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06 Numbers and Powers

Ericsson vs Nokia 5G: How Carriers Should Compare

Card No. 06·41909 · Updated · Standard formula, shown below

When comparing Ericsson and Nokia for 5G network equipment, carriers should evaluate total cost of ownership, spectrum portfolio fit, software automation, and open RAN readiness—not just raw hardware specs. Both vendors offer competitive radio access networks, but their real differences lie in software maturity, migration paths, and how well they integrate with a carrier’s existing infrastructure.

Background: The Two Nordic Giants

Ericsson and Nokia are the two remaining full-scale Western 5G infrastructure vendors, alongside China’s Huawei and ZTE. Ericsson, headquartered in Stockholm, has long led in RAN market share outside China. Nokia, based in Espoo, Finland, strengthened its position after acquiring Alcatel-Lucent in 2016, gaining a strong North American presence and a broader portfolio that includes fixed networks and IP routing.

Both companies supply base stations, antennas, core network software, and network management tools. They also support open RAN interfaces, though their approaches differ. Carriers often dual-source to avoid lock-in, but the practical reality is that a network built on one vendor’s RAN is deeply integrated, and swapping later is costly.

How Their 5G Equipment Differs

At the radio level, Ericsson and Nokia offer similar performance in terms of spectral efficiency, beamforming, and MIMO support. The differences show up in architecture and software:

  • Massive MIMO: Both support 64T64R and 32T32R radios. Ericsson emphasizes its “Ericsson Silicon� custom chips for energy efficiency; Nokia highlights its ReefShark chipset, used in its AirScale radios.
  • Open RAN: Nokia has been more aggressive in pushing open interfaces, with its AirScale baseband supporting split architectures. Ericsson has been more cautious, focusing on performance and integration, though it also offers open RAN products.
  • Core network: Nokia’s 5G Core is often considered more cloud-native, with a strong focus on network slicing. Ericsson’s core is also cloud-native, but its differentiation lies in automation and AI-driven operations.
  • Fixed wireless access: Nokia has a broader portfolio of customer premises equipment, which can be an advantage for carriers launching FWA services.

In practice, a carrier’s choice often hinges on which vendor’s software better integrates with its existing OSS/BSS and whether the vendor can support specific spectrum bands (e.g., mmWave, C-band, or sub-1 GHz) with the right radio modules.

How Carriers Should Compare Vendors

The evaluation should go beyond a feature checklist. Carriers need a structured approach:

  1. Map your spectrum assets: List every band you own or plan to use (e.g., 700 MHz, 3.5 GHz, 28 GHz). Check which vendor offers radios for those exact bands with the right output power and form factor.
  2. Model total cost of ownership (TCO): Include hardware, software licenses, installation, energy consumption, and maintenance over a 7-10 year life. A cheaper radio that uses 20% more power can cost more in the long run.
  3. Assess software maturity: Ask for demos of network slicing, automation, and SON (self-organizing networks). Verify how mature these features are in production, not just in labs.
  4. Test interoperability: If you plan a multi-vendor network, test whether the baseband from one vendor works with radios from another. Open RAN is improving, but interoperability issues still arise.
  5. Check migration path: If you are replacing an existing 4G vendor, consider how smoothly the 5G gear integrates with your current core and transport network.
  6. Evaluate support and services: Compare local presence, spare parts logistics, and response times. A vendor with a strong local team can resolve issues faster.

Common Problems and Misconceptions

One misconception is that open RAN means you can mix and match radios from any vendor with any baseband. In reality, early open RAN deployments have faced performance penalties and integration headaches. Both Ericsson and Nokia offer open interfaces, but they still optimize their own hardware-software combinations.

Another issue is the assumption that the vendor with the best peak speed wins. Real-world performance depends on the network design, spectrum, and backhaul. A vendor that offers better interference management or beamforming algorithms may deliver more consistent throughput in dense urban areas.

