Internet Of Things In Energy Market Size and Share

Internet Of Things In Energy Market Analysis by Mordor Intelligence
Internet of Things in the energy market size in 2026 is estimated at USD 34.26 billion, growing from 2025 value of USD 29.87 billion with 2031 projections showing USD 67.98 billion, growing at 14.69% CAGR over 2026-2031. Utilities across major economies are moving from centralized command‐and‐control to distributed intelligence so that real-time grid optimization, predictive asset care, and autonomous energy trading can co-exist. Capital spending on smart meters, intelligent substation retrofits, and edge analytics stacks has risen because these investments cut outage minutes and lower maintenance budgets. Semiconductor pricing has stabilized, allowing low-power wide-area modules to fall below the USD 3 threshold, which brings connectivity to secondary feeders, rural solar farms, and behind-the-meter devices. Cellular operators, satellite fleets, and private 5G providers are converging on hybrid network offers that guarantee deterministic latency for protection relay messages while squeezing bandwidth costs for simple sensor traffic. Software vendors have responded by embedding AI toolkits inside asset performance platforms so that energy firms can predict component failures early and monetize flexibility services in wholesale markets.
Key Report Takeaways
- By component, hardware captured 40.40% of Internet of Things in the energy market share in 2025, while IoT security is poised to expand at a 17.35% CAGR through 2031.
- By application, smart grid monitoring led with 38.10% revenue share in 2025; connected EV infrastructure is projected to post the fastest 15.05% CAGR to 2031.
- By connectivity technology, cellular solutions accounted for 53.50% share of the Internet of Things in the energy market size in 2025, whereas satellite IoT connections are forecast to grow at an 18.2% CAGR.
- By deployment model, cloud-hosted platforms commanded 48.60% revenue in 2025 and also headline growth with an 17.65% CAGR through 2031.
- By end user, electric and gas utilities held a 45.40% share of the Internet of Things in the energy market size in 2025; renewable power plants are advancing at a 16.05% CAGR.
- By geography, North America dominated with 37.60% share, while Asia Pacific is on track for the strongest 16.58% CAGR.
Note: Market size and forecast figures in this report are generated using Mordor Intelligence’s proprietary estimation framework, updated with the latest available data and insights as of 2026.
Global Internet Of Things In Energy Market Trends and Insights
Drivers Impact Analysis*
| Driver | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
|---|---|---|---|
| Utility smart-meter roll-outs and grid modernization mandates | +3.2% | Global, higher in North America and EU | Medium term (2-4 years) |
| Falling 5G/LPWAN module costs | +2.8% | Global, especially APAC hubs | Short term (≤ 2 years) |
| Distributed-renewable orchestration needs | +2.1% | Europe and APAC core, spill-over to North America | Long term (≥ 4 years) |
| AI-driven predictive-maintenance ROI cases | +1.9% | North America and EU industrial corridors | Medium term (2-4 years) |
| Flexibility monetisation (V2G, P2P energy) | +1.6% | EU zones, early adoption in California | Long term (≥ 4 years) |
| Carbon-accounting data regulations | +1.4% | EU, expanding to North America and APAC | Medium term (2-4 years) |
| Source: Mordor Intelligence | |||
Utility Smart-Meter Roll-Outs and Grid-Modernization Mandates
Mandated advanced metering infrastructure has moved beyond the pilot stage as regulators demand visibility of low-voltage networks and demand response outcomes. Honeywell and Verizon now embed native 5G radios into meters, enabling remote firmware updates, self-healing mesh communication, and autonomous service disconnects.[1]Honeywell International, “Honeywell Integrates 5G into Smart Meter Portfolio,” honeywell.com Norway completed nationwide roll-outs yet only 29.5% of households checked live consumption data, underscoring that consumer engagement and intuitive apps decide whether hard savings materialize. Utilities therefore pair technical deployment with customer education, gamified dashboards, and tariff incentives. Advanced meters feed granular interval data to distribution management systems so that rooftop solar back-feed and electric vehicle (EV) clustering can be forecast and balanced without over-building capacity.
