
Connecting Offshore AI With Resilient Infrastructure at Tampnet
How do you keep industrial systems useful and responsive when they operate far offshore, repairing a connection takes specialist transport, and a link to shore cannot be taken for granted? On Infra as a Service, I'm joined by Øyvind Skjervik, CTO of Tampnet, to discuss the infrastructure connecting offshore platforms, vessels, and wind farms. While much of the AI conversation focuses on chips and data centers, these environments bring a different set of questions. Where should data be processed, which applications need a fast response, and what must continue working if the preferred communication path becomes unavailable? Øyvind explains that reliability involves consistent performance, predictable latency, and resilience alongside uptime. Tampnet uses a combination of fiber, microwave, satellite, and private 4G and 5G connectivity. The mix depends on the location and the application. He is clear that the company cannot deliver the same capacity and latency everywhere, which makes understanding the operational requirement part of network design. We discuss why offshore redundancy needs to be considered before anything goes wrong. Geography, weather, corrosion, vibration, and power constraints all affect the choices available. A repair may depend on a vessel, a helicopter journey, or access controlled by the customer. Øyvind describes designing for continuity, with multiple transport paths and local processing, so an operation can continue while a fault is addressed. Application priorities matter as capacity changes. Robotics may depend on low latency, worker communication may place greater emphasis on coverage, and video analytics can demand both bandwidth and local processing. Øyvind describes connectivity modes that determine which services need support during degraded conditions. The discussion connects network performance with what people and equipment actually need to do, rather than treating every data flow alike. Industrial AI adds to that pressure. Video can consume substantial capacity, while large numbers of smaller devices can create problems if they all transmit at once. Øyvind argues that orchestration, prioritization, and security can become constraints alongside bandwidth. Connecting operational technology with IT also brings questions about access, segmentation, and organizational responsibility. Edge computing is an expanding part of Tampnet's work. Øyvind describes extending services beyond connectivity to the compute environment where industrial applications and AI-related processing can run. We discuss opportunities involving robotics, drones, video analytics, predictive maintenance, and safety. The interview does not present measured customer savings or a benchmark for those applications, but it explains why the location of computing resources affects the network and the operation around it. There is also an AI use case within connectivity itself. Øyvind describes using application requirements and network measurements to steer traffic across available communication paths. A latency-sensitive flow can receive different treatment from a backup or file transfer. It is a practical example of AI being used to help manage infrastructure, alongside the networks supporting other AI applications. The conversation returns repeatedly to boundaries. Tampnet provides an infrastructure foundation and works with customers on security and continuity, while it does not control every application or operating procedure. Testing degraded modes, rehearsing failover, and agreeing responsibilities remain part of making a connected service dependable. Please share your thoughts. As industrial AI reaches more remote environments, how should organizations decide which processing stays local and what level of connectivity each operation really needs?


















