Cyber Antennas change la donne. Découvrez la première plateforme Wi-Fi 7 conçue pour les fournisseurs d'accès Internet sans fil (WISP), entièrement homologuée FCC pour un fonctionnement extérieur à 6 GHz avec AFC. Cyber Antenna est une plateforme WISP pleinement opérationnelle dès son lancement.
The Cyber antenna is more scalable than Ubiquiti AirMAX, LTU, Wave, and Cambium ePMP thanks to Wi-Fi 7 technology. Multi-Link Operation combines multiple frequency bands to reduce congestion and ensure smooth connectivity. 320 MHz channel support provides performance and capacity for high-density deployments, while proactive scheduling, OFDMA, and bidirectional MU-MIMO improve transmission-time management.
The Cyber antenna offers higher speeds than Ubiquiti AirMAX, LTU, and Cambium ePMP through modern Wi-Fi 7 technologies. 320 MHz channels provide significantly greater bandwidth, 4K QAM increases throughput per symbol, and Multi-Link Operation transmits across multiple frequency bands to reduce bottlenecks.
Advanced alignment, MU-MIMO, and DBF technologies optimize signal quality and environmental adaptation. Automatic access-point detection and QR-code adoption enable plug-and-play deployment, while simplified configuration tools reduce installation time in challenging conditions.
| Capability | Why it matters | T1 | T2 | T3 |
|---|---|---|---|---|
| 320 MHz Channels | Wider channels allow faster data rates, higher throughput, and better noise resistance for high-capacity links. | 320 MHz | 320 MHz | 320 MHz |
| 4K QAM (12x/13x) | 4096-QAM enables faster data rates, improved throughput, and more efficient network performance under optimal conditions. | 4K QAM | 4K QAM | 4K QAM |
| Preemptive Scheduling | Prioritizes high-urgency packets such as gaming, VoIP, and video traffic to reduce latency. | Yes | Yes | Yes |
| Capability | Why it matters | T1 | T2 | T3 |
|---|---|---|---|---|
| TDMA | Avoids transmission collisions so outdoor PtMP networks scale efficiently with directional antennas. | Yes | Yes | Yes |
| TDD | Lets WISPs dynamically set download and upload allocation based on traffic patterns. | Yes | Yes | Yes |
| Bidirectional MU-MIMO | Communicates with multiple devices in uplink and downlink directions to increase throughput and reduce contention. | Yes | Yes | Station |
| OFDMA | Divides channels into subchannels for simultaneous use by multiple clients. | Yes | Yes | Yes |
| Preamble Puncturing | Uses clean portions of a channel when other subchannels are affected by interference. | Yes | Yes | Yes |
| BSS Coloring | Identifies overlapping networks to reduce co-channel interference. | Yes | Yes | Yes |
MLO lets devices use multiple frequency bands simultaneously or dynamically. For WISPs, it aggregates bandwidth, improves throughput, reduces latency, and increases resilience by shifting traffic toward the least congested or most reliable band.
Wi-Fi 7 doubles the maximum channel size from 160 MHz to 320 MHz. In the 6 GHz band, this enables multi-gigabit point-to-point and point-to-multipoint deployments, high-capacity backhaul, premium service tiers, and fiber-like speeds with fixed-wireless flexibility.
4K QAM packs more information into each transmission symbol than 1024-QAM. On strong, stable links it improves spectral efficiency and helps WISPs deliver higher subscriber speeds or greater backhaul capacity from existing spectrum.
Preemptive scheduling lets high-urgency packets interrupt lower-priority transmissions. It reduces latency and jitter for gaming, video conferencing, and VoIP while preserving efficient traffic flow in congested sectors.
TDMA assigns discrete time slots to clients so only one device transmits in its slot. It eliminates collisions, reduces latency, supports fair allocation, and helps dense outdoor point-to-multipoint networks scale reliably.
TDD shares one frequency channel between uplink and downlink at different times. Operators can dynamically allocate capacity around demand and synchronize cycles across sectors to reduce interference.
GPS synchronization coordinates access-point transmit and receive slots. Aligning TDD cycles across sectors minimizes self-interference, supports closer frequency reuse, and improves dense-network reliability.
MU-MIMO lets an access point communicate with multiple devices in both uplink and downlink directions. It reduces airtime contention, increases throughput, and supports higher subscriber density.
OFDMA divides a channel into smaller resource units so multiple users can transmit simultaneously. It improves airtime efficiency, latency, and mixed-traffic performance.
Preamble puncturing avoids interfered subchannels while continuing to use clean portions of the channel. It preserves throughput and spectrum efficiency in noisy deployments.
BSS Coloring assigns an identifier to each network so devices distinguish neighboring transmissions from their own. This reduces unnecessary backoff and improves co-channel performance in overlapping coverage areas.
