Mobility & handovers
Examine serving-cell and neighbour behaviour, thresholds and inter-band or inter-layer mobility.
RAN OPTIMIZATION
Data-driven RAN optimization and spectrum planning. Combine radio engineering with proprietary platforms to develop planning and parameter recommendations.
THE ENGINEERING APPROACH
Radio conditions, traffic, topology and mobility vary across cells. Planning and parameters should reflect those conditions. Tracer, Lattice and Quark support complementary parts of that work.
Locate issues and connect configuration, performance, drive-test measurements, and complaints in a geographic view.
Explore Tracer ↗Model interference and generate frequency, radio-identity and neighbour plans.
Explore Lattice ↗Develop cell- and neighbour-specific parameter recommendations.
Explore Quark ↗WORK ON WHAT MATTERS
The scope begins with the operating problem and an agreed baseline. Objectives and acceptance measures depend on the target network.
Examine serving-cell and neighbour behaviour, thresholds and inter-band or inter-layer mobility.
Investigate measured quality, interference, overshooting coverage and conditions affecting uplink and downlink performance.
Assess how overlapping cells, bands and layers carry traffic and where parameter changes can improve utilization.
Review reuse and planning constraints, including the effects of spectrum refarming and network consolidation.
CONTROLLED ENGINEERING
Changes to a live network require validated data, engineering review, operator approval and post-change assessment.
Agree the network scope, data requirements, operating constraints and measures of success.
Examine configuration, performance, measurement and topology data for the defined scope.
Generate planning or parameter recommendations and document the engineering rationale.
Assess constraints, implementation responsibilities, change windows and rollback arrangements.
Operator teams introduce approved changes through their change-management process.
Compare post-change evidence with the baseline, investigate adverse movement and define follow-up work.
OUR DELIVERY FOOTPRINT
Kanad Networks has delivered parameter optimization, frequency planning and spectrum refarming across major operator networks. Our experience spans GSM, UMTS and LTE, with execution across multiple vendors and markets.
Cell and neighbour-level optimization across 2G, 3G and LTE networks.
Frequency planning across live operator networks to address interference and improve spectrum utilization.
Refarming engagements to release spectrum for LTE/5G deployments while protecting existing network performance.
Delivery volumes are reported by service category and may include overlapping cells.
From individual cell parameters to network-wide spectrum programmes, we bring proprietary tools and RAN engineering expertise to live network challenges.
Discuss Your Network RequirementsSELECTED NETWORK PROJECTS
Selected projects demonstrate the results of targeted optimization and spectrum refarming across GSM, UMTS and LTE networks.
SPECTRUM / MUMBAI, INDIA
Release 5 MHz from the original 14 MHz allocation in the 1800 MHz GSM layer for LTE deployment while maintaining GSM service quality.
Refarmed 5 MHz from the original 14 MHz allocation in the 1800 MHz GSM layer, retaining 9 MHz for GSM. The engagement covered a network comprising 900 MHz and dual-band 900/1800 MHz sites.
from the original 14 MHz GSM allocation
Major GSM KPIs restored to their previous levels following spectrum reduction.
The project created room for LTE deployment while maintaining the remaining GSM network’s service quality.
THE NEXT STEP
Share the technologies, vendors, network area and performance problem. We will discuss data availability, engineering scope and a suitable starting point.