Comparison Cudy WR3600E vs Cudy WR3600
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| Cudy WR3600E | Cudy WR3600 | |
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Seamless MESH Roaming Technology. 160 MHz Bandwidth. MLO Technology for Frequency Band Aggregation. | ||
| Product type | router | router |
| Data input (WAN-port) | Ethernet (RJ45) | Ethernet (RJ45) |
Wireless Wi-Fi connection | ||
| Wi-Fi standards | Wi-Fi 3 (802.11g) Wi-Fi 4 (802.11n) Wi-Fi 5 (802.11ac) Wi-Fi 6 (802.11ax) Wi-Fi 6E (802.11ax) Wi-Fi 7 (802.11be) | Wi-Fi 3 (802.11g) Wi-Fi 4 (802.11n) Wi-Fi 5 (802.11ac) Wi-Fi 6 (802.11ax) Wi-Fi 6E (802.11ax) Wi-Fi 7 (802.11be) |
| Frequency band | 2.4GHz 5 GHz | 2.4GHz 5 GHz |
| Operating ranges | dual-band (2.4 GHz and 5 GHz) | dual-band (2.4 GHz and 5 GHz) |
| Wireless speed 2.4 GHz | 688 Mbps | 688 Mbps |
| Wireless speed 5 GHz | 2880 Mbps | 2882 Mbps |
| Bandwidth | 160 MHz | 160 MHz |
Connection and LAN | ||
| WAN | 1 port 1 Gbps | 1 port 1 Gbps |
| LAN | 3 ports 1 Gbps | 4 ports 1 Gbps |
Antenna and transmitter | ||
| Number of antennas | 4 | 4 |
| Antenna type | external | external |
| MU-MIMO | ||
| Gain | 7.8 dBi | 5.5 dBi |
| 2.4 GHz antennas | 2 | 2 |
| 5 GHz antennas | 2 | 2 |
| Outdoors range | 220 m | |
Hardware | ||
| CPU | ARM Cortex-A7 | ARM Cortex-A7 |
| CPU cores | 4 | 4 |
| Clock Speed | 2 GHz | 2 GHz |
| RAM | 512 MB | 512 MB |
| Flash memory | 128 MB | 128 MB |
Functions | ||
| Features | NAT MESH mode Beamforming firewall | NAT MESH mode Beamforming firewall |
| More features | DHCP server VPN DDNS DMZ | DHCP server VPN DDNS DMZ |
Security | ||
| Safety standards | WPA WEP WPA2 WPA3 | WPA WEP WPA2 WPA3 |
General | ||
| Power consumption | 8.5 W | 9 W |
| Operating temperature | 0 °C ~ +40 °C | 0 °C ~ +40 °C |
| Dimensions | 209x220x48 mm | 183x109x38 mm |
| Weight | 334 g | 334 g |
| Color | ||
| Added to E-Catalog | march 2025 | february 2025 |
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Glossary
Wireless speed 5 GHz
The maximum speed supported by the device when communicating wirelessly in the 5 GHz band.
This range is used in Wi-Fi 4, Wi-Fi 6 and Wi-Fi 6E as one of the available bands, in Wi-Fi 5 as the only one (see "Wi-Fi Standards"). The maximum speed is specified in the specifications in order to indicate the real capabilities of specific equipment - they can be noticeably more modest than the general capabilities of the standard. Also, in fact, it all depends on the generation of Wi-Fi. For example, devices with Wi-Fi 5 support can theoretically deliver up to 6928 Mbit (using eight antennas), with Wi-Fi 6 support up to 9607 Mbit (using the same eight spatial streams). The maximum possible communication speed is achieved under certain conditions, and not every model of Wi-Fi equipment fully satisfies them. Specific figures are conditionally divided into several groups: the value up to 500 Mbit is rather modest, many devices support speeds in the range of 500 - 1000 Mbit, indicators of 1 - 2 Gbps can be attributed to the average, and the most advanced models in class provide a data exchange rate of over 2 Gbps.
This range is used in Wi-Fi 4, Wi-Fi 6 and Wi-Fi 6E as one of the available bands, in Wi-Fi 5 as the only one (see "Wi-Fi Standards"). The maximum speed is specified in the specifications in order to indicate the real capabilities of specific equipment - they can be noticeably more modest than the general capabilities of the standard. Also, in fact, it all depends on the generation of Wi-Fi. For example, devices with Wi-Fi 5 support can theoretically deliver up to 6928 Mbit (using eight antennas), with Wi-Fi 6 support up to 9607 Mbit (using the same eight spatial streams). The maximum possible communication speed is achieved under certain conditions, and not every model of Wi-Fi equipment fully satisfies them. Specific figures are conditionally divided into several groups: the value up to 500 Mbit is rather modest, many devices support speeds in the range of 500 - 1000 Mbit, indicators of 1 - 2 Gbps can be attributed to the average, and the most advanced models in class provide a data exchange rate of over 2 Gbps.
