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Understanding PoE Standards and Wattage

PoE (Power over Ethernet) technology allows PSE (Power Sourcing Equipment, such as a PoE switch) to use Ethernet cables to deliver both power and data simultaneously to PD (Powered Device, like IP cameras and VoIP phones), which can simplify cabling installation and save cost. Different PoE standards like IEEE802.3af,802.3at, and 802.3bt are released by IEEE (Institute of Electrical and Electronic Engineers) to regulate the amount of power delivered to those PDs. Then how much do you know about those PoE standards and PoE wattage? How many PDs can be connected to a PSE based on different PoE wattages? Here it offers a detailed explanation.

PoE Standards Introduction

PoE standards come in three types: IEEE 802.3af, IEEE 802.3at, and IEEE 802.3bt. These standards define the minimum power that Power Sourcing Equipment (PSE) can deliver and the maximum power that Powered Devices (PD) will expect to receive.

Figure 1: IEEE 802.3af, IEEE 802.3at and IEEE 802.3bt Introduction

1. IEEE 802.3af (Standard PoE)

Operating within a voltage range of 44-57V and delivering a current of 10-350mA, IEEE 802.3af provides a maximum power output of 15.4W per port. Due to Ethernet cable power loss, the minimum guaranteed power available at the PD is 12.95W per port. This standard supports devices like VoIP phones and sensors.

2. IEEE 802.3at (PoE+)

As an updated standard, PoE+ is backward-compatible with IEEE 802.3af. It operates with a supply voltage ranging from 50V to 57V and a supply current of 10-600mA. PoE+ delivers up to 30W of power on each PSE port, ensuring a minimum power output of 25W per port. This standard is suitable for devices like wireless access points and video conferencing systems.

3. IEEE 802.3bt

IEEE 802.3bt is the latest PoE standard that defines two types of powering/wattage standards – Type 3 and Type 4. They will increase the maximum PoE power by delivering more power through two or more pairs of Ethernet cables. In Type 3 and Type 4 modes, PSEs will identify the PDs and allocate power based on the maximum power requirement of the PDs, resulting in an enhanced power delivery system. The standard will include support for 2.5GBASE-T, 5GBASE-T, and 10GBASE-T while existing standards have a maximum speed of 1-Gbps. It’s designed for demanding applications such as laptops and LED lighting.

a. Type 3 (PoE++)

Type 3, also known as PoE++, can provide up to 60W per PoE port (ensuring a minimum of 51W on each PD port). It’s suitable for powering devices such as video conferencing systems components.

b. Type 4 (Higher-Power PoE)

Type 4 offers a maximum power output of 100W per PoE port (with a minimum of 71W on each PD port). This level of power delivery is ideal for devices like laptops and TVs.

Both the two modes of IEEE 802.3bt are backward compatible with 802.3af and 802.3at. The following table concludes the specifications of the PoE standards, including PoE wattage.

Name	IEEE Standard	PD Min. Power Per Port	PSE Max. Power Per Port	Cable Category	Power Over Pairs	Released Time
PoE	IEEE 802.3af	12.95W	15.4W	Cat5e	2 pairs	2003
PoE+	IEEE 802.3at	25W	30W	Cat5e	2 pairs	2009
PoE++	IEEE 802.3bt	51W	60W	Cat5e	2 pairs class0-4, 4 pairs class5-6	2018
PoE++	IEEE 802.3bt	71W	100W	Cat5e	4 pairs class7-8	2018

Understanding PoE Wattage

As mentioned above, IEEE 802.3af delivers a maximum of 15.4W per port, while PoE+ supports up to 30W. The challenge arises when planning to connect multiple devices to a single PoE/PoE+ switch. It’s essential to ensure that the total power requirements of these devices do not exceed the switch’s maximum power wattage.

For example, let’s take the FS S3400-24T4FP, a managed PoE+ switch with 24 RJ45 ports and 4 SFP ports. Compliant with IEEE 802.3af/at standards, this switch has a total power budget of 370W. This means it can concurrently power 24 devices compliant with PoE standards (15.4W x 24 = 369.6, which is less than 370W). It can also support 12 devices compliant with PoE+ standards (30W x 12 = 360W, which is again less than 370W).

