Engineer predictable connectivity
Design private 5G and QoS around the workloads and environment.
Private 5G & Physical AI
Bring private 5G, edge applications and infrastructure operations together around the devices and workloads your site needs to support.
Explore the solution Explore the networkPrivate 5G / How it works
Follow device onboarding, fleet mobility or a camera stream.
Recognize the device. Establish its connection.
Illustrative deployment. Coverage, service policy, mobility and application behavior are validated for each site.
Participating devices connect through a private radio access network. iCore session control establishes identity, connectivity and traffic rules; the UPF carries application data between the radio network and local edge applications. iFabric observes the estate and gFabric governs configured workload or action policies alongside the traffic path.
Participating devices connect through a private radio access network. iCore session control establishes identity, connectivity and traffic rules; the UPF carries application data between the radio network and local edge applications. iFabric observes the estate and gFabric governs configured workload or action policies alongside the traffic path.
The selected paths explain different phases of a deployment, not live traffic. Dashed control links represent registration, session setup or a mobility update; solid links represent application data. Payload does not pass through session-control functions, iFabric or gFabric. The mobility example retains a local UPF while changing the serving cell; other architectures and procedures are possible. Physical movement, radio coverage and procedure timing are not simulated. gFabric workload/action policy is distinct from mobile-core session policy. iCore provides the core; radio and device interoperability depend on the selected integrations. No robotics safety-control function or uninterrupted service guarantee is implied.
Device onboarding. Registration and subscriber authentication are followed by session establishment. Control rules are installed at the UPF; application data then follows the user-plane path. The change in line color separates control from application data.
Fleet mobility. Illustrative mobility from Cell A to Cell B. A control/path update establishes the selected serving-cell path toward the same local UPF and application. The diagram does not simulate RF coverage, physical movement, protocol exchanges or an interruption interval.
Camera traffic. After connectivity is established, camera data takes the solid user-plane path through the serving radio and UPF to a local vision application. It does not traverse the session-control or governance layer.
01 / The opportunity
Moving devices, camera streams and edge workloads have different service requirements. The radio network, mobile core, local compute and operating policies need to work together.
Design private 5G and QoS around the workloads and environment.
Observe infrastructure and evaluate changes using operational context.
Define authorization policy for participating robots and agents.
02 / How it connects
The Edge-AI Hub connects industrial workloads to operational and governance capabilities. The private mobile core serves relevant cellular devices; Wi-Fi, wired and other systems integrate according to the site architecture.
Relevant platforms
Provide the private mobile-core foundation for connectivity, mobility and QoS.
Observe the infrastructure, evaluate changes and coordinate governed remediation.
Define which participating agents and machines are authorized to act.
Platform integrations and operating responsibilities are agreed for each engagement.
03 / What we deliver
Assess the site and workload requirements, design the private network, integrate the selected radio and core, validate device and application behavior, then agree the operational handover and support scope.
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