LTE450 Deployment Guide

Phase 1: Spectrum Licensing

No LTE450 network can be deployed without a spectrum licence authorising use of the relevant 450 MHz frequencies. In most countries, spectrum in the 410-470 MHz range is managed by the national telecommunications regulator (Ofcom in the UK, Bundesnetzagentur in Germany, FICORA/Traficom in Finland, etc.). The licensing process varies significantly by country but typically involves: a formal application demonstrating the applicant’s technical competence and financial ability to deploy and operate a network; payment of a spectrum fee; and acceptance of licence conditions including coverage obligations, technical operating parameters, and in some cases restrictions on eligible customers or use cases.

For countries with existing LTE450 operators (Germany, Finland, Netherlands), the spectrum is already licensed and utilities can access it as customers of the operator rather than obtaining their own licence. For countries without an existing operator, the spectrum licensing route requires working with the national regulator to either apply for available spectrum or participate in a formal spectrum award process.

Phase 2: Network Design

Network design for an LTE450 deployment starts with a coverage requirement definition: what geographic area must be served, what are the endpoints that need connectivity, and what are the performance requirements (throughput, latency, availability)? From this, radio network planning tools (Atoll, Planet, ASSET) are used to model propagation at 450 MHz across the terrain and produce a site plan that meets the coverage requirements. Base station locations are optimised to maximise coverage while minimising the number of sites needed.

Core network design determines whether to deploy a standalone on-premise EPC, use a cloud-hosted private EPC, or select a managed service option. The choice depends on the operator’s IT security policy, existing data centre capability, and budget. The design also covers backhaul connectivity from base stations to the core network: typically fibre where available, or microwave links for remote sites.

Phase 3: Site Acquisition and Civil Works

Each base station site requires a physical structure for the antennas (a new mast, an existing structure such as a water tower or building rooftop, or an attachment to existing telecommunications infrastructure), power supply, and backhaul connectivity. Site acquisition negotiates access agreements with landowners, obtains planning permission for new masts where required, and coordinates power and backhaul installation. Civil works timelines frequently dominate the overall project schedule.

Phase 4: Equipment Installation and Commissioning

Base station installation involves mounting the antenna system at the agreed height, installing the Remote Radio Unit (RRU) and Baseband Unit (BBU), connecting feeder cables, configuring the EARFCN and cell parameters, establishing the S1 backhaul link to the EPC, and performing initial power-on testing. Commissioning includes verifying that the cell can be seen by a test UE, that authentication succeeds, that data connectivity is established, and that the initial RSRP and SINR measurements at planned locations meet design targets.

Phase 5: Coverage Acceptance Testing

Before declaring the network operational, a structured acceptance test programme validates coverage against the design targets. Drive testing records RSRP, RSRQ, SINR, and throughput at pre-defined test points throughout the coverage area. Indoor and underground tests verify penetration at representative utility asset locations (substations, meter cupboards, cable chambers). Results are compared against the design model and any significant gaps are addressed through base station configuration optimisation (antenna tilt, power, EARFCN selection) or additional site deployment.