Trees
Foliage changes how energy propagates between radios.
The world is in the way.
That’s where we start.
Trees. Rooftops. Crowded spectrum. Six chapters connect the physics to the network your customers depend on.
A straight line isn’t always an option.
Where people live determines where the network needs to reach. Obstructions and interference belong in the design from the beginning.
Buildings
Rooftops and structures can obstruct or reflect the direct path.
Terrain
Elevation and geography shape each deployment’s possibilities.
Every mechanism should answer
an operator’s problem.
| Mechanism | Engineering purpose | Business implication to evaluate | Evidence to collect |
|---|---|---|---|
| Multipath integration | Use viable indirect signal arrivals in an obstructed environment. | Evaluate more addresses from a candidate site. | Serviceable links and repeatable performance across representative obstructions. |
| Interference cancellation | Reduce the effect of unwanted radio energy. | Protect the service experience in shared spectrum. | Performance with measured interference, including changing conditions. |
| Multicarrier capacity | Combine available carriers in supported configurations. | Support the intended tier mix and growth plan. | Aggregate sector demand, uplink needs, and capacity headroom. |
| Cloud operations | Observe, configure, and troubleshoot the installed fleet. | Reduce avoidable operating friction as the network grows. | Alarm handling, change control, install records, and recovery workflows. |
More than one path forward.
Multipath integration brings usable reflected and diffracted signal energy together. The receiver works with differences in arrival angle, phase, and delay.
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TRANSMIT
One signal.
Energy travels through the environment between the radios.
PROPAGATE
Several paths.
Objects and terrain can change the routes the signal follows.
RECEIVE
Recombined energy.
Adaptive processing integrates usable arrivals.
The intelligence is in the processing.
Tarana’s space-time-frequency adaptive processing brings multiple dimensions of the radio channel into the beamforming solution.
Adapt to a changing channel.
Radio conditions vary with the environment. Processing at both ends of the link helps the system respond as those conditions change.
The technology primer explains the implementation in engineering depth and distinguishes the product generations.
Read the Engineering PrimerMake room for the signal that matters.
Interference cancellation helps separate the wanted signal from unwanted radio energy. The animation illustrates the idea; it is not a measured spectrum trace.
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Identify the Desired Link
Maintain the connection between the Base Node and its Remote Node.
Suppress Unwanted Energy
Use adaptive radio processing to reduce the effect of interference.
Keep Measuring
Evaluate performance under the conditions the deployment will actually face.
Grow the opportunity.
Plan for the demand.
G2 combines capacity across multiple carriers, helping operators use available licensed and unlicensed spectrum.
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4Separable carriers
160MHzSpectrum bandwidth
6.4GbpsG2 sector capacity
Product capabilities depend on configuration and regulatory availability.
Test the network you intend to sell.
Agree the pass criteria before the first radio is installed. Include the difficult locations and the operating conditions that matter to your customers.
| Test area | Representative condition | Acceptance record |
|---|---|---|
| Coverage and propagation | Representative distance, foliage, building obstruction, and mounting height. | Document radio configuration, link margin, signal conditions, and install outcome. |
| Capacity under load | Concurrent traffic across a realistic mix of links and tiers. | Measure aggregate throughput, per-subscriber behavior, and uplink/downlink balance. |
| Service quality | Busy-hour and application-relevant test cases. | Record latency, packet loss, variation, and repeatability—not only peak speed. |
| Interference | Observed background activity and changes over time. | Retain spectrum conditions alongside the performance measurements. |
| Resilience | Planned power, backhaul, management, and device recovery exercises. | Confirm fault detection, escalation, recovery, and the customer impact. |
| Operations | Installation, alignment, provisioning, firmware change, and troubleshooting. | Record elapsed time, repeat visits, technician steps, and the evidence needed for support. |
Keep a reproducible record.
Bring the Design to a Planning DiscussionSave the equipment models, firmware, band and channel configuration, site geometry, test endpoints, offered load, time window, and results. Agree any retest criteria and unresolved exceptions before commercial rollout.
Read the physics.
Then ask about your network.
Start with the primer, compare the product specifications, and examine the conditions in a published operator story.
Primer
ngFWA Technology Primer
An engineering view of the architecture and radio processing.
Explore ngFWA Technology PrimerDatasheet
Product Specifications
Compare the Base Nodes and Remote Node family.
Explore Product SpecificationsCustomer Success
Evidence in the Field
Explore operator deployments and published results.
Explore Evidence in the Field