Falling 5G/LPWAN Module Cost
Chip supply normalization pushed narrow-band IoT module prices down by 28% between 2023 and 2025, removing a key cost barrier for high-volume sensor roll-outs. Laboratory tests show LTE-M offers higher throughput and lower energy consumption than many alternative low-power protocols, which is important where battery swaps are costly. Semiconductor makers are redesigning micro-controllers with integrated AI acceleration so that anomaly detection can occur at the edge. Research teams have proved that turning LoRa gateways into lightweight compute nodes trims backhaul traffic by 70% without breaking legacy payload formats. Energy firms now equip remote wind farms, rural substations, and valve arrays with these modules, placing asset intelligence where trucks rarely visit.
Distributed-Renewable Orchestration Needs
Variable solar and wind output demands second-by-second coordination across scores of devices scattered over thousands of kilometres. Blockchain-enabled virtual power plants are aggregating households, industry sites, and community energy resources, letting automated smart contracts trade spare capacity while meeting grid codes. Australia’s national trials suggest that vehicle-to-grid chargers could eclipse every other storage class by mid-2030, saving households USD 550 each year and shaving regional peak demand by double-digit percentages.[2]Australian Renewable Energy Agency, “Vehicle-to-Grid in the National Electricity Market,” arena.gov.au Quantum algorithms tested on microgrid models have out-performed classical heuristics in cost minimisation and stability metrics, hinting at a new control stack for densely meshed local grids. Policy frameworks that open wholesale markets to flexibility services provide the commercial trigger for these orchestration platforms.
AI-Driven Predictive-Maintenance ROI Cases
Saudi utility portfolios achieved 40% maintenance cost reductions after coupling sensor networks with deep-learning models that forecast transformer and turbine degradation.[3]Saudi Ministry of Energy, “Smart Maintenance Initiative Progress Report,” energy.gov.sa Peer-reviewed studies record 92% fault-prediction accuracy, 35% fewer outages, and 8.5% higher renewable capacity factors when AI is applied to asset monitoring. Vistra Corp recouped more than USD 60 million in its first year of AI-enhanced SCADA operations while avoiding 2 million tonnes of CO₂. The payback math is convincing enough that power producers are baking AI line-items into every new-build or retrofit budget, reinforcing the upward trajectory of the Internet of Things in the energy market.
Restraints Impact Analysis*
| Restraint | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
|---|---|---|---|
| Cyber-security and OT/IT convergence risk | -2.4% | Global, critical infrastructure in North America and EU | Short term (≤ 2 years) |
| Legacy-SCADA interoperability gaps | -1.8% | North America and EU regions with aging infrastructure | Medium term (2-4 years) |
| Edge-compute talent scarcity | -1.2% | Worldwide, acute in APAC | Medium term (2-4 years) |
| Semiconductor-supply volatility | -0.9% | Global chains, risk in APAC hubs | Short term (≤ 2 years) |
| Source: Mordor Intelligence | |||
Cyber-Security and OT/IT Convergence Risk
As operational equipment becomes routable on public networks, attack surfaces multiply. The EU Cyber Resilience Act will come into force in August 2025, obliging device makers to document software components and issue timely patches. Many substations still run legacy protocols that lack authentication, and intrusion studies show malware can pivot from billing servers to breaker controls in minutes if segmentation is weak. Over-the-air update pipelines, hardware root-of-trust, and zero-trust segmentation are becoming mandatory across new procurement frameworks. Effective governance hinges on closer collaboration between information-technology and operational-technology teams.
Legacy-SCADA Interoperability Gap
Distribution utilities must marry forty-year-old RTUs with IPv6 native sensors. Software-defined networking in digital substations can cut communication hardware counts by half, yet the retrofit is complicated by bespoke wiring looms and life-extension warranties. NB-IoT relay nodes that translate 6LoWPAN packets into IPv4 frames offer a bridging fix, but introduce extra latency and management complexity. Proof-of-concept work in remote gas pipeline sites has validated ESP32-driven gateways that harvest solar power, push data to cloud SCADA, and survive intermittent connectivity. Long change-out cycles mean the constraint will linger through the decade.
*Our forecasts treat driver/restraint impacts as directional, not additive. The impact forecasts reflect baseline growth, mix effects, and variable interactions.
