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Experience 6 GHz WiFi with UniFi 7 Compared to wired full-duplex Ethernet, WiFi is half-duplex in nature — meaning it cannot send and receive data simultaneously. So, advertised WiFi air speed is shared by uplink and downlink activity. And while wired Ethernet is specified in terms of payload speed, WiFi air speed includes protocol overhead that can account for nearly 50% of the total transmission. WiFi speed can decline further — even significantly so — depending on the utilization of the WiFi network and environmental interference. That’s why real-world wired Ethernet speed matches its specification, while in the WiFi world, real-world speed is typically just a fraction of the advertised air speed. Up until now, the key focus of professional WiFi network design has been minimizing channel interference to maximize real-world speeds. However, with the opening of the 6 GHz band which triples total available WiFi spectrum, a shift is taking place. New client devices that support 6 GHz, whether they’re WiFi 6E or 7, now have so much interference-free spectrum available that the traditional design focus of careful planning using narrow channel widths is being ushered away in favor of a new design philosophy that encourages wider spectrum utilization. Practically, this means deploying APs with 6 GHz radios to aggressively offload all 6 GHz capable client devices onto wider, interference-free channels in the new 6 GHz band. The introduction of WiFi 7 further accelerates this trend towards maximum spectral utilization through three key new features. #ubiquiti #wifi #internet #wireless #unifi #wisp #isp #ubiquitinetworks #networking #network #ubnt #router #cctv #ubiquitieverywhere #cat #technology #telecom #firewall #security #supportlocal First is the doubling of maximum channel width from 160 MHz to 320 MHz. A single 320 MHz channel can deliver an insane 5.7 Gbps air speed with just two spatial streams! That translates to real-world speeds that can saturate a 2.5 gigabit Ethernet link. Next is Multi-Link Operation, or MLO, which takes the concept of an AP’s independent 2.4, 5, and 6 GHz radio channels and essentially creates a single unified “super channel” by combining all of their spectrum together. WiFi 7 clients can connect to this entire “super channel” across all three bands at once for massive bandwidth and impressive low-latency performance. The third breakthrough is called puncturing, which allows this “super channel” to operate non-continuously and essentially “notch” out noisy interferers. When combined with MLO, puncturing provides ultimate high availability without any speed compromises — delivering a wired-like experience to WiFi users.

Experience 6 GHz WiFi with UniFi 7 Compared to wired full-duplex Ethernet, WiFi is half-duplex in nature — meaning it cannot send and receive data simultaneously. So, advertised WiFi air speed is shared by uplink and downlink activity. And while wired Ethernet is specified in terms of payload speed, WiFi air speed includes protocol overhead that can account for nearly 50% of the total transmission. WiFi speed can decline further — even significantly so — depending on the utilization of the WiFi network and environmental interference. That’s why real-world wired Ethernet speed matches its specification, while in the WiFi world, real-world speed is typically just a fraction of the advertised air speed. Up until now, the key focus of professional WiFi network design has been minimizing channel interference to maximize real-world speeds. However, with the opening of the 6 GHz band which triples total available WiFi spectrum, a shift is taking place. New client devices that support 6 GHz, whether they’re WiFi 6E or 7, now have so much interference-free spectrum available that the traditional design focus of careful planning using narrow channel widths is being ushered away in favor of a new design philosophy that encourages wider spectrum utilization. Practically, this means deploying APs with 6 GHz radios to aggressively offload all 6 GHz capable client devices onto wider, interference-free channels in the new 6 GHz band. The introduction of WiFi 7 further accelerates this trend towards maximum spectral utilization through three key new features. #ubiquiti #wifi #internet #wireless #unifi #wisp #isp #ubiquitinetworks #networking #network #ubnt #router #cctv #ubiquitieverywhere #cat #technology #telecom #firewall #security #supportlocal First is the doubling of maximum channel width from 160 MHz to 320 MHz. A single 320 MHz channel can deliver an insane 5.7 Gbps air speed with just two spatial streams! That translates to real-world speeds that can saturate a 2.5 gigabit Ethernet link. Next is Multi-Link Operation, or MLO, which takes the concept of an AP’s independent 2.4, 5, and 6 GHz radio channels and essentially creates a single unified “super channel” by combining all of their spectrum together. WiFi 7 clients can connect to this entire “super channel” across all three bands at once for massive bandwidth and impressive low-latency performance. The third breakthrough is called puncturing, which allows this “super channel” to operate non-continuously and essentially “notch” out noisy interferers. When combined with MLO, puncturing provides ultimate high availability without any speed compromises — delivering a wired-like experience to WiFi users.

