Urban telecommunications infrastructure supporting network coverage, connected services and citywide digital connectivity.
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AI-RAN & Open / Cloud RAN

The radio network is becoming software defined, cloud based and AI assisted. The leadership decision is how to gain flexibility and performance without trading away interoperability, operational control or investment discipline.
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The RAN is opening up. Complexity is opening up with it.
HOW CAN OPERATORS MODERNIZE THE RADIO NETWORK WITHOUT MULTIPLYING OPERATIONAL RISK?
From Closed RAN to an Open, AI Driven Operating Model

Traditional RAN architectures concentrate technology and accountability in closed stacks. Open and cloud RAN distribute software, hardware and operations across a broader ecosystem, while AI adds new decision loops. Operators can gain choice, adaptability and capacity efficiency, but only if interoperability, performance, security and lifecycle control work as one operating model.

主なメリット

An open RAN becomes valuable when openness translates into operating freedom

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More choice without fragmented accountability

Open interfaces and disaggregated components can widen the technology ecosystem, provided one operating model owns end to end performance.

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Capacity and performance that adapt to conditions

AI can help planners and operations teams interpret radio, traffic and topology data, then recommend or automate targeted changes within governed limits.

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A leaner design and energy profile

Cloud based infrastructure, equipment consolidation and automated parameter design can reduce avoidable engineering work and improve how compute and power are used.

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A controlled path from brownfield to AI-native RAN

Operators can sequence modernization by site, workload and use case, validating interoperability and economics before scaling.

NTTデータのサポート体制は?

01
Set the decision baseline

Assess the current RAN estate, business case, workload profile, performance thresholds, security requirements and vendor dependencies. This identifies where open, cloud or AI enabled approaches are ready to create value, and where the integration burden remains too high.

Telecommunications engineers evaluating network hardware and radio equipment for infrastructure integration and service deployment.
02
Design the cloud RAN foundation

Shape the target architecture across edge and telco cloud infrastructure, accelerators, network functions, data flows and CI/CD/CT pipelines. The design links technical choices to capacity, resilience, energy and lifecycle objectives.

Edge telecommunications infrastructure with network servers, fiber connectivity and radio equipment supporting distributed network services.
03
Integrate and certify the multivendor stack

Onboard and test radio, distributed and centralized units, cloud platforms and management components against open interfaces. Conformance, interoperability, performance and security testing create evidence before live rollout.

Telecommunications radio equipment testing with antenna validation and signal performance measurement in a controlled lab environment.
04
Build the SMO and intelligence layer

Connect network data, service management and orchestration, intelligent control and AI model lifecycle management. Operations teams retain accountability while governed automation supports design, configuration, assurance and optimization.

Mobile network infrastructure inspection with rooftop antennas and radio equipment supporting reliable urban telecommunications coverage.
05
Industrialize deployment and operations

Establish repeatable Day 0, Day 1 and Day 2 processes for rollout, observability, upgrades, incident response and continuous optimization. Skills transfer and operating model change help the network team scale the architecture, not just deploy it.

Mobile network field maintenance with telecommunications technicians inspecting radio equipment at a remote infrastructure site.
Urban mobile network maintenance with rooftop antennas and radio equipment supporting reliable telecommunications coverage and network performance.
実証済みの効果
Open RAN is moving from promise to measurable impact.

The value is becoming tangible across cost, energy, engineering effort and network performance.
A major Asian mobile operator estimates up to 30% lower total cost of ownership, up to 50% lower power consumption and up to 50% less network-design workload, enabled by infrastructure consolidation and greater automation.
In Europe, a recent lab validation reported a typical 10% to 15% improvement in uplink throughput using AI-based channel estimation with commercial 5G RAN software, with field validation as the next step.

重要な結果
Decisions that improve the network, not just the architecture diagram
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Lifecycle economics

Evaluate total cost across infrastructure, integration, testing, operations, upgrades and energy, rather than focusing on component price alone.

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Engineering speed

Reduce manual design and configuration work through reusable pipelines, automated validation and policy led orchestration.

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エネルギー効率

Use workload placement, equipment consolidation and intelligent control to manage power consumption without compromising coverage or service quality.

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Performance with evidence

Prove AI-assisted gains against defined radio conditions and operational baselines before moving from the lab into scaled deployment.

Ready to turn an open RAN ambition into an executable network roadmap?

Start the conversation that connects architecture choices to measurable operator value.

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