Segment Analysis
By Component: Hardware Dominance Meets Security Acceleration
Smart meters, intelligent sensors, gateways, and edge controllers collectively secured 40.40% of the Internet of Things in the energy market share in 2025. The hardware wave anchors utility digital twins and pushes granular field data into analytics clouds. Security hardware modules and trusted execution environments gain notice because regulators now ask vendors to prove device integrity from chip to cloud. IoT security platforms are forecast to compound at 17.35% through 2031, twice the system average, as the cost of a single operational breach can erase multi-year efficiency savings. Edge servers built on ruggedised ARM or x86 boards are shipping with AI accelerators that handle fault detection in milliseconds. Toshiba recently unveiled a key-management chipset that signs firmware blobs before they touch the field device, trimming audit times for compliance reviewers.
Software and services follow hardware’s beachhead. Utilities are paying for full-stack offerings where the vendor bundles devices, connectivity, and a subscription dashboard. Managed service contracts appeal in regions short of data-science talent because they shift integration risk to the supplier. As a result, services revenue is taking a larger slice of the expanding Internet of Things in the energy market. Meanwhile, component suppliers are moving manufacturing closer to demand centres to buffer any geopolitical shock to semiconductor flows.

By Application: Grid Monitoring Leads While EV Infrastructure Surges
Real-time distribution grid monitoring accounted for 38.10% of 2025 revenue thanks to programs that instrument transformers, feeders, and voltage regulators. AI overlays adapt set-points on the fly so that networks avoid over-voltage when rooftop solar spikes midday. Connected EV infrastructure shows the fastest 15.05% CAGR because chargers double as both load and storage assets. Utilities view them as flexible nodes that can supply reactive power and soak up midday excess. Governments are subsidising bidirectional chargers and demanding open-protocol telemetry, which funnels more devices into the Internet of Things in the energy market.
Predictive maintenance sits close behind as renewable owners chase higher capacity factors. Offshore wind farms now integrate software-defined networking rings that maintain deterministic links to nacelle sensors despite harsh marine environments. Demand-response programs inside commercial buildings have trimmed peak kW draw by up to 86% during critical intervals. Industrial users deploy edge analytics to lower electricity per unit of output, a metric that directly feeds ESG scorecards and investor screens.
By Connectivity Technology: Cellular Dominance Challenged by Satellite Innovation
Cellular links carried 53.50% of connected endpoints inside the Internet of Things in the energy market during 2025, taking advantage of existing macro towers and SIM management systems. Private 5G slices entice wind farm and refinery operators because they promise deterministic quality of service at a known cost. Ericsson estimates payback periods of three years when productivity gains and safety improvements are monetised. Satellite IoT traffic, while small today, is rising at an 18.2% CAGR as new low-earth constellations drop per-megabit prices below USD 1. Remote hydro dams, cross-country pipelines, and offshore platforms all benefit because terrestrial networks stop at the shoreline.
Low-power wide-area networks such as NB-IoT and LoRaWAN dominate metering and environmental sensing where payloads are measured in bytes. Hybrid architectures are gaining favour: a sensor may default to LPWAN but fail over to satellite when signal quality dips. Utilities value this redundancy because service-level agreements for critical infrastructure now capture penalties for missed data windows.
By Deployment Model: Cloud Leadership with Edge Computing Acceleration
Cloud environments claimed 48.60% of market revenue in 2025 and are also forecast to post the fastest 17.65% CAGR. Utilities like the elastic compute and managed security updates that hyperscalers offer. Google Cloud and Carrier Global are co-building a home energy management suite that orchestrates thermostats, batteries, and solar inverters while off-loading heavy learning cycles to public regions.
Yet the pendulum is swinging toward a cloud-plus-edge paradigm for latency-critical control. Research confirms that 60-70% of smart-grid data is already processed locally so that feeder reclosers act within two cycles of a fault. Micro data centres packaged in substation-rated enclosures run Kubernetes clusters and auto-scale analytics pods at the grid edge. Vendors are exploring carbon-negative designs where waste heat warms equipment rooms in winter, saving auxiliary power costs.