LAN
In this case, LAN means standard network connectors (known as RJ-45) designed for wired connection of LAN devices — PCs, servers, additional access points, etc. The number of ports corresponds to the number of devices that can be directly connected to wired equipment. way.
In terms of speed, 100 Mbps (Fast Ethernet) and 1 Gbps (Gigabit Ethernet) are the most popular options today. At the same time, thanks to the development of technology, more and more gigabit devices are being produced, although in fact this speed is critical only when transferring large amounts of information. At the same time, some models, in addition to the standard speed of the main LAN ports, may have a 2.5 Gbps, 5 Gbps and even 10 Gbps LAN port with increased bandwidth.
In terms of speed, 100 Mbps (Fast Ethernet) and 1 Gbps (Gigabit Ethernet) are the most popular options today. At the same time, thanks to the development of technology, more and more gigabit devices are being produced, although in fact this speed is critical only when transferring large amounts of information. At the same time, some models, in addition to the standard speed of the main LAN ports, may have a 2.5 Gbps, 5 Gbps and even 10 Gbps LAN port with increased bandwidth.
Gain
Gain provided by each device antenna; if the design provides for antennas with different characteristics (a typical example is both external and internal antennas), then the information, usually, is indicated by the highest value.
Amplification of the signal in this case is provided by narrowing the radiation pattern — just as in flashlights with adjustable beam width, reducing this width increases the illumination range. The simplest omnidirectional antennas narrow the signal mainly in the vertical plane, "flattening" the coverage area so that it looks like a horizontal disk. In turn, directional antennas (mainly in specialized access points, see "Device type") create a narrow beam that covers a very small area, but provides a very solid gain.
Specifically, the gain describes how powerful the signal is in the main direction of the antenna compared to an perfect antenna that spreads the signal evenly in all directions. Together with the power of the transmitter (see below), this determines the total power of the equipment and, accordingly, the efficiency and range of communication. Actually, to determine the total power, it is enough to add the gain in dBi to the transmitter power in dBm; dBi and dBm in this case can be considered as the same units (decibels).
In general, such data is rarely required by the average user, but it can be useful in some specific situations that specialists have to deal with. Detailed calculation methods for suc...h situations can be found in special sources; here we emphasize that it does not always make sense to pursue a high antenna gain. First, as discussed above, this comes at the cost of narrowing the scope, which can be inconvenient; secondly, too strong a signal is also often undesirable, for more details see "Transmitter power".
Amplification of the signal in this case is provided by narrowing the radiation pattern — just as in flashlights with adjustable beam width, reducing this width increases the illumination range. The simplest omnidirectional antennas narrow the signal mainly in the vertical plane, "flattening" the coverage area so that it looks like a horizontal disk. In turn, directional antennas (mainly in specialized access points, see "Device type") create a narrow beam that covers a very small area, but provides a very solid gain.
Specifically, the gain describes how powerful the signal is in the main direction of the antenna compared to an perfect antenna that spreads the signal evenly in all directions. Together with the power of the transmitter (see below), this determines the total power of the equipment and, accordingly, the efficiency and range of communication. Actually, to determine the total power, it is enough to add the gain in dBi to the transmitter power in dBm; dBi and dBm in this case can be considered as the same units (decibels).
In general, such data is rarely required by the average user, but it can be useful in some specific situations that specialists have to deal with. Detailed calculation methods for suc...h situations can be found in special sources; here we emphasize that it does not always make sense to pursue a high antenna gain. First, as discussed above, this comes at the cost of narrowing the scope, which can be inconvenient; secondly, too strong a signal is also often undesirable, for more details see "Transmitter power".
Outdoors range
The range of the Wi-Fi connection when the device is operating outdoors is in an open area where the signal does not need to overcome obstacles in the form of walls and other foreign objects. In other words, we are talking about the communication range within the line of sight. This parameter can be useful not only when installed outdoors, but also, for example, in a large office space. However, do not forget that the practical range may be somewhat less, because. it also depends on the capabilities of the connected devices and the level of interference.
Also note that according to these data, it is possible to estimate the range of action in the room, if for some reason this information is not indicated in the characteristics. On average, this radius is 2-4 times less than the outdoor range, and for maximum guarantee it is worth taking a factor of 4: for example, for a reliable connection at a distance of 10 m, it is desirable to have a device with a range in open areas of at least 40 m.
Also note that according to these data, it is possible to estimate the range of action in the room, if for some reason this information is not indicated in the characteristics. On average, this radius is 2-4 times less than the outdoor range, and for maximum guarantee it is worth taking a factor of 4: for example, for a reliable connection at a distance of 10 m, it is desirable to have a device with a range in open areas of at least 40 m.
Power consumption
Power consumed by network equipment during operation. Knowing the indicator of energy consumption, you can, for example, calculate the battery life of equipment from an uninterruptible power supply or choose a suitable “uninterruptible power supply”. Also, with the support of PoE technology, it is worth considering the power consumption when choosing a PoE switch or PoE adapter.


