Engineering the connection
Evidence before commitment.
A route is useful only when its physical resources, optical design, transport handoff and application objectives agree.
Four layers. One accountable design.
Every route and service is subject to technical and commercial confirmation. Reference maps do not establish ADNET ownership, partnership or ready-for-service capacity.
Download project brief ↓- 01
Define the endpoints
Record building addresses, meet-me rooms, rack locations, local access and required interfaces. A city name alone is not a delivery location.
- 02
Establish the physical evidence
Request route documents, fibre rights, border handoffs, shared-risk groups and maintenance responsibilities. Distinguish verified alignment from public schematic topology.
- 03
Design the optical and service layers
Review loss, connectors, splices, OSNR, dispersion, regeneration and equipment support. Define bandwidth, protection, timing and the service demarcation.
- 04
Prove the delivered service
Agree test duration, traffic profile, error thresholds, latency measurement points, failover and restoration procedures. Archive the agreed baseline and change process.
Service model comparison
| Model | Customer control | Confirm before ordering |
|---|---|---|
| Dark fibre | Control your optical layer with a defined unlit fibre resource. Evaluate point-to-point access, fibre characteristics and operating responsibilities before choosing equipment or a commercial term. | Specify both termination addresses, fibre count, connector type and intended optical system. Request fibre type, route length, attenuation, splice records and bidirectional OTDR traces. A fibre category such as G.652 is a starting point, not a complete optical design. |
| Capacity & wavelength | Connect defined endpoints through an operated optical or transport service. Choose the service layer, interface and protection model that match the application and your operational resources. | State the payload, initial bandwidth, growth profile, client interface, port rate and required transparency. Distinguish Ethernet, OTN and an optical wavelength. A 100G, 400G or 800G planning request does not establish availability on a specific route. |
| Data centre interconnection | Plan connectivity between facilities around the workload: replication, storage access, cloud exchange or AI data movement. The right design links application targets to optical and site constraints. | Name the facilities and meet-me rooms; estimate sustained traffic, peaks, replication windows and latency tolerance. Distinguish intra-cluster traffic from inter-site data transfers. Geography alone does not predict application latency, and a faster port does not remove storage or compute bottlenecks. |
| Resilience & hybrid connectivity | Build resilience around independent failure domains. Fibre, terrestrial radio and satellite can complement each other, but two suppliers do not automatically produce two independent services. | Identify the applications that must survive an outage, their minimum capacity and recovery objectives. Map shared ducts, bridges, landing stations, power, buildings, upstream networks and management systems. Separate physical diversity from protocol-level protection. |
Network source register
The atlas brings together operator-published references and independent geographic schematics. Source descriptions retain the original document language. A reference is evidence of a published network or project, not an ADNET service offer.
Sources & evidence ↗ADNET / Project brief
Define your next connection.
Send your A-end and B-end, service model, bandwidth, resilience needs and target date. Our team in Türkiye will assess the next step.