By End User: Utility Dominance Shifts Toward Renewable Acceleration
Electric and gas utilities held 45.40% of global spending in 2025 because they shoulder responsibility for grid reliability, billing accuracy, and regulatory reporting. Their asset count runs into the millions, making them the natural anchor for the expanding Internet of Things in the energy market. Renewable power plant operators, however, are climbing fastest at 16.05% CAGR because performance analytics translate directly into increased revenue under availability-based contracts. Saudi Aramco has reported downtime cuts of 80% in upstream facilities after deploying AI-powered maintenance and leak-detection sensors.
Commercial and industrial facilities invest to hedge against volatile tariff structures and to pursue corporate net-zero pledges. Pharmaceutical plants have retrofitted legacy steam and chilled-water meters with wireless pulse transmitters so that energy managers can react to excursions inside a single shift. Prosumer households are becoming a meaningful cohort as smart-home platforms integrate batteries, solar arrays, and EV chargers into a unified algorithm.
Geography Analysis
North America commanded 37.60% of 2025 revenue for the Internet of Things in the energy market. Federal investment in grid resilience, state-level clean-energy standards, and a mature cellular footprint enable rapid adoption. Schneider Electric warns that data-centre load is climbing faster than substation build-outs, forcing utilities to deploy IoT sensors to squeeze every amp from existing lines. Canada’s remote microgrids are early satellite IoT adopters because fibre drops are expensive in permafrost. Mexico’s energy reform is attracting distributed solar investors who demand predictive analytics from day one.
Asia Pacific is the fastest-growing region at a 16.58% CAGR through 2031. Japan’s super-solar project targets 20 GW by 2030 using perovskite cells with a theoretical efficiency beyond 30%. China’s smart-grid rollout under the 14th Five-Year Plan includes multi-energy microgrids and 5G base stations embedded in transmission pylons. India’s renewables push blends IoT sensors with government-subsidised cloud hosting, while South Korean industrial parks equip factories with AI edge boxes to shave power peaks.
Europe shows steady expansion on the back of stringent carbon laws and cross-border balancing markets. The EU Cyber Resilience Act hard-codes security spending into every IoT budget. Germany’s Industry 4.0 initiatives mean factories integrate power-quality meters with production scheduling so that watt-hours per unit become a KPI as important as takt time. The United Kingdom’s public-sector energy efficiency program has already logged double-digit savings after building managers gained minute-level insights. France upgrades nuclear station cooling pumps with vibration sensors to extend operating licenses, and Nordic grid operators test market platforms for real-time flexibility. The Middle East and Africa are earlier in the curve but mega solar-and-storage projects linked to green-hydrogen plants guarantee future demand.

Regulatory Landscape
Regulation for energy IoT is tightening around cybersecurity-by-design and interoperability as connected endpoints expand across grids, homes, and industrial assets. In the European Union, Regulation (EU) 2024/2847 (Cyber Resilience Act) sets horizontal cybersecurity requirements for products with digital elements, capturing many IoT devices deployed in energy use cases. The EU also introduced Delegated Regulation (EU) 2024/1366 with sector-specific cybersecurity requirements for cross-border electricity flows, pushing TSOs and DSOs toward structured risk assessment methods and supply-chain controls.
In the United Kingdom, the Department for Energy Security and Net Zero (DESNZ) published the Energy Digitalisation Framework in March 2026. It outlines a coordinated approach to energy smart data and a governance function aimed at system-wide standards and interoperability. The UK is also formalizing Energy Smart Appliances regulations for devices such as electric heating, EV smart charge points, and domestic battery storage, with cybersecurity alignment with ETSI EN 303 645. Standards updates such as IEC 61970:2026 (EMS API) also reinforce common interfaces for energy management and grid operations data exchange, which affects vendor conformance testing and utility procurement requirements.
Value Chain Analysis
The value chain starts with device and component suppliers, including meters, sensors, gateways, edge controllers, and security elements such as secure chips and key management. It then moves through connectivity providers, including cellular, LPWAN, private 5G, and satellite IoT, into platform and application layers. Platform providers deliver device management, data ingestion, digital twins, and analytics, while energy applications include smart grid monitoring, energy management systems, predictive maintenance, connected EV infrastructure, and distributed-renewable integration. System integrators and OT/IT service firms sit between vendors and end users, handling legacy SCADA integration, IEC-based interoperability, edge-to-cloud architecture, and managed security operations.
