By: Paula Zimmerman - Pipeline

Artificial intelligence is no longer a novelty and is steadily becoming the driving force of next-generation automation. The global connectivity industry is shifting from small-scale applications
to native integration frameworks that deliver tangible business value. Operators now recognize that meaningful digital transformation to become a TechCo requires strong internal software
capabilities and unified data architecture, not dependence on closed external ecosystems.
In an exclusive interview with
Pipeline Magazine, Tymoteusz Wrona, Chief Strategy & Operations Officer at Comarch Communications, explains that true transformation is most successful
when operators organically develop their engineering culture and focus on agile methodologies. According to Wrona, this strategic shift allows AI to seamlessly become a tool for investment
optimization and new business models, rather than just a passing tech trend. To prepare for the future, organizations must go beyond surface-level AI use and build it into their core
systems.
Securing the digital foundation with sovereign AI
The industry is recognizing that using general-purpose AI models for everything is no longer a viable solution as digital sovereignty becomes a priority. For operators, especially those
providing mission-critical connectivity, relying on AI models controlled by a foreign provider poses a significant security risk. As a result, many are prioritizing AI solutions hosted, governed,
and operated within trusted national or regional jurisdictions. In more advanced cases, operators are also exploring Domain-Specific Language Models (DSLMs) trained on specialized network data to
ensure maximum data protection and deliver more precise, context-aware responses.
Tymoteusz Wrona emphasized that achieving high levels of autonomy is an evolutionary process best realized by gradually and organically developing algorithms on proprietary, specific network data.
Because DSLMs understand the network's complex structure, including spectrum optimization strategies and cell-site density planning, they are less resource-demanding and far more precise than
general LLMs. As Wrona points out, by automating individual domains step-by-step, technical teams can gain valuable hands-on experience, allowing technicians time to gradually learn to work with AI
and build trust in its decisions.
The biggest advantage of sovereign artificial intelligence is that it ensures that operators’ most sensitive intellectual property is never harvested to train external, global models. Implementing
abstraction layers additionally allows operators to easily switch models and maintain steady operations, regardless of shifting geopolitical tides.
Implementing explainable autonomous operations
To achieve autonomous operations, having naturally sounding chatbots is not enough. They may sound human and even propose solutions, but they cannot resolve technical issues on their own, at
least not for now. What operators need are AI agents that can directly access core network systems, such as billing and product catalogs, to solve complex problems and ensure maximum network
efficiency. Naturally, using systems whose logic cannot be verified and audited is a significant operational risk, especially for mission-critical systems where every decision has significant
consequences.
To trust these autonomous agents, technical directors are demanding explainable AI (XAI), agents that provide a transparent decision lineage for every automated action taken on the network. When an
algorithm reroutes a packet or reconfigures a tower, the entire process must be completely transparent and understandable for engineers to audit the logic in real time.
With AI that can be verified at every step, we can trust it with access to core systems. But how to ensure it knows what results we expect of it? This level of reasoning is achievable by feeding AI
with comprehensive knowledge graphs and multi-domain topologies that serve as clearly organized databases, enabling agents to understand deep intentions and operational goals. Using those
guidelines, agents can execute complex self-healing actions without human intervention while ensuring satisfactory outcomes.
Infrastructure decoupling and the integration of space
The traditional integrated operator model is becoming obsolete as companies recognize the financial efficiency of layered business architecture. Function decoupling