Altitud
Edition · 25 May 2026
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AI USE CASE

AI Self-Optimizing Network Parameters

Automatically tune network parameters in real time to maximize throughput and quality of service.

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Typical budget
€200K-€800K
Time to value
20 weeks
Effort
24-52 weeks
Monthly ongoing
€15K-€60K
Minimum data maturity
advanced
Technical prerequisite
ml team
Industries
Cross-industry
Function
Operations
AI type
reinforcement learning

What it is

A reinforcement learning system continuously monitors traffic patterns, congestion signals, and quality metrics to dynamically adjust antenna tilt, power levels, handover thresholds, and load-balancing rules without human intervention. Telecom operators typically see 15-30% reduction in dropped calls and a 20-40% improvement in spectral efficiency. Automated parameter management also cuts the engineering hours spent on manual radio network planning by 50-70%, freeing NOC teams for higher-value incidents. Over time the model self-improves as it accumulates more network state data, compounding operational savings.

Data you need

Historical and real-time network telemetry including KPIs (RSRP, SINR, PRB utilisation, handover rates), cell topology data, and traffic volume time series at per-cell granularity.

Required systems

  • data warehouse

Why it works

  • Define a multi-objective reward function validated jointly by network engineers and data scientists before any live deployment.
  • Implement a constrained action space and rollback mechanism so the agent cannot apply configurations outside pre-approved safe bounds.
  • Start with a shadow mode (observe-only) for 4-8 weeks to validate predictions against actual outcomes before enabling closed-loop control.
  • Establish clear KPI dashboards visible to NOC teams so engineers can audit and trust the system's decisions over time.

How this goes wrong

  • Insufficient granularity or latency in telemetry feeds causes the RL agent to act on stale state representations, degrading rather than improving network performance.
  • The reward function is poorly designed, optimising a narrow KPI (e.g. throughput) at the expense of others (e.g. coverage or energy cost), leading to unintended side effects.
  • Lack of safe exploration guardrails allows the RL policy to push parameters outside vendor-approved ranges, triggering outages or violating regulatory limits.
  • Organisational resistance from radio network engineers who distrust autonomous changes and override the system manually, nullifying its benefits.

When NOT to do this

Do not deploy closed-loop SON on a live network without a validated simulation or digital-twin environment first, untested RL policies can cascade interference across hundreds of cells within minutes.

Vendors to consider

Sources

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