Recent standards and ecosystem moves are also clarifying how participants plug together. IEEE approved IEEE 2413.2-2026 as a reference architecture for Power Distribution IoT, and IEC published IEC SRD 63443-1:2026 describing architectures and service scenarios for distributed energy resource aggregation and virtual power plants. On the supply-chain side, traceability programs are moving into energy-adjacent IoT workflows for storage assets, including partnerships such as Powin with Circulor (April 2025) and Acculon Energy with Circulor and Rockwell Automation (May 2025) to implement battery passports and provenance tracking. Hardware-to-software co-development shows up in agreements like SECO and Hitachi Energy (November 2024) to develop Utility Smart Box products, combining grid communications hardware with an IoT platform layer.
Competitive Landscape
The Internet of Things in the energy market is moderately fragmented. Traditional automation leaders such as Siemens, ABB, and Schneider Electric are buying niche software players to own the full device-to-cloud stack. Yokogawa’s purchase of BaxEnergy brings visibility across 120 GW of renewable assets and underlines the premium placed on specialized domain knowledge. Siemens picked up the 2025 Hermes Award for its Industrial Copilot, an AI assistant that cuts engineering hours and accelerates application deployment.
Technology giants are staking energy positions: Google partners with Carrier for residential optimisation; Microsoft embeds grid services in its Azure IoT Edge; Amazon invests in Satcom links that feed cloud-native energy analytics. Telecom operators collaborate with utilities to launch private 5G, bundling spectrum, devices, and managed security. Cybersecurity specialists such as Dragos and Claroty secure critical infrastructure, while start-ups build blockchain-powered peer-to-peer energy trading platforms. Edge-computing firms ship containerised micro data centres that combine power conditioning, cooling, and AI inference.
Intellectual-property filings cluster around predictive maintenance algorithms, post-quantum encryption for OT, and adaptive protection relays. Vendors advertise open-APIs but still pursue walled-garden ecosystems to lock in service revenue. Buyers respond by insisting on IEC-based interoperability tests before contract sign-off. The resulting negotiation dynamic keeps competition alive and pushes cost curves down, sustaining growth momentum in the Internet of Things in the energy market..
Internet Of Things In Energy Industry Leaders
AGT International
Cisco Systems Inc.
IBM Corporation
Intel Corporation
SAP SE
- *Disclaimer: Major Players sorted in no particular order

Market Opportunities and Future Outlook
Grid-enhancing technologies that depend on dense sensing, secure telemetry, and orchestration software create a clear whitespace, particularly where networks are being operated closer to physical limits. ENTSO-E prioritized real-time grid monitoring, dynamic line and transformer rating, and broader IoT sensor deployment in its 2024-2034 RDI roadmap. This reinforces demand for field instrumentation, edge analytics, and standardized data exchange into control rooms. The European Commission also advanced an energy digitalisation and AI agenda in 2026 (COM(2026) 501), including an annual Energy Digitalisation Forum starting in 2026, which establishes a recurring forum for utilities, vendors, and regulators to address barriers such as interoperability, data access, and cybersecurity implementation.
Cybersecurity compliance is increasingly a market lever for device makers, platform providers, and integrators as horizontal and sector-specific rules expand. The EU Cyber Resilience Act (Regulation (EU) 2024/2847) raises baseline requirements for secure development, vulnerability handling, and product security support for connected devices used in energy environments. Delegated Regulation (EU) 2024/1366 further pushes supply-chain and operational cybersecurity practices for cross-border electricity flows. In parallel, the UK is progressing Energy Smart Appliances requirements tied to ETSI EN 303 645 for connected devices such as EV smart charge points and domestic batteries, supporting demand for upgradeable firmware pipelines, SBOM-ready product engineering, and utility-grade security monitoring. Standards releases such as IEC TR 63353:2026 (IIoT architecture for power distribution systems) and IEC 61970:2026 (EMS API) also open opportunity for vendors that can productize repeatable integrations across mixed fleets of legacy and modern grid assets, reducing rollout friction for smart grid monitoring, distributed-renewable integration, and connected EV infrastructure.