Figure 2: Applications of FS PoE+ switches.

But there’s no need to worry, modern network switches are intelligent. When a device is connected, they automatically detect whether it’s compatible with PoE or PoE+. If it’s a PoE-enabled device requiring 5W, the switch supplies precisely that. If the device demands 20W, the switch steps up. But if you connect a device without PoE capability, rest assured, the switch will deliver data only.

How Much PoE Wattages are Need?

The power needs of your devices depend on what you’re connecting. Most devices, such as security cameras, IP phones and standard wireless APs, require no more than 30 watts.

However, some devices, like 802.11ac wireless APs with multiple USB ports and radios, need over 30 watts for peak performance. For these cases, PoE++ or PoH switches are the solution. Keep in mind that some devices can adapt to lower power availability by using fewer radios or disabling features.

FS Network Switches: Your PoE Solution

FS now offers PoE/PoE+/PoE++ switches that adhere to the PoE standards, providing enhanced security and improved capabilities. They are available in 8/16/24/48 port options. These switches support layer 2+ switching features like VLAN. They also offer advanced management like WEB, CLI, TELNET, and SNMP. FS PoE/PoE+ switches can power any 802.3af or 802.3at device on the market, offering flexibility and security. The following table lists the specifications of 4 FS PoE/PoE+/PoE++ switches.

Model	PoE Standard	Port	Switch Capacity	Power Budget	Forwarding Rate	Fans	AC/DC Power Supply
S3260-8T2FP	IEEE 802.3af/at	8x RJ45 \| 2x SFP	20 Gbps	240W	15 Mpps	With Fans	AC
S3410-24TS-P	IEEE 802.3af/at	24x RJ45 \| 2x SFP+, 2x RJ45/SFP	128 Gbps	740W	96 Mpps	With Fans	AC/DC
S5860-24XB-U	IEEE 802.3af/at/bt	24x Base-T \| 4x SFP+, 4x SFP28	760 Gbps	740W	565 Mpps	With Fans	AC

Summary

Understanding PoE standards and wattage is crucial for efficient device connections. By matching your device’s power requirements with the right PoE standard, you ensure seamless operation. PoE technology simplifies complex cabling and provides flexibility in power delivery.

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Article Source: Understanding PoE Standards and Wattage

MDI vs MDIX And Auto MDI/MDIX Basics

MDI/MDIX are types of Ethernet interface (both physical and electrical/optical) in a computer network used to carry transmission. They must be connected using the right twisted pair cable so that the transmission pair on one end is linked to the receiving pair on the other end, and vice versa. So what exactly are MDI vs MDIX ports? How do you choose the right Ethernet cabling when connecting MDI to MDIX or MDIX to MDIX? This post will address these issues and offer some insights into auto MDI/MDIX technology.

MDI vs MDIX: What Is the Difference?

MDI (Medium dependent interface), also known as an uplink port, is an Ethernet port connection typically used on the NIC (Network Interface Card) or Integrated NIC port on a PC. The transmission signals on a NIC must go to receiving signals on the hub or network switch, so the latter devices have their transmission and receiving signals switched in a configuration known as MDIX – the “X” here represents “crossover”, indicating the reverse of input and output signals.

MDIX (Medium Dependent Interface Crossover) is an 8P8C port connection often found on a computer, router, hub, or network switch. Since MDIX is the crossover version of the MDI port, the pins 1 & 2 (transmitting) on an MDI device go to pins 1 & 2 (receiving) on an MDIX device via a straight through cable. Similarly, pins 3 & 6 (receiving) on an MDI device go to pins 3 & 6 (transmitting) on an MDIX device. In this case, the MDIX port eliminates the need for a crossover twisted pair cabling.

MDI to MDIX using straight through cable

MDI vs MDIX: How to Choose the Right Cabling?

