AWS Wavelength cost: pricing for 5G edge compute
AWS Wavelength embeds compute and storage inside telecom 5G networks for ultra-low latency to mobile devices, at a premium over the parent region. Here is how Wavelength is priced, the transfer implications, and when it is worth it.
Quick answer
AWS Wavelength places compute and storage inside telecom carriers' 5G networks (Wavelength Zones) so mobile-device traffic reaches your application without leaving the carrier network, delivering ultra-low latency. Wavelength resources are priced at a premium over the parent region, similar in spirit to Local Zones, and data transfer between the Wavelength Zone and the parent region is charged. It is worth the premium only for applications that genuinely need very low latency to mobile users over 5G: AR/VR, real-time gaming, connected vehicles, live video, and industrial IoT. For anything else, a standard region or a CDN is cheaper.
AWS Wavelength is an edge offering built into telecom carriers' 5G networks. By running compute inside the carrier's network at the edge, traffic from a mobile device reaches your application without traversing the public internet to a distant region, cutting latency dramatically. That capability commands a premium, so Wavelength is a deliberate choice for a narrow set of latency-critical mobile workloads.
How Wavelength is priced
Wavelength Zones offer a subset of AWS services (EC2, EBS, and select others) embedded in a carrier's network. The resources you run there are priced at a premium above the parent region, reflecting the specialized edge placement inside telecom infrastructure. As withLocal Zones, you are paying extra for proximity, here proximity to mobile users over 5G, so treat the premium as the cost of ultra-low latency to those devices.
| Cost element | Consideration |
|---|---|
| Compute and storage | Premium above the parent region rate |
| Wavelength to parent region transfer | Charged per GB across the boundary |
| Service subset | Limited services; the rest run in the parent region |
Data transfer between the zone and the region
A Wavelength Zone is tied to a parent region, and data moving between them is charged like cross-boundarydata transfer. Typical designs run the latency-critical portion in the Wavelength Zone and keep the rest of the stack in the parent region, so traffic crosses that boundary. As with any edge deployment, a chatty design that constantly moves data between the zone and the region adds transfer cost on top of the compute premium, so minimize the crossings.
When Wavelength is worth it
Wavelength is justified only when your application genuinely needs ultra-low latency to mobile users over 5G: augmented and virtual reality, real-time mobile gaming, connected and autonomous vehicles, live video processing at the edge, and industrial IoT with tight latency budgets. For these, the 5G-edge latency is a functional requirement. For everything else, a standard regionis cheaper, and if the need is content delivery rather than compute, aCDN is the cheaper tool. Wavelength is a specialized instrument: powerful for its narrow use case, an unnecessary premium for anything else.
FAQ
How much does AWS Wavelength cost?
Wavelength resources (EC2, EBS, and select services in a Wavelength Zone) are priced at a premium above the parent region, reflecting the specialized placement inside a telecom carrier's 5G network. Data transfer between the Wavelength Zone and its parent region is charged per GB on top. Exact rates vary by zone and carrier, but expect to pay more than the equivalent standard region resource in exchange for ultra-low latency to mobile users.
What is AWS Wavelength used for?
Applications that need ultra-low latency to mobile devices over 5G: augmented and virtual reality, real-time mobile gaming, connected and autonomous vehicles, live video processing at the edge, and industrial IoT with tight latency budgets. Wavelength runs compute inside the carrier's network so mobile traffic reaches it without traversing the public internet, cutting latency dramatically for these latency-critical mobile workloads.
Is Wavelength more expensive than a standard region?
Yes. Like Local Zones, Wavelength charges a premium over the parent region for the specialized edge placement, here inside a telecom carrier's 5G network, plus per-GB data transfer between the Wavelength Zone and the parent region. The premium is only worth paying when your application genuinely needs the ultra-low 5G-edge latency; for anything else, a standard region or a CDN is cheaper.
How is Wavelength different from Local Zones for cost?
Both charge a premium over the parent region for edge placement and both charge cross-boundary data transfer to the parent region. The difference is where the edge sits: Local Zones are in metro data centers for low latency to users in that metro, while Wavelength is embedded in telecom 5G networks for ultra-low latency to mobile devices. Choose based on the latency need; the cost structure is similar in spirit.
Should I use Wavelength or a CDN?
Use a CDN if your need is delivering static or cacheable content close to users, since it caches at edge locations for far less than running compute at the edge. Use Wavelength only if you need latency-critical compute (real-time processing, gaming servers, AR/VR) reachable by mobile devices over 5G with minimal latency, which a CDN cannot provide. Match the tool to the need: CDN for content, Wavelength for 5G-edge compute.
Does C3X price AWS Wavelength resources?
C3X prices infrastructure from Terraform before deploy against a live catalog, so resources placed in a Wavelength Zone are costed with the edge premium reflected where catalog data supports it. That helps you weigh the cost of the 5G-edge placement against a standard region before deploy, so the latency-versus-cost tradeoff for a specialized workload is visible in the pull request.
What to do next
Weigh edge-compute cost against a standard region before you deploy. C3X prices your Terraform against a live resource catalog. Start with the quickstart.
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