Recent Industry Developments
- July 2026: IBM signed a third Joint Development Agreement with PETRONAS Carigali and Tridiagonal.AI to extend TriCipta AI into upstream surface equipment optimization. The initiative links industrial AI with operational data streams, reinforcing end-to-end asset monitoring and autonomous workflow concepts that depend on reliable field telemetry and edge-to-cloud integration.
- June 2025: Generac Holdings acquired Neurio Technology to deepen residential energy management and grid-interactive capabilities. The deal strengthens device-to-platform control for behind-the-meter loads and storage, expanding the addressable base for IoT-enabled energy management and demand response use cases.
- November 2024: SECO and Hitachi Energy signed an agreement to develop a family of Utility Smart Box products using an IoT platform based on Clea for grid communication. The collaboration blends industrial hardware with a scalable software layer, supporting faster deployment of standardized grid-edge connectivity and data acquisition across utility environments.
Research Methodology Framework and Report Scope
Market Definition and Coverage
This market covers spending on internet of things solutions used in the energy sector to connect assets, collect operating data, and support monitoring and control across power and fuel value chains.
Scope exclusions: We do not count general purpose IT hardware and enterprise software that is not bought mainly for energy IoT use cases.
Segmentation Overview
- By Component
- Hardware
- Smart Thermostats
- Smart Meters
- EV Charging Stations
- Other Hardware
- Software and Analytics
- IoT Platforms
- IoT Security
- IoT Services
- Hardware
- By Application
- Smart Grid Monitoring
- Energy Management Systems
- Predictive Maintenance
- Connected EV Infrastructure
- Distributed-Renewable Integration
- Demand Response and Flexibility
- By Connectivity Technology
- Cellular (2G-5G)
- LPWAN (NB-IoT, LoRaWAN, Sigfox)
- Satellite IoT
- Wi-Fi/BLE
- PLC and Other
- By Deployment Model
- Cloud
- Edge
- On-premise
- By End-user
- Electric and Gas Utilities
- Oil and Gas Up/Mid/Down-stream
- Commercial and Industrial Facilities
- Residential and Prosumer
- Renewable Power Plants
- By Geography
- North America
- United States
- Canada
- Mexico
- South America
- Brazil
- Argentina
- Europe
- Germany
- United Kingdom
- France
- Russia
- Asia Pacific
- China
- India
- Japan
- South Korea
- ASEAN
- Rest of Asia Pacific
- Middle East and Africa
- Middle East
- Saudi Arabia
- Turkey
- Africa
- South Africa
- Middle East
- North America
Data Sources, Market Sizing, and Validation
Desk Research
Desk work starts with public energy and digitalization indicators so the model has a realistic demand pool before any forecasting is attempted. We typically lean on sources such as the International Energy Agency, US Energy Information Administration, World Bank, national energy regulators and grid operators, and standards bodies that publish IoT and cybersecurity guidance.
Alongside these, we review company filings, investor presentations, project announcements, utility and pipeline operator updates, and trusted press to understand rollout timing and what buyers are prioritizing. For filling gaps on supply side context, we also use paid subscriptions for company financials and intelligence, news and financials, patent databases, and shipment level import or export signals when relevant. These examples are illustrative only, and many other public sources were also used to collect data points, validate assumptions, and clarify open questions.
Primary Interviews and Surveys
Primary work is used to test the sizing logic against what is happening in live deployments, and then to tighten assumptions that cannot be read cleanly from public data. We speak with utility and industrial energy buyers, system integrators, connectivity and platform specialists, and operations teams across APAC, EMEA, and the Americas so that regional adoption and pricing behavior are not averaged incorrectly.
Distribution of primary research fieldwork respondents
| Company type | Respondent position | Region |
|---|---|---|
| Top tier: 27% | CXOs: 12% | APAC: 42% |
| Mid tier: 57% | Functional/Unit leaders: 42% | EMEA: 31% |
| Smaller Players: 16% | Managers: 46% | Americas: 27% |
Market-Sizing & Forecasting
The core sizing is built using top-down and bottom-up. In the top-down build, energy infrastructure activity and digitization signals are converted into an addressable spend pool by applying adoption and penetration assumptions for connected metering, grid automation, and upstream and midstream monitoring, which are then mapped to typical solution mix.