In general, end stations like PCs or workstations use an MDI interface, whereas hubs and network switches use MDIX interfaces. On other network devices like routers, multiple MDIX ports and a single MDI port often co-exist. The MDI port on the router is designed to connect a cable modem. Both ports are labeled MDI or MDIX to help you choose the right type of cable. As a rule, MDI ports connect to MDIX ports via straight-through twisted pair cabling. As for MDI-to-MDI or MDIX-to-MDIX connections, crossover twisted pair cables are deployed. In some cases, network hubs or switches are built with an MDI port (often switchable) in order to connect to other hubs or switches without a crossover Ethernet cable.

What About Ethernet Auto-MDI/MDIX?

As aforementioned, an Ethernet crossover cable is adopted to connect two ports of the same configuration (i.e. MDI-to-MDI or MDIX-to-MDIX). However, it may generate some confusion and inconveniences when deploying two different kinds of Ethernet cables. The auto-MDI/MDIX technology is developed to fix this problem: It automatically switches between MDI and MDIX as required. Auto MDI/MDIX ports on newer device interfaces detect if the connection requires a crossover, then automatically choose the MDI or MDIX configuration to properly match the other end of the link. In this case, it doesn’t matter if you using straight through or crossover cables. The chart below shows cable types for MDI/MDIX and auto-MDIX.

FS.com Gigabit PoE Switch With Auto MDI/MDIX

The latest routers, hubs and switches (including some 10/100, and all 1GB or 10GB Ethernet switch) use auto MDI/MDIX to automatically switch to the proper configuration once a cable is connected. FS.com 48 port switch S1600-48T4S is one of them. This Gigabit PoE+ managed switch comes with 48×10/100/1000Base-T RJ45 Ethernet ports and 4x 10G SFP+ slots, offering up to 180Gbps switching capacity, enterprise-class features and superior network security. The built-in auto-MDI/MDIX provides fast plug-and-play setup and eliminates the need for a crossover cable. It can also detect the link speed of the attached device and makes adjustments according to the compatibility and performance requirements, enabling the switch to be backwards compatible with legacy network devices.

Conclusion

To sum it up, MDI is an Ethernet port on end stations like PCs and workstations, whereas MDIX on hubs and network switches is the crossover version of MDI. You should employ straight through Ethernet cable for an MDI-to-MDIX connection and crossover cable for either MDI-to-MDI or MDIX-to-MDIX configuration. The auto MDI/MDIX connection address the MDI vs MDIX issues by automatically switching between MDI and MDIX, so you can opt for the cable types that suit your needs. If you still have problems regarding MDI/MDIX and auto MDI/MDIX technology, feel free to contact us at sales@fs.com.

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Article Source: MDI vs MDIX And Auto MDI/MDIX Basics

How to Avoid Overheating in PoE Cabling?

Power over Ethernet (PoE) technology, which combines power and data transmission together over a single cable, has made great advances over the last decades. Applications for PoE have extended from the VoIP phone and security camera to IoT devices including medical devices, access control systems for intelligent buildings, etc. Every evolution in PoE technology has witnessed the transition to higher power level, however, the overheating issue along with higher power in PoE cabling becomes an essential issue. This post will discuss the heat rise with high power PoE as well as exploring solutions to avoid overheating problems.

Evolution of PoE Standards

As the PoE market continues to grow, PoE standards go through several generations of versions from the primary IEEE 802.3af standard to the latest IEEE 802.3bt standard to accommodate the market needs. In the following chart, we will take a closer look at the four PoE standard types.

	Type 1	Type 2	Type 3	Type 4
Name	PoE	PoE+	PoE++, UPoE	High-Power PoE
Name	PoE	PoE+	PoE++, UPoE	High-Power PoE
PoE Standard	IEEE 802.3af	IEEE 802.3at	IEEE 802.3bt	IEEE 802.3bt
Max. Power per Port	15.4 W	30 W	60 W	100 W
Power to PD	12.95 W	25.5 W	51 W	71.3 W
Twisted Pair Used	2-Pair	2-Pair	4-Pair	4-Pair
Supported Cables	Cat5e	Cat5e	Cat5e	Cat5e
Typical Application	IP phone	Video phone	MGMT device	LED lighting

The PoE standard IEEE 802.3af, also called PoE type 1 is an early standard designed for the low power needed devices such as traditional IP phones and the security camera. Nevertheless, with the appliance of high power devices, 12.95W is not enough for their needs, which hence becomes a limitation of PoE. Later, the early standard was followed by the IEEE 802.3at which expanded the range of PoE applications such as video telephone and dual-band desktop access, and then came the latest IEEE 802.3bt standard. Along with the increased PoE power level, it causes a temperature rise within a PoE cable. Especially when the PoE power output reaches as high as 100 W, the heat rise of PoE cable will become more obvious.

Heat Rise—The Concern Emerging With High Power PoE

In the previous IEEE 802.3af and IEEE 802.3at PoE standards, the maximum power provided by PSE is 15.4W and 30W accordingly. It is not likely to overheat at this level of power unless under extreme ambient temperatures or cable bundles are too large. Two pairs of the four pairs in an Ethernet cable is enough to carry the current. However, as the power to the end devices is increasing, PoE cabling is bound to improve to deliver higher power. The effective means to improve the cable efficiency is to increase the number of wires carrying the power—Type 3 and type 4 PoE standard uses all four pairs to inject power rather than 2 pairs used in the early standards.

Figure 1: 2-pair PoE vs 4-pair PoE

The 4-pair PoE doubled the amount of available power, enabling PoE expanding to support higher-powered devices instead of being limited to the devices needing low power such as 15W or 30W. However, high power is not the only thing requiring attention in PoE cabling. Heat rise is another one. Manufacturers and technical consortiums have worked to evaluate the thermal impact of delivering 100 Watts of power over 4-pair PoE. Apparently the increasing power increases current flow, which significantly results in an increase in cable heating.

Why Is Heat Rise a Key Issue?

Why do we consider heat rise in PoE cabling so seriously? It is all because of the negative effects of heat rise on the link stability, and cabling lifespan.

Overheat in PoE cabling can result in an increase in insertion loss. To maintain the signal quality, administrators have to shorten the cable length to compensate for the loss in the link. Heat rise will lead to the premature aging of jacketing materials. If operated under the high-temperature circumstances for a long time, the outer jacket may get broken and impact the inner construction, breaking the balance of the twisted pair cable and causing the decline of electric performance. Furthermore, since the influence of heat rise in high power PoE is irresistible, careful evaluation before the PoE cabling deployment is required in the event of subsequent disposal. Better cabling cool will help to reap the benefit of excellent transmission performance.

Common Types of High Power PoE Applications

As has been mentioned in the front section, heat rise occurs with high power PoE cabling. Driven by the need for higher power all around the world, new PoE technology is expected to progress to enable new PoE markets and widen PoE’s scope to the existing markets requiring high power. Applications that take advantage of high power PoE technology include:

Intelligent buildings with enterprise IoT (connected LED lighting)
Safe cities (high definition pan-tilt-zoom security cameras)
Retail POS systems and digital signage
High-performance wireless access points
Kiosks
Small cells

Precautions to Minimize Heat Rise in PoE Cabling

Ultimately, the overheating problem can be attributed to the cable/conductor construction and specific installation situations. The following suggestion to minimize heat rise in PoE cabling will be listed from these aspects in an exhaustive way.

1. Use higher category cabling

In general, the higher the cable category is, the lower the heat will rise. According to the testing results from Leviton engineers, the higher category cabling correlated with lower amounts of temperatures after they tested several different category types of fiber cables. For new PoE installations, TIA suggests Cat6A for use.

Figure 2: Current per category cable

2. Select cabling with a larger conductor (i.e., lower gauge number)

Heat rise can be the result of the conductor resistance in PoE applications. The larger the conductor is, the more it can reduce conductor resistance, the easier current flow it will allow for and the less heat it will generate.

3. Cable connectors should feature a solid metal body

Consider using connectors with an all-metal-body construction, instead of plastic. Compared with thermoplastic jacketing materials, mental has a higher conductivity and does better in heat dissipation.

4. Choose cables with smaller bundle size

By measuring the temperature of a large cable bundle and the smaller bundles separated from the big one, TIA identified that the core of the large cable bundle experienced higher temperature in comparison to smaller bundles. TSB-184-A developed by the TIA subcommittee recommended leaving cables unbundled to facilitate better heat dissipation. If not possible, smaller bundle sizes are recommended.

5. Install shielded cabling

It has been affirmed that the existence of a metallic shield or foil helps dissipate heat. If the cable utilizes a foil shield around each pair, it will deliver better heat-dissipating qualities than the unshielded twisted pair cables. Therefore, S/FTP or F/UTP cables are more applicable than UTP cabling systems in PoE applications.

Figure 3: Cable heat dissipation effect UTP vs F/UTP

6. Plan your PoE cable management

Group your cables as loosely as possible instead of bundling all of them as a whole. Distribute your cable or cable bundles as dispersed as possible in an available area. High cable density will contribute to more heat within the cable or cable bundles. You are suggested to use cable management tools that allow for better airflow around cables and cable bundles.

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Article Source: How to Avoid Overheating in PoE Cabling?

Long Range Outdoor AP Delivers Stable Outdoor WiFi

Long Range Outdoor AP plays a crucial role in maintaining a reliable WiFi connection. While indoor WiFi networks have become commonplace, ensuring a stable outdoor WiFi connection presents unique challenges. This is where outdoor WiFi access points (APs) come into play. In this article, we will delve into the concept of outdoor WiFi APs and how they can assist you in upholding a stable, high-speed internet connection beyond the reach of your regular networks.

Why Do You Need a Long Range Outdoor AP?

The importance of outdoor WiFi connections cannot be overstated, particularly in business environments. Homeowners and business owners alike rely on Long Range Outdoor APs to expand their network coverage to open spaces. For homeowners, this means enjoying seamless connectivity in gardens and patios. Business owners, especially those in the food and beverage industry like cafes and restaurants, depend on outdoor WiFi to offer dependable internet access to patrons. This service enhances customer experience by allowing guests to peruse menus, check emails, and engage on social media. Positive customer experiences, in turn, translate into favorable reviews and repeat visits, making outdoor WiFi an indispensable asset for establishments looking to thrive in today’s competitive market.

What is the Long Range Outdoor AP?

The Long Range Outdoor AP, or Access Point, is a specialized wireless device crafted for extending your network’s coverage beyond conventional indoor boundaries. Unlike typical home routers, which primarily serve indoor areas, these outdoor APs excel at delivering WiFi signals across vast outdoor spaces, making them the perfect choice for homeowners and businesses seeking dependable outdoor internet access. Long Range Outdoor APs typically feature robust, weatherproof enclosures to withstand the elements, while supporting high-speed WiFi standards for fast and reliable connections. They come in various designs and sizes to cater to different needs, including smaller units for residential use and more robust, high-capacity models for commercial and industrial applications.

Factors Impacting Long Range Outdoor AP WiFi Signals

Physical Obstacles

Physical obstacles, such as buildings, trees, and other structures, can significantly impact outdoor WiFi signals. Understanding how these obstacles affect signal propagation is essential for planning the installation of your outdoor WiFi APs. In some cases, you may need to adjust the positioning of your APs to avoid signal interference.

Weather Conditions

Weather conditions can have a substantial impact on outdoor WiFi connections. Rain, snow, and fog can reduce signal strength and reliability. Extreme temperatures, especially in very hot or cold climates, can also affect the performance of outdoor WiFi APs. When installing these devices, it’s essential to choose equipment designed to withstand the specific weather conditions in your area.

Frequency Band Selection

The choice of WiFi frequency bands, such as 2.4GHz and 5GHz, can significantly impact signal quality. In general, the 2.4GHz band offers better range but may be more susceptible to interference, while the 5GHz band provides faster speeds but has a shorter range. Selecting the appropriate frequency band depends on your specific needs and the environment in which the outdoor WiFi AP will be installed. Many APs on the market provide 2.4G frequency, such as FS AP-T567 and AP-T565. They are both Outdoor Access Points, and they can achieve seamless roaming and cloud managed to ensure business continuity.

Security Measures

Security is a critical aspect of outdoor WiFi connections. Implementing strong encryption, such as WPA3, is essential to protect your network from unauthorized access. Additionally, setting up a guest network with restricted access can enhance security, ensuring that guests can access the internet without compromising your primary network’s security.

Proper Installation of Long Range Outdoor AP

Selecting the correct installation site for your Long Range Outdoor AP is crucial. Take into account the following key factors:

Power Supply: It is essential to guarantee that your Long Range Outdoor AP receives a consistent power supply. This may involve the use of waterproof cables and appropriate power adapters to ensure uninterrupted operation.

Elevation: Position the AP at an optimal height to optimize signal coverage while avoiding potential obstructions that might degrade the signal quality.

Weatherproofing: Deploy weatherproof enclosures or protective covers to shield the Long Range Outdoor AP from the impact of adverse weather conditions, ensuring its longevity and performance reliability.

After installation, configure the outdoor AP to meet your network requirements. Test the connection to ensure everything is operating correctly and that the device provides the necessary signal coverage. Additionally, it is essential to conduct regular checks on the device’s performance, clearing any dust or dirt, to ensure stability.

Conclusion

Long Range Outdoor AP provides a practical solution to extend your network coverage and ensure a seamless internet connection, whether you’re at home, in a commercial outdoor space, or hosting an event. By understanding the benefits of outdoor WiFi APs, knowing how to choose the right device, and following best practices for installation and maintenance, you can enjoy uninterrupted connectivity in your outdoor spaces, no matter the weather or location. Don’t let the great outdoors limit your online experience – invest in outdoor WiFi APs and stay connected wherever you go.

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What is the Difference Between Wi-Fi 6 and Wi-Fi 6E?

In the wireless connectivity domain, Wi-Fi 6 and Wi-Fi 6E have gained significant prominence, representing substantial advancements in the field of Wi-Fi. Understanding the distinctions and applications between these two technologies is crucial for selecting the technology that best suits your requirements. This article will delve into Wi-Fi 6 and Wi-Fi 6E, revealing their differences.

What are Wi-Fi 6 and Wi-Fi 6E?

To comprehend the difference between Wi-Fi 6 and Wi-Fi 6E, it’s essential to grasp the fundamental concepts of both technologies initially.

Wi-Fi 6, also known as 802.11ax, is the latest generation of Wi-Fi technology following Wi-Fi 5 (802.11ac), inheriting advanced features from its predecessor. Wi-Fi 6 aims to deliver faster data transfer rates, higher efficiency in crowded environments, and superior performance across a variety of devices.

Wi-Fi 6E is an extension of Wi-Fi 6, representing the most advanced and sophisticated Wi-Fi technology currently available. In Wi-Fi 6E, the “E” stands for “extended”, signifying that Wi-Fi 6E extends the available frequency bands from Wi-Fi 6 2.4 GHz and 5 GHz to the 6 GHz frequency band. This extension enables greater capacity, wider channels, and reduced interference. At the same time, you require both a Wi-Fi 6E compatible router and devices to fully experience even higher network speeds.

Differences Between Wi-Fi 6 and Wi-Fi 6E

Now that we have a basic understanding of both technologies, let’s explore the key differences between Wi-Fi 6 and Wi-Fi 6E. In today’s world, we need to connect a multitude of devices in our lives, such as smartphones, tablets, smart homes, and more, especially in large public spaces like shopping malls and schools. The existing 2.4 GHz and 5 GHz frequency bands have become quite congested. The addition of the 6 GHz frequency band can provide higher WiFi traffic capacity, enabling the connection of more wireless devices.

Spectrum

The most significant difference between Wi-Fi 6 and Wi-Fi 6E is the spectrum they operate in. Wi-Fi 6E utilizes the 6 GHz spectrum, while Wi-Fi 6 primarily relies on the 2.4 GHz and 5 GHz bands. The 6 GHz band offers significantly more available channels and is less congested, making it ideal for high-capacity, low-latency applications.

Speed

While both Wi-Fi 6 and Wi-Fi 6E offer faster speeds compared to their predecessors, Wi-Fi 6E typically provides even higher data rates. The additional spectrum in the 6 GHz band allows Wi-Fi 6E to deliver multi-gigabit speeds, making it suitable for bandwidth-intensive applications like 4K and 8K streaming, virtual reality, and augmented reality.

Range

When it comes to range, Wi-Fi 6E may have a slight disadvantage compared to Wi-Fi 6. Higher-frequency bands, such as the 6 GHz band, tend to have shorter ranges and may not penetrate walls and obstacles as effectively as lower-frequency bands. In contrast, Wi-Fi 6, with its utilization of the 2.4 GHz band, offers better coverage over longer distances.

For businesses seeking top-tier coverage, ease of installation, and management, FS offers a range of Wi-Fi 6(802.11ax) products designed to provide the latest and fastest technology. These products are ideal for indoor settings, including offices, classrooms, corridors, and other indoor locations.

Interference

Wi-Fi 6E, operating in the relatively uncrowded 6 GHz band, experiences less interference compared to Wi-Fi 6, which shares spectrum with various devices and technologies in the 2.4 GHz and 5 GHz bands. Reduced interference in the 6 GHz band results in more reliable and consistent connections.

Unlocking the Potential of Wi-Fi 6E with FS Products

Based on the above comparison of advantages and disadvantages, it is clear that Wi-Fi 6E holds immense potential. As gaming, video conferencing, and streaming technologies continue to evolve, the demand for wireless networks capable of supporting these activities and devices is rapidly increasing. The number of devices requiring high bandwidth has never been higher.

As a leading provider of networking solutions, FS has introduced the AP-N635. It utilizes three radios to ensure comprehensive coverage, meeting the ever-growing Wi-Fi demands driven by increased video usage, the proliferation of client and IoT devices, and the expanding use of cloud services. Whether you find yourself in a bustling conference center, a sprawling campus, or a large venue, the AP-N635 excels with its maximum aggregate data rate of 7775 Mbps and seven super-wide 160 MHz channels, delivering enhanced throughput and faster speeds, thus ensuring your wireless network can effortlessly handle even the most demanding applications. Furthermore, its 24/7 central configuration and management capabilities translate into cost savings and time efficiency.

AP-N635, Cloud Managed Wi-Fi 6E 802.11ax 7775Mbps Indoor Access Point, Seamless Roaming & 4x4 MU-MIMO Three Radios, Manageable via Airware, Controller or Standalone (Without PoE Injector)

FS AP-N635

The Future Prospects of Wi-Fi 6E

Wi-Fi 6E, as a revolutionary advancement in the field of wireless communication, stands out not only as one of the most significant developments in wireless technology but also holds immense potential in shaping the future of wireless connectivity. With the continuous evolution of gaming, video conferencing, and streaming technologies, the demand for wireless networks that can support these activities and devices is growing rapidly. The number of devices requiring high bandwidth is higher than ever before, and 6 GHz Wi-Fi is designed to meet the demands of future wireless technology.

Enhanced Mobile Experiences:

With evolving mobile devices supporting Wi-Fi 6E, users can anticipate improved experiences in applications like augmented reality (AR) and virtual reality (VR), thanks to the high bandwidth and low latency.

IoT and Smart Homes

The rising Internet of Things (IoT) benefits from Wi-Fi 6E’s ability to handle multiple devices concurrently, making it ideal for smart homes and connected environments, ensuring seamless connectivity for various devices.

Business and Industry

Wi-Fi 6E’s support for high-density environments, including stadiums, airports, and industrial facilities, benefits businesses and industries. It enables advanced applications like wireless automation, real-time monitoring, and augmented reality in sectors like manufacturing and logistics.

Wi-Fi 6E Devices

The availability of Wi-Fi 6E-compatible devices is expected to increase, further boosting its adoption. Users will have a broader selection of smartphones, laptops, tablets, and other gadgets capable of fully utilizing the 6 GHz spectrum.

Conclusion

Wi-Fi 6 and Wi-Fi 6E represent significant advancements in wireless technology. Your choice between the two depends on your specific needs and applications. Wi-Fi 6E, utilizing the 6 GHz spectrum, offers higher speeds, reduced interference, and support for bandwidth-intensive applications. It holds immense potential for enhancing mobile experiences, enabling IoT, transforming industries, and expanding device compatibility.

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