Tag: IoT

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IoT connectivity is evolving from a technical prerequisite into a strategic component of the IoT architecture. With the introduction of the GSMA SGP.32 standard, a new approach to eSIM provisioning and management in IoT environments emerges. At the center of this approach is the eUICC IoT Manager (eIM), which—together with the IoT Profile Assistant (IPA) and SM-DP+—creates a clear separation between device interaction, orchestration, and profile storage.

Where previous eSIM standards were largely operator-driven or consumer-oriented, SGP.32 shifts control to the organization itself. The eIM acts as a central management layer that determines when and under what conditions eSIM profiles are downloaded, activated, or switched. This makes connectivity a controllable and integrable part of the broader IoT and IT architecture.

This approach reduces operator dependency, supports compliance with local regulations, and improves manageability for large-scale, international IoT deployments with long device lifecycles. As such, SGP.32 with eIM is particularly relevant for organizations that deploy IoT strategically and require flexibility, governance, and future-proof connectivity.

IoT connectivity is evolving from a technical prerequisite into a strategic component of the IoT architecture. With the introduction of the GSMA SGP.32 standard, a new approach to eSIM provisioning and management in IoT environments emerges. At the center of this approach is the eUICC IoT Manager (eIM), which—together with the IoT Profile Assistant (IPA) and SM-DP+—creates a clear separation between device interaction, orchestration, and profile storage.

Where previous eSIM standards were largely operator-driven or consumer-oriented, SGP.32 shifts control to the organization itself. The eIM acts as a central management layer that determines when and under what conditions eSIM profiles are downloaded, activated, or switched. This makes connectivity a controllable and integrable part of the broader IoT and IT architecture.

This approach reduces operator dependency, supports compliance with local regulations, and improves manageability for large-scale, international IoT deployments with long device lifecycles. As such, SGP.32 with eIM is particularly relevant for organizations that deploy IoT strategically and require flexibility, governance, and future-proof connectivity.

International fleet management depends on continuous and reliable connectivity as vehicles constantly cross national borders and organizations rely on real-time GPS and vehicle data. Standard SIM cards often fall short due to connectivity disruptions, inconsistent roaming performance, and fragmented local contracts.
M2M connectivity provides a structural solution through multi-network access, centralized SIM architecture, and enhanced security using private APN and VPN connections. This enables international fleets to scale efficiently, maintain uninterrupted visibility, and securely manage business-critical data.

International fleet management depends on continuous and reliable connectivity as vehicles constantly cross national borders and organizations rely on real-time GPS and vehicle data. Standard SIM cards often fall short due to connectivity disruptions, inconsistent roaming performance, and fragmented local contracts.
M2M connectivity provides a structural solution through multi-network access, centralized SIM architecture, and enhanced security using private APN and VPN connections. This enables international fleets to scale efficiently, maintain uninterrupted visibility, and securely manage business-critical data.

When developing IoT solutions, reliability is crucial. Devices must operate in a wide range of situations, from indoor environments to challenging outdoor locations. A structured testing phase during large-scale rollouts is therefore essential, revealing obstacles before they cause operational disruptions.

When developing IoT solutions, reliability is crucial. Devices must operate in a wide range of situations, from indoor environments to challenging outdoor locations. A structured testing phase during large-scale rollouts is therefore essential, revealing obstacles before they cause operational disruptions.

Europe is a large and advanced market for IoT communications. Western Europe is one of the most mature regions with 20 to 60 million connected devices in each of the largest countries. Central and Eastern Europe still has great growth opportunities when it comes to the adoption of IoT, and there are significantly fewer players developing international IoT solutions for the global market. The Russian market has started to rise in recent years but is now facing uncertainty due to war and sanctions. Mobile operators in Europe had deployed 311.3 million mobile IoT connections in or out of the region by the end of 2022.

A major shift is taking place in the Cellular IoT market: more and more eSIMs and iSIMs are entering the market. There are expected to be more than 500 million active eSIMs/iSIMs by the end of 2023. The quantity in 2022 was 424 million due to an 11% increase, in 2023 it is up to … Lees meer The new era of cellular IoT →

A major shift is taking place in the Cellular IoT market: more and more eSIMs and iSIMs are entering the market. There are expected to be more than 500 million active eSIMs/iSIMs by the end of 2023. The quantity in 2022 was 424 million due to an 11% increase, in 2023 it is up to … Lees meer The new era of cellular IoT →