Network Planning
Design mobile, private, and FWA networks with precision — from site strategy to spectrum refarming.
Plan Smarter. Deploy Better →Design mobile, private, and FWA networks with precision — from site strategy to spectrum refarming.
Plan Smarter. Deploy Better →We design multi-technology mobile networks from macro to small cells, ensuring reliable coverage and capacity across 2G, 3G, LTE, and 5G NR layers.
How it works: Using licensed propagation tools, terrain data, and traffic projections, we create RAN plans tailored to operator strategy, spectrum, and expected growth.
We design secure and scalable private LTE and 5G NR networks for enterprises, industrial zones, and government applications.
How it works: We evaluate coverage needs, traffic profiles, and use case density to define a tailored RAN and backhaul architecture with secure isolation and performance SLAs.
We develop indoor coverage and small cell strategies to extend LTE/5G NR service into dense and complex environments.
How it works: We use walk test data, floor plans, and predictive modeling to define antenna placement and indoor RAN architecture for enterprises, malls, airports, and more.
We design 5G and mmWave networks considering propagation constraints, densification needs, and device penetration for high-capacity service zones.
Our team simulates link budgets, interference, and load balancing across small cells and outdoor nodes to optimize coverage, handover zones, and resource allocation.
We plan FWA coverage and capacity using 4G/5G RAN tools, ensuring service reach and quality in underserved areas.
How it works: We simulate CPE signal strength, line-of-sight, and interference risks to design cell placement, sector azimuth, and resource allocation.
We help operators plan the distribution of edge nodes and processing zones to support low-latency applications across LTE and 5G NR networks.
How it works: We analyze traffic density, service latency targets, and transport costs to define optimal edge node locations and backhaul segmentation.
We calibrate and validate propagation models to improve network planning accuracy for LTE and 5G.
How it works: Using drive test or UE log data, we adjust model parameters and clutter classifications to improve prediction accuracy across diverse terrains.
We simulate expected user demand and traffic load to ensure LTE and 5G NR network plans meet peak performance needs.
How it works: We integrate historical usage, population growth, and service forecasts to determine carrier sizing, site densification, and backhaul requirements.
We define macro and small cell grid strategies to ensure effective site spacing, reuse, and urban/rural coverage balance.
How it works: We evaluate morphology, spectrum, and service type to decide site density, antenna height, and zoning compliance.
We help operators optimize spectrum usage across LTE, 5G NR, and legacy networks through phased refarming and reuse strategies.
How it works: We define band clearance steps, guard band management, and reallocation timelines considering traffic, devices, and regulatory conditions.
We use digital twin environments to simulate RF planning scenarios and evaluate rollout cost-efficiency.
How it works: We build digital replicas of deployment areas including topology, zoning, and demand heatmaps to test grid strategies and investment plans.
We prepare operators and governments to align network planning with spectrum, coverage, and QoS regulations.
How it works: We use planning tools and modeling aligned to ITU/FCC thresholds and support documentation and audit requirements.
We use AI models trained on previous rollout data to suggest optimization paths for 4G/5G RAN planning.
How it works: The AI engine analyzes historical deployments, terrain, traffic density, and outcome KPIs to recommend site placement, bands, and topology.