Energy consumption is often underestimated. A 5G site can consume up to 3-4 kW, and with thousands of sites, the electricity bill is a major operational cost. Both vendors have introduced energy-saving features, but their effectiveness varies by traffic load and configuration.

Cost Considerations

Pricing is rarely public, but carriers typically negotiate multi-year deals that include hardware, software, and services. The key cost drivers are:

  • Radio units: Massive MIMO radios are the most expensive part, often costing tens of thousands of dollars each.
  • Baseband processing: Centralized or distributed units with high-capacity basebands add significant cost.
  • Software licenses: Features like network slicing or advanced automation are often licensed separately.
  • Installation and optimization: Labor costs for site installation, especially on existing towers, can rival the hardware cost.
  • Maintenance: Annual maintenance contracts typically run 5-10% of the initial equipment cost.

Carriers should also factor in the cost of training staff and the risk of vendor lock-in. A dual-vendor strategy can increase negotiating power but also doubles the complexity of operations.

Energy Efficiency and Sustainability

Both vendors have made energy efficiency a selling point. Ericsson claims its latest radios can reduce energy consumption by up to 30% compared to previous generations, thanks to advanced sleep modes and silicon design. Nokia similarly promotes its AirScale portfolio with “energy-saving� features like deep sleep and AI-driven power management.

Carriers should ask for specific power consumption figures under realistic load conditions, not just idle or peak. The difference between 500 W and 700 W per radio may seem small, but across 10,000 sites, it amounts to 20 MW of continuous load—enough to power thousands of homes.

Also consider the vendor’s roadmap for sustainability: some carriers require equipment to be recyclable or to have a lower carbon footprint in manufacturing.

Alternatives and Future-Proofing

Beyond Ericsson and Nokia, carriers can consider Huawei and ZTE, but geopolitical restrictions limit their use in many markets. Samsung is a credible alternative in some regions, particularly for mmWave and vRAN, but its market share is smaller.

Looking forward, the shift to 5G Advanced and eventually 6G will require software upgrades and possibly new hardware. Carriers should ask about the vendor’s roadmap for 5G Advanced features like AI-native air interface and enhanced positioning. A vendor that offers a clear upgrade path without forklift upgrades is more future-proof.

Finally, consider the vendor’s commitment to standards and open ecosystems. Both Ericsson and Nokia are active in 3GPP and O-RAN Alliance, but their strategies differ. Nokia’s more open approach may appeal to carriers that want to mix vendors, while Ericsson’s integrated approach may offer better performance for single-vendor networks.

Frequently Asked Questions

Which vendor has better 5G performance, Ericsson or Nokia?

In independent tests, both perform similarly in terms of peak throughput and latency. Differences are more visible in edge cases like high-speed mobility, interference-heavy environments, or specific spectrum bands. Carriers should run their own trials in their actual deployment scenarios.

Can I mix Ericsson radios with Nokia basebands?

With open RAN interfaces, it is possible, but not always plug-and-play. You need to ensure both support the same split option and that the software is compatible. In practice, many carriers stick to one vendor for the RAN to avoid integration issues.

Which vendor is cheaper?

There is no fixed answer; pricing depends on volume, negotiation, and the specific features you need. Nokia sometimes positions itself as more cost-effective in emerging markets, while Ericsson may offer better long-term software value. Always model TCO rather than upfront price.

How important is energy efficiency when choosing?

Very important—energy is a major operational cost and also affects sustainability goals. Ask for power consumption at different load levels and compare the vendor’s energy-saving features. Over a 10-year life, a 10% efficiency difference can be significant.

What about 5G core network? Does it matter which vendor?

Yes. The core is the brain of the network, and its software maturity affects network slicing, low-latency services, and automation. Both offer cloud-native cores, but you should test their APIs and integration with your OSS/BSS.

Will open RAN make it easier to switch vendors later?

Potentially, but not automatically. Open RAN reduces hardware lock-in, but software and services can still create dependencies. A carrier that standardizes on open interfaces and disaggregated software will have more flexibility, but it requires careful engineering.

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