For telecommunications operators, effectively meeting fast-growing 5G demands all starts with identifying the most effective transmission sites. The ability to accurately and quickly visualise prime installation sites gives service providers a competitive advantage in network planning. To ensure compliance while keeping the community and stakeholders informed and safe, location intelligence is key.
5G network growth strategies present challenges to:
Efficiently plan, design and implement infrastructure rollout
Facilitate an increase in data service from megabits (Mbps) to gigabits (Gbps)
Implement a robust asset maintenance program
Rapidly restore service following natural disasters or construction disruptions
High-resolution imagery that delivers a Ground Sampling Distance (GSD) accuracy of 5.5cm—7.5cm per pixel, along with 3D reality models, allow planners to determine site viability in multiple locations without the need for physical visits. This saves time and money, fast-tracking the preselection of deployment sites remotely. Can you quickly and easily discern between structures, trees, foliage and other line-of-sight barriers? The ability to do this at scale optimises 5G network development and expansion, delivers a significant advantage in project planning and business outcomes, and helps meet and exceed project completion deadlines.
90% coverage footprint continues to grow
With Nearmap aerial imagery already covering 90% of the Australian population across cities and regions, with a growing footprint, telco operators can gain a clear advantage. Teams can plan new 5G networks and expand existing networks by working with reliable, high-resolution imagery, geospatial intelligence, APIs and integrations that enable in-depth, accurate analysis and planning. Accurately plan 100x more coverage to connect shorter mmWaves
With access to a range of high-resolution imagery — 2D vertical, panorama, oblique, and 3D textured mesh, plus point cloud, Digital Surface Model (DSM), Digital Terrain Model (DTM), true ortho, and AI datasets — teams can accurately plan the deployment of Fixed Wireless Access (FWA) networks. While traditional radio frequency (RF) propagation tools were built for 3G and 4G spectrums that travel like sound waves through buildings and trees, 5G is deployed on millimetre wave (mmWave) bands that travel like light waves, covering short distances (up to 300m) and unable to penetrate solid items such as buildings and foliage. Because the short-range, high-frequency, high-capacity 5G spectrum band requires many more transmission sites, these need to be planned with greater precision and with clear line-of-sight (LOS) between each. Any visual obstructions will cause service interruptions to end users — even the smallest shed or tree can adversely affect coverage. Visibility at every step of the project is key. APIs and integrations allow Nearmap content, such as DSM and DTM to be easily integrated into other platforms and systems — such as Esri ArcGIS — for clear LOS planning. Preselecting viable sites remotely using aerial imagery saves time and money, reducing the physical impact — and carbon footprint — of visiting areas one by one.