This standard created the connected living system we envisioned.

Matter will not erase privacy risk or solve cybersecurity by itself. Even encrypted connected environments can reveal patterns about household behavior, which makes governance part of the standardization story rather than an afterthought. Yet baselines matter because they determine who can participate, what consumers can trust, and how much friction the economy must absorb before connected systems become useful.

A Standard With Economic Consequences

Across the market, Matter’s most important effect may be the uncertainty it removes. A household buying a connected product no longer has to ask only whether the device works on its own; it must ask whether the product can join the surrounding system without trapping the buyer in a closed path. A shared standard expands the market manufacturers can reasonably build for, while more predictable device behavior makes support and planning less costly.

In markets shaped by standards, competition does not disappear; it moves to a more useful layer. A fragmented smart-home market rewards the companies that control the interface. A more standardized market gives more room to those that can make connected systems more trustworthy and valuable over time. The device still matters, but the economic prize moves toward the service, response, and outcome.

As IoT moves past the novelty of connected objects, the business case begins to change. A connected device that merely sends an alert is still asking a person to coordinate the response. A connected system that can act safely within agreed rules begins to reduce the delay between information and action.

In the household, electrification and digital control are beginning to overlap. Electric car sales topped 20 million globally in 2025, making one in four new cars sold electric. Those vehicles are large mobile batteries that connect to the charging environments around daily life. As EVs become common household loads, the timing of electricity use becomes as important as the amount consumed.

In buildings, the same pattern appears at a larger scale. Operational energy use in buildings represents about 30% of global final energy consumption. Building electricity consumption rose by more than 600 TWh in 2024, accounting for nearly 60% of total electricity-demand growth. A connected thermostat or appliance is not merely a consumer device in that context; it is a small interface with a very large energy system.

When devices expose reliable information in a consistent form and respond to shared commands, markets can move from selling isolated products to managing systems that save energy, prevent damage, protect goods, and make infrastructure less blind. Structured data gives software a map of the physical world that can be analyzed, optimized, and managed at scale.

The Uneven Geography Of Coordination

Because the value of coordination depends on local capacity, Matter’s impact will not look the same everywhere. The standard may be global, but its benefits will be shaped by the capacity of local systems to connect, govern, and use them.

In high-income economies, standardized IoT will first look like optimization. These markets already have much of the digital and utility capacity needed for coordination. A home with distributed energy and flexible electric demand begins to behave less like a passive consumer and more like a small participant in the energy system. The question is whether that intelligence serves the resident, the platform, the utility, or some negotiated balance among them.

In middle-income economies, the same shift is likely to appear less as domestic convenience and more as practical pressure relief. The IoT influence will be seen in supply-chain visibility, production improvements, and basic smart-city transformations as traffic moves more efficiently, blackouts become less frequent, and daily systems become easier to manage. When fast-growing infrastructure is asked to absorb more demand without an equal increase in capacity, seeing stress earlier becomes economically valuable.

For lower-income economies, the promise is not a futuristic smart home but visibility into scarcity and a chance to leapfrog older systems as connectivity rises. Internet use has reached 94% in high-income countries, compared with 23% in low-income countries. 5G coverage has also spread unevenly, reaching 84% of people in high-income countries but only 4% in low-income countries. Those gaps limit near-term adoption, but they make the stakes sharper. As existing systems age into physical and functional obsolescence, standardized IoT can support technology transfer, efficiency gains, and upgraded infrastructure without requiring every market to repeat the same development path.

Where infrastructure is thinner, losses are harder to absorb. A water leak is not merely a utility problem when water is scarce. A broken cold chain is not merely a logistics problem when medicine is limited. A failed pump is not merely a maintenance issue when repair capacity is distant. Standardized IoT cannot solve those constraints alone, but it can help protect and allocate scarce resources.

Who Governs A Coordinated World

As connected systems become more capable, the line between private device and public consequence begins to blur. A thermostat may sit inside a home, but its behavior can affect energy demand. A charger may belong to one household, but its timing can matter to the grid. A sensor may appear ordinary, yet the data it produces can shape insurance, maintenance, access, and trust.

Because structured data makes physical systems easier for software to read, governance becomes part of the story rather than an appendix to it. The same information that allows AI to coordinate connected environments also raises questions about who owns that data, where it is processed, and whose rights follow it as it moves. Data sovereignty becomes practical rather than abstract when household behavior, energy use, and infrastructure signals cross platforms or borders. Individual data rights become harder to protect when physical life is translated into machine-readable patterns.

Behind the promise of intelligent coordination sits another physical constraint. AI-managed environments require compute capacity, and compute requires electricity. A world that uses software to reduce energy waste must also account for the energy used to process, store, and act on the data that makes those savings possible. The intelligence layer does not float above the physical economy. It depends on power, infrastructure, and jurisdiction.

Once device data begins moving across platforms and borders, local systems become tied to distant centers of processing and control. Data may be collected in one country, processed in another, monetized through a platform based somewhere else, and used to influence systems that feel local to the people living with them. That movement creates questions about money flows, political authority, accountability, and who benefits when the physical world becomes easier to manage.

Rather than answering those questions by itself, Matter makes them harder to avoid. If the next era of IoT is built on structured data and coordinated response, then trust will depend on more than whether devices connect. It will depend on whether people, markets, and governments believe the systems around them are working for them rather than merely learning from them.

The next era of IoT will not be defined by the novelty of connected objects. It will be defined by the economic transformation that follows when the physical world becomes easier to coordinate.

Matter points toward that future. Not an internet of devices, but an internet of coordination.

TL;DR Summary

• Matter is best understood as a production and product standard for the next IoT era.
• The standard’s overlooked value is structured device data, not simply device communication.
• Structured data makes homes, grids, buildings, and cities easier for software to monitor and manage.
• AI becomes more useful when physical systems produce reliable and comparable information.
• Matter reduces buyer uncertainty and expands the market manufacturers can build for.
• Standards move competition away from closed interfaces and toward services and outcomes.
• Matter 1.4 pushed the standard deeper into household energy management.
• EV adoption makes household electricity timing a grid-level economic issue.
• Building energy demand makes connected devices part of a much larger efficiency system.
• The benefits of standardized IoT will differ sharply by income level and infrastructure capacity.
• Lower-income economies may gain leapfrog opportunities as obsolete systems are upgraded.
• Governance must address data sovereignty, individual rights, compute demand, and cross-border control.

Sources

• Connectivity Standards Alliance; Build With Matter; – Link
• Silicon Labs; Matter Data Model; – Link
• Nordic Semiconductor; Matter Data Model And Device Types; – Link
• Connectivity Standards Alliance; Matter 1.4 Enables More Capable Smart Homes; – Link
• Connectivity Standards Alliance; Connectivity Standards Alliance And OpenADR Alliance Announce Liaison Agreement To Collaborate On Grid Connected Energy Management; – Link
• OpenADR Alliance; Connectivity Standards Alliance And OpenADR Alliance Announce Liaison Agreement; – Link
• IoT Analytics; Number Of Connected IoT Devices Growing 14 Percent To 21.1 Billion; – Link
• International Energy Agency; Trends In Electric Cars Global EV Outlook 2026; – Link
• International Energy Agency; Buildings Energy System; – Link
• International Energy Agency; Electricity Global Energy Review 2025; – Link
• International Telecommunication Union; Facts And Figures 2025; – Link
• Schlett, Genge, Sciancalepore; Things That Matter Identifying Interactions And IoT Device Types In Encrypted Matter Traffic; – Link

Keywords: Internet Of Things, ICT, Smart Cities, Supply Chain, Structured Data Infrastructure, AI Managed Physical Systems, Matter