Different Types of Media use in Networking ---> 1) Copper Cables ---> Twisted Pair Cables ---> These include both unshielded twisted pair (UTP) and shielded twisted pair (STP) cables. They are commonly used in Ethernet networks. UTP cables are less expensive and sufficient for most networking needs, while STP cables provide additional shielding to reduce electromagnetic interference. Coaxial Cables ---> These cables have a central conductor surrounded by insulation, a metallic shield, and an outer jacket. Coaxial cables are used in older Ethernet networks and for cable television. 2) Fiber Optic Cables ---> Single-Mode Fiber (SMF) ---> Designed for long-distance communication, single-mode fiber has a small core and uses laser light to transmit data. Multi-Mode Fiber (MMF) ---> Suitable for shorter distances, multi-mode fiber has a larger core and uses LED light. It is often used within buildings or on campus networks. 3) Wireless Media ---> Radio Waves ---> Used in various wireless technologies, including Wi-Fi (802.11 standards), Bluetooth, and cellular networks. Radio waves provide flexibility and mobility but may suffer from interference and range limitations. Microwave Transmission: Utilizes microwave signals for long-distance communication. It's often used in point-to-point communication links and satellite communications. Infrared (IR) ---> Utilizes infrared light for short-range communication, such as remote controls and some types of wireless data transfer. Satellite Communication ---> Uses satellites to relay signals over long distances. This method is often used in remote areas where terrestrial communication infrastructure is lacking. Each of these media types plays a role in different networking scenarios, and the choice of media depends on factors such as distance, data rate requirements, environmental conditions, and budget. #cisco #ccna #ccnp #networking #media #cables #networkdevices #cables #fiber

Wireless Networks: Wireless networks allow devices to connect to the internet and communicate without physical cables, using radio waves or infrared signals. Key components include: Access Points (APs): These devices transmit and receive data between wireless devices and the wired network, acting as a bridge. Wireless Standards: Protocols like Wi-Fi (IEEE 802.11) define how devices communicate over the network. Common standards include 802.11a/b/g/n/ac/ax, with varying speeds and ranges. Network Security: Protecting wireless networks is crucial. Common security protocols include WEP, WPA, and WPA2/WPA3, which encrypt data to prevent unauthorized access. Frequency Bands: Wireless networks typically operate on 2.4 GHz and 5 GHz bands. The 2.4 GHz band has a longer range but lower speeds, while the 5 GHz band offers higher speeds but shorter range. Mesh Networks: These systems use multiple access points to extend coverage and improve reliability, allowing devices to connect seamlessly as they move through the area. Interference and Range: Factors like walls, electronic devices, and distance can affect signal strength and quality, requiring careful planning of network layout. Wireless networks are widely used in homes, businesses, and public spaces, enabling flexibility and mobility for users. See more information: network.sciencefather.com Nomination : https://lnkd.in/g_zsr5Cz Contact us : network@sciencefather.com Social Media : Instagram : https://lnkd.in/gTX_2hS6 Pinterest : https://lnkd.in/gBnzjCUt Facebook : https://lnkd.in/gS_2wvfY Blog : https://lnkd.in/gA2EPp7F #ScienceFather #Researcher #ResearchScientist #Speaker #Networkingevents #5GNetwork #5GTechnology #5G #WirelessNetworking #HighSpeedInternet #SeamlessConnectivity #SmartHome #RemoteWork #DigitalTransformation #ConnectedDevices #NetworkOptimization

Wired vs. Wireless: A Head-to-Head Comparison of 5G and FTTH 5G • Technology: Cellular network standard enabling faster speeds and lower latency for mobile devices. • Connection: Wireless • Speeds: Significantly faster than 4G, with potential speeds exceeding 1 Gigabytes per second (Gbps) • Range: Varies depending on factors like frequency and cell tower density. Generally shorter range compared to FTTH. • Latency: Lower than 4G, enabling near real-time data transfer. • Deployment: Requires installation of new cell towers and infrastructure. FTTH (Fiber to the Home) • Technology: Delivers internet access using fiber optic cables directly to homes and businesses. • Connection: Wired • Speeds: Extremely high speeds, symmetrical upload and download (up to 1 Gbps or more) • Range: Limited by the length of the fiber optic cable. Covers a specific area where the cable infrastructure is laid. • Latency: Very low latency, ideal for real-time applications. • Deployment: Requires laying fiber optic cables, which can be expensive and disruptive. Think of it like this: • 5G is like a superhighway for your phone. It's fast and mobile, but coverage areas might be limited. • FTTH is like a dedicated fiber optic line to your house. It's incredibly fast and reliable, but installation is more complex. They are not necessarily competitors, but rather complementary technologies. FTTH provides the high-bandwidth backbone that 5G networks rely on, while 5G offers the flexibility of wireless connectivity for mobile devices. #lowlatency #highspeed #technology #futureproof #internet #speed #connectivity #bandwidth #innovation #5G #FTTh #wired #wireless #fiberoptic #mobilenetwork

Ever wondered how wireless networks are structured? They operate much like a traditional LAN, just without the tangle of cables. WLANs use radio frequency tech to pass data around, making them a flexible choice for businesses within a building or across locations. Key components include: - Wireless access points: Think of them as mini LAN hubs, connecting devices and managing data flow. - Network interface cards (NICs): These are the radio transceivers for individual computers, linking them to the WLAN. - Range extenders: Boost the coverage of your network by relaying signals and broadening the reach of your Wi-Fi. Setting up a WLAN involves ensuring all components are compatible, meeting specific wireless networking standards for seamless operation. Understanding these components sheds new light on how wireless networks function, just like peeling back layers of an intricate technology onion. https://lnkd.in/dnaG-VbP

#PlanetNetwork ⚡ 🌟 Introducing the Ultimate Networking Game-Changer: PLANET SGS-6310-24P4X! 🌟 Elevate your network's performance, reliability, and scalability with the PLANET SGS-6310-24P4X L3 Managed Switch. This state-of-the-art device is engineered to meet the demands of modern businesses, data centers, and high-traffic networks. Why the PLANET SGS-6310-24P4X? 🔌 24-Port Gigabit PoE+: Power your devices directly through the network cables, simplifying the wiring and reducing costs. 🚀 4-Port 10G SFP+: Experience blazing-fast data transfer rates, perfect for high-speed networking environments. 🔄 Stackable Design: Easily manage multiple switches as a single entity, enhancing network capacity and simplifying management. 🛡️ Layer 3 Features: Advanced routing protocols to efficiently manage network traffic and improve overall performance. 🌐 Power Over Ethernet (802.3at PoE+): Support for high-powered devices, ideal for VoIP phones, wireless access points, and surveillance cameras. Whether you're upgrading your enterprise network, setting up a robust data center, or enhancing your campus network infrastructure, the PLANET SGS-6310-24P4X offers the perfect blend of performance, power, and versatility. ✔🛒 Dive deeper into how the PLANET SGS-6310-24P4X can transform your network infrastructure: https://lnkd.in/gED6TFyT #Networking #ManagedSwitch #PoE #DataCenter #TechInnovation #PLANETTechnology #WISP #sydneyaustralia #sydney #australia

Wi-Fi 8 Trades Speed For a More Reliable Experience: Wi-Fi 8 (also known as IEEE 802.11bn Ultra High Reliability) is expected to arrive around 2028, prioritizing an enhanced user experience over speed by optimizing interactions between devices and access points. While it retains similar bandwidth specifications as the previous standard, Wi-Fi 8 aims to improve network efficiency, reducing interference and congestion for a more reliable and adaptive connection. PCWorld's Mark Hachman reports: As of Nov. 2024, MediaTek believes that Wi-Fi 8 will look virtually identical to Wi-Fi 7 in several key areas: The maximum physical layer (PHY) rate will be the same at 2,880Mbps x 8, or 23Gbits/s. It will also use the same four frequency bands (2, 4, 5, and 6GHz) and the same 4096 QAM modulation across a maximum channel bandwidth of 320MHz. (A Wi-Fi 8 router won't get 23Gbps of bandwidth, of course. According to MediaTek, the actual peak throughput in a "clean," or laboratory, environment is just 80 percent or so of the hypothetical peak throughput, and actual, real-world results can be far less.) Still, put simply, Wi-Fi 8 should deliver the same wireless bandwidth as Wi-Fi 7, using the same channels and the same modulation. Every Wi-Fi standard has also been backwards-compatible with its predecessors, too. What Wi-Fi 8 will do, though, is change how your client device, such as a PC or a phone, interacts with multiple access points. Think of this as an evolution of how your laptop talks to your home's networking equipment. Over time, Wi-Fi has evolved from communications between one laptop and a router, across a single channel. Channel hopping routed different clients to different bands. When Wi-Fi 6 was developed, a dedicated 6GHz channel was added, sometimes as a dedicated "backhaul" between your home's access points. Now, mesh networks are more common, giving your laptop a variety of access points, channels, and frequencies to select between. For a detailed breakdown of the upcoming advancements coming to Wi-Fi 8, including Coordinated Spatial Reuse, Coordinated Beamforming, and Dynamic Sub-Channel Operation, read the full article. Read more of this story at Slashdot.

Many times, new #technology takes time to diffuse... Wilocity (now Qualcomm) proved the concept of using 60 GHz for new indoor wireless networks over a decade ago. Our deep tech innovation in wireless technology paved the way for a faster and more efficient WiFi experience. Check out this article to learn how our work has impacted the industry. #wireless #deeptech #innovation #60ghz #wifi Link to the article: https://lnkd.in/deQK8vqF