Schedule-driven interference rejection, hardware-timed synchronization, and a unified baseband/RF integration model are designed to let the same deterministic air interface shift between deep-nulling urban links, balanced backhaul, and fragmented-spectrum operation.
The applications below describe deployment intent for Air Interface. Capabilities and figures are architecture targets and design intent, not demonstrated hardware results.
Wireless economics with fiber-class reliability as the design goal.
Residential gigabit · MDU coverage · Suburban/rural deployment
A single Air Interface base node serves neighborhoods using spatial multiplexing, giving every home a dedicated, non-shared beam. Wide channels in 6 GHz and 60 GHz are designed to reach physical-layer throughput in the tens of gigabits.
Same-channel sectoring · Self-interference cancellation
Spectrum is your scarcest asset. The design target for Air Interface is AAAA, same channel across all four sectors, for as much of the MCS range as possible. Highest-order modulation may require an ABAB fallback.
Real-time nulling · Noise floor management · Wi-Fi coexistence
Shared 5 GHz is crowded with consumer devices, and standard Wi-Fi radios respond by backing off. Air Interface is designed to do the opposite: the interference-rejection path is intended to detect and null unwanted energy within microseconds, so channels a conventional radio treats as unusable can stay in service.
Non-contiguous aggregation · 5/6/7 GHz fragments · One high-speed pipe
In the real world, clean contiguous spectrum is rare. Air Interface can aggregate up to four disjoint fragments (for example: UNII-1, UNII-3, DFS, and 6 GHz) into one deterministic link. Under the hood, each carrier runs its own schedule timeline; to the OS, it looks like one interface with one SLA.
3.5 GHz GAA/PAL · Precision scheduling · Shared spectrum economics
CBRS promised clean spectrum and is often crowded in practice. The Air Interface scheduler is designed to extract usable, predictable capacity from shared GAA tiers, with the goal of supporting service-level commitments on spectrum where best-effort behavior is the norm.
Built for service-level commitments on licensed and shared spectrum.
11-18 GHz · E-band (70/80 GHz) · 10-20 Gbps capacity
Connect cell towers where fiber is unavailable. Support for licensed microwave bands targets 10-20 Gbps capacity, and native FDD support is intended for low-latency pairing with 5G core networks.
Dedicated PtP · High-availability SLAs · Layer 2 transparency
Serve connectivity to hospitals and factories on licensed spectrum, where availability commitments that unlicensed hardware cannot make become possible. The link presents as transparent Layer 2, so it integrates like a fiber segment. Specific availability figures depend on deployment, spectrum, and final silicon characterization.
Industrial campus · Warehouse and logistics · Port and terminal coverage
Cover industrial campuses, warehouses, and logistics centers with dedicated wireless infrastructure. WISP-style deployment model without cellular core complexity, simpler architecture, lower cost, same coverage.
Contested-RF capability on commercial silicon economics
Anti-jamming · Spatial nulling · LPI/LPD
Low probability of intercept · Low probability of detection · Minimal RF signature
Infrastructure-less · Multi-band routing · Pop-up networks
Vehicles, drones, and manpacks are intended to form a self-healing mesh: routing control traffic through 900 MHz for penetration in cluttered environments while pushing high-bitrate video over mmWave, all on one baseband family.
US design · Hardware root of trust · Trusted foundry compatible
Designed in Oregon. Hardware anti-rollback and fuse-locking are designed to keep a captured radio from accepting compromised firmware.
Wireless that acts like a wire
Refineries · Offshore rigs · Chemical plants
Metal pipes and tanks create heavy multipath that degrades standard Wi-Fi. Air Interface is designed to work with that multipath rather than against it, with the goal of replacing corrosion-prone copper cabling in difficult RF environments.
SCADA · Safety systems · PLC interconnect
Process automation needs predictable timing, not just a fast average. Air Interface is designed around time-deterministic scheduling slots, targeting sub-millisecond, bounded loop closure for robotics and valve control.
4.9 GHz public safety spectrum · Municipal networks · Grid SCADA
Government and utility networks require isolated spectrum for emergency communications. Support for the globally-reserved 4.9 GHz band serves police/fire connectivity, municipal surveillance, and power grid control, networks that must work when everything else fails.
900 MHz coverage · Containment structures · Man-down safety
Use 900 MHz to penetrate deep inside containment structures where 5G can't reach. Connect vibration monitors, pressure gauges, and worker safety wearables in places you simply cannot wire.
From contested suburban spectrum to contested tactical RF, Air Interface is built to hold the link where best-effort radios give it up.