To keep totals realistic, the results are cross-checked with selective bottom-up approximations, such as sampling average spend per site for connected assets, using observed device and module pricing bands, and sanity checking against supplier revenue exposure shared during interviews. When data is missing for smaller countries or niche use cases, we bridge gaps using proxy indicators like installed generation capacity, grid length and upgrade programs, smart meter rollout pace, and industrial energy intensity, and then we normalize per capita and per customer values.
For forecasting, scenario analysis is used so that changes in capex cycles, regulatory push for grid reliability, and cybersecurity compliance timing can be expressed as practical upside and downside paths. Assumptions for unit growth and price progression are reviewed with practitioners, and then the final forecast is rolled forward with consistent currency treatment and inflation handling so the year to year story stays traceable.
Data Validation & Update Cycle
Validation is done by triangulating model outputs against independent signals, such as utility digital investment plans, device shipment direction, and major project tender flow, and then checking whether the implied spend per asset looks reasonable. Variances are flagged, inputs are revisited, and experts are re-contacted when a number moves outside expected ranges or when a new policy or outage event changes deployment priorities.
Before sign-off, the model and narrative go through multiple analyst review steps so calculation logic, units, and currency conversions are consistent across regions. Reports are refreshed annually, with interim updates when material events occur, and a final pre-delivery pass is completed so clients receive the latest updated view.
Mordor Intelligence's Energy Sector Internet of Things Market Size Versus Other Published Estimates
Published market sizes for IoT in the energy sector often do not match because teams choose different year anchors, include different parts of the stack, and apply different adoption and pricing paths for utilities versus oil and gas. In some cases, the spread also comes from how quickly assumptions are refreshed after major policy changes or large rollout announcements.
A common gap driver is scope, where some estimates roll adjacent digital utility spending into the same bucket or keep coal mining and other industrial energy uses fully in-scope, which lifts totals. The split is clearer in this study: for Mordor Intelligence, the value is counted only when it is directly tied to energy IoT hardware, software, platforms, security, and services used for connected monitoring and control, and broad IT upgrades that are not IoT led are kept out.
Benchmark comparison
| Source | Market Size | Gaps in Research Methodology |
|---|---|---|
| Mordor Intelligence | USD 34.26 B (2026) | |
| Global Consultancy A | USD 34.42 B (2025) | Uses an earlier base year and a longer horizon, and it can pull in broader application buckets across oil and gas, coal mining, and smart grid without the same check on whether spend is IoT specific versus general digital operations. |
| Industry Publisher B | USD 36.20 B (2025) | Starts from a higher 2025 level that may assume faster near term adoption and higher average solution value, and it appears to apply a broad energy use case scope where overlap with wider digital utility programs can inflate the counted spend. |
Overall, the differences mostly come down to the year used, how tightly the spending is tied to true IoT deployments in energy operations, and how adoption and price progression are handled in the first few forecast years. By keeping inputs linked to observable rollout indicators and then stress testing the total with interview based checks, the final number stays explainable and repeatable.
Key Questions Answered in the Report
What is the current size of the Internet of Things in the energy market in 2026?
The market is valued at USD 34.26 billion in 2026 and is forecast to double to USD 67.98 billion by 2031.
Which component category holds the highest share?
Hardware, led by smart meters and edge gateways, captured 40.40% of Internet of Things in energy market share in 2025.
What application area is growing fastest?
Connected EV infrastructure is expanding at a 15.05% CAGR as bidirectional charging moves from pilot to scale.
How important is satellite connectivity for energy IoT?
Satellite IoT is forecast to rise at an 18.2% CAGR because it connects remote hydro, wind, and pipeline assets beyond cellular reach.
Which region will contribute most to future growth?
Asia Pacific is expected to post a 16.58% CAGR through 2031, driven by large-scale renewable deployments and smart-grid programs.
What are the main cybersecurity obligations after 2025?
The EU Cyber Resilience Act requires device makers to embed secure-by-design principles, maintain software bills of materials, and deliver timely patches for connected products.
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