📡

If your network goes down,
the factory stops.

Private 5G networks, edge computing, network automation. When communications infrastructure serves industrial operations, "best effort" isn't good enough. You need the operational discipline of mission-critical systems.

99.999%
Required uptime
<1ms
URLLC latency
€100K+/hr
Downtime cost

Private networks demand
operational maturity most teams lack

You've deployed the network. Now industrial customers expect five-nines reliability from a team that's never operated at that standard. The technology works. The operational processes don't.

01

Telecom ops ≠ IT ops

Your team knows cloud infrastructure. Private 5G serving a production line has fundamentally different failure modes, SLA requirements, and operational patterns. The playbook doesn't transfer.

02

SLA exposure without SLA engineering

You've committed to 99.999% availability in the contract. Your monitoring can't actually measure it. Your incident response can't maintain it. The SLA is aspirational, not operational.

03

Edge sprawl, zero visibility

Edge nodes at 15 factory sites across 4 countries. Each slightly different. No unified view. Firmware versions drift. Configuration management is a spreadsheet someone updates quarterly.

04

Incident response is reactive

Customer calls to report the network is down. Your NOC didn't know. The runbook says "escalate to vendor." Vendor SLA is 4 hours. Factory production line has been stopped for 45 minutes already.

05

Network automation without guardrails

Invested in network automation tooling. But who defines the safety boundaries? What can be automated? What requires human approval? One wrong automation rule took down a campus network for 3 hours.

06

Compliance complexity

Industrial private networks intersect telecom regulation, industrial safety standards, data sovereignty requirements, and customer compliance frameworks. Nobody on the team has a complete view.

"A private 5G network serving a factory floor is mission-critical infrastructure. The same operational patterns that keep satellite ground stations running — redundancy, monitoring, automated failover, structured incident response — apply directly."
— Mission Critical operational thesis

Where we make the difference

Concrete operational engineering engagements adapted from aerospace mission operations to private network and edge infrastructure operations.

Observability

Network Operations Centre Design

Design a modern NOC architecture for private network operations. End-to-end visibility across RAN, core, transport, and edge layers. Automated correlation of network events with industrial impact. Health scoring, SLA dashboards, and escalation workflows built for industrial-grade reliability.

NOC architectureCorrelation engineSLA monitoringHealth scoring
Typical outcome

Mean time to detect reduced from 12 minutes to 45 seconds

Reliability

Network Failure Mode Analysis

Apply aerospace FMECA methodology to your network infrastructure. Map failure modes per network layer and site type. Score criticality based on industrial impact. Design detection, mitigation, and recovery strategies for every identified failure path.

FMECACriticality scoringMitigation designRecovery procedures
Typical outcome

Critical failure scenarios reduced from 23 unmitigated to 2

Autonomous Ops

Network Automation Governance

Define the operational boundaries for network automation. What can be automated safely? What requires human approval? Design the autonomy levels, safety interlocks, rollback mechanisms, and change management processes that make automation trustworthy in mission-critical contexts.

Autonomy levelsSafety interlocksChange managementRollback design
Typical outcome

Automation-caused incidents reduced 90% with 3x faster routine operations

Resilience

Disaster Recovery & Resilience Testing

Design and validate your network resilience strategy. Failover testing, degradation modes, capacity planning under failure. Run structured game days simulating site outages, core failures, and cascading events. Know your recovery time before you need it.

Game daysFailover validationCapacity under failureDR procedures
Typical outcome

Demonstrated recovery from core failure in 90 seconds vs 4-hour SLA

Process

Industrial SLA Engineering

Design the complete SLA management lifecycle: measurement methodology, reporting frameworks, breach detection, root cause analysis, and continuous improvement. Move SLAs from contractual promises to operationally measured and managed commitments.

SLA measurementBreach detectionRoot cause analysisContinuous improvement
Typical outcome

SLA compliance improved from 97.2% to 99.98% within 6 months

Engagement model

Every engagement follows the same structured methodology, adapted from aerospace mission assurance processes.

01

Operational Audit

Structured assessment using the MCRF framework across all six reliability pillars. Map your current operational maturity, identify critical gaps, and score against industry benchmarks. 2-3 weeks.

02

Architecture Design

Design the target operational architecture: monitoring topology, incident response flows, automation boundaries, team structure, and tool requirements. Prioritised implementation roadmap. 2-4 weeks.

03

Implementation Support

Hands-on implementation of operational processes, runbooks, dashboards, and team workflows. Training, game days, and operational reviews until the team runs independently. 1-3 months.

If this sounds like you, we should talk

We work with companies operating communications infrastructure where network reliability directly impacts industrial operations, safety, or revenue.

Private 5G operators
Neutral host providers
Edge computing platforms
Network automation startups
Industrial MVNOs
Campus network operators
Critical comms providers
Network-as-a-service platforms

Let's audit your operations

A structured conversation about where your operational maturity stands — and what it would take to reach mission-critical reliability.

Start a conversation →