GWN7605LR Outdoor Access Point
FJ$299.00
Price does not include local shipping. Shipping is calculated at checkout.
Description
The GWN7605LR is a long-range 802.11ac Wave-2 2x2:2 access point designed to provide next generation network coverage for indoor and outdoor environments.
Specifications
| Wi-Fi Standards | IEEE 802.11a/b/g/n/ac (Wave-2) |
|---|---|
| Antennas | 2 dual band external antennas 2.4GHz, gain 3.5dBi 5 GHz, gain 3.5dBi |
| Frequency Bands | 2.4GHz Radio: 2412 – 2484 MHz 5 GHz Radio: 5180-5825 MHz |
| Channel Bandwidth | 2.4G: 20 and 40MHz 5G: 20, 40 and 80 MHz |
| System Security | WEP, WPA/WPA2-PSK, WPA/WPA2 Enterprise, anti-hacking secure boot and critical data/control lockdown via digital signatures, unique security certificate and random default password per device |
| Coverage Range | Up to 250 meters |
| Concurrent Clients | 100+ |
| Network Interfaces | 2× autosensing 10/100/1000 Base-T Ethernet Ports |
| Power | PoE 802.3af/ 802.3at; Maximum Power Consumption: 10.16W |
| Unit Dimension | 358.3mm(L)*115mm(W)*45.3mm(H) |
More Details
This outdoor Wi-Fi access point that offers extended coverage range support for both indoor and outdoor deployments thanks to its innovative antenna and weatherproof design. The GWN7605LR comes equipped with dual-band 2x2:2 MU-MIMO technology and a sophisticated antenna design for extended coverage range of up to 250 meters. It uses a controller-less distributed network management architecture in which the controller is embedded within the product’s Web user interface for easy administration of locally deployed Wi-Fi APs. The GWN7605LR is also supported by GWN. Cloud and GWN Manager, Grandstream’s cloud and on-premise Wi-Fi management platform. Powered by marketleading technology for advanced QoS, fast roaming, mesh networks, captive portals, support for 100+ concurrent clients and dual Gigabit network ports, the GWN7605LR is an ideal Wi-Fi access point for low-latency jitter-sensitive real-time applications (such as voice/video-over-Wi-Fi devices & applications) in low-to-medium